White Creek Watershed Flood Vulnerability and Mitigation Assessment – final report

White Creek Watershed Infrastructure Flood Vulnerability
and Mitigation Assessment
August 23, 2016 Final Report
Prepared by:
Fitzgerald Environmental Associates, LLC.
18 Severance Green, Suite 203
Colchester, VT 05446
in partnership with:
MSK Engineering and Design
150 Depot Street
Bennington, VT 05201

Prepared under contract to:
Adirondack/Glens Falls Transportation Council
11 South Street, Suite 203
Glens Falls, NY 12801

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White Creek Infrastructure Flood Vulnerability Study

TABLE OF CONTENTS
EXECUTIVE SUMMARY
………………………………………………………………………………………………………………………….. I
1.0 INTRODUCTION ………………………………………………………………………………………………………………………….. 1
1.1 P ROJECT BACKGROUND …………………………………………………………………………………………………………………………… 1
1.2 P ROJECT OBJECTIVES ……………………………………………………………………………………………………………………………… 1
2.0 WHITE CREEK WATERSHED BACKGROUND ……………………………………………………………………………………… 2
2.1 C URRENT AND HISTORICAL LAND USE ………………………………………………………………………………………………………….. 2
2.2 W ATERSHED GRADIENTS …………………………………………………………………………………………………………………………. 3
3.0 GEOMORPHIC ASSESSMENT …………………………………………………………………………………………………………. 5
3.1 G EOMORPHIC ASSESSMENT A PPROACH ………………………………………………………………………………………………………… 5
3.2 G EOMORPHIC ASSESSMENT RESULTS …………………………………………………………………………………………………………… 8
4.0 HYDROLOGIC ANALYSIS ……………………………………………………………………………………………………………… 10
4.1 R EVIEW OF USGS R EGIONAL REGRESSIONS ………………………………………………………………………………………………….. 10
4.2 R EVIEW OF USGS R EGIONAL GAGES …………………………………………………………………………………………………………. 11
4.3 H YDROLOGIC ANALYSIS SUMMARY ……………………………………………………………………………………………………………. 12
5.0 HYDRAULIC ANALYSIS ……………………………………………………………………………………………………………….. . 13
5.1 F IELD SURVEY …………………………………………………………………………………………………………………………………….. 14
5.2 MODELING DETAILS ……………………………………………………………………………………………………………………………… 14
5.3 MODEL CALIBRATION ……………………………………………………………………………………………………………………………. 15
6.0 FLOOD MITIGATION ALTERNATIVES ANALYSIS AND FEASIBILITY STUDIES ………………………………………….. 17
6.1 U PSTREAM ALTERNATIVES ……………………………………………………………………………………………………………………… 17
Evaluation of White Creek Bridge Flood Capacity …………………………………………………………………………………. 19
Alternative 1: Floodplain Reconnection Upstream (East) of Blind Buck Road ……………………………………………. 21
Alternative 2: Beatty Hollow Bridge Retrofit or Replacement …………………………………………………………………. 23
Alternative 3: County Road 153 Unstable Embankment near Braymer Road ……………………………………………. 27
Alternative 4: Floodplain Reconnection Downstream (West) of Chambers Road ………………………………………. 30
Alternative 5: Floodplain Reconnection Upstream (East) of Railroad Bridge #4 ………………………………………… 32
Alternative 6: County Route 153 Bridge Upstream Constriction ……………………………………………………………… 34
Alternative 7: Lowering of Railroad Bed and Removal of Culvert at Lenhardt Residence ……………………………. 35
Alternative 8: Replace Undersized Railroad Bridge #5 …………………………………………………………………………… 37
6.2 S ALEM VILLAGE ALTERNATIVES ……………………………………………………………………………………………………………….. . 38
Alternative 2 ……………………………………………………………………………………………………………………………………. 40
Alternative 2a ………………………………………………………………………………………………………………………………….. 41
Alternatives 3, 3a, and 4 …………………………………………………………………………………………………………………… 42
Alternatives 5 and 6 …………………………………………………………………………………………………………………………. 43

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Alternative 7
……………………………………………………………………………………………………………………………………. 44
6.3 MITIGATION PROJECT P RIORITIZATION AND POTENTIAL FUNDING ………………………………………………………………………… 46
Upstream Project Prioritization ………………………………………………………………………………………………………….. 46
Village Project Prioritization ………………………………………………………………………………………………………………. 46
7.0 CONCLUSIONS AND RECOMMENDATIONS …………………………………………………………………………………….. 47
7.1 N EXT STEPS ………………………………………………………………………………………………………………………………………. 47
7.2 P ROJECT AND P LANNING RECO MMENDATIONS ……………………………………………………………………………………………… 47
8.0 LITERATURE CITED …………………………………………………………………………………………………………………….. 49
APPENDICES:
Appendix 1 Hydrologic Analysis Maps (8.5” x 11”)
Appendix 2 Tropical Storm Irene Flood Simulation Maps (11” x 17”)
Appendix 3 Village Alternatives Analysis Maps (11” x 17”)
Appendix 4 Mitigation Project Matrices (11” x 17”)
Appendix 5 White Creek Overall Flood Study Map ( 24” x 36”)

List of Figures
Figure 1.1. White Creek study area map. …………………………………………………………………………………………. 1
Figure 2.1. Historic channel locations downstream of Salem Village ……………………………………………………. 3
Figure 2.2. White Creek watershed and channel slope map ……………………………………………………………….. 4
Figure 3.1. LIDAR terrain model for river valley wall delineation …………………………………………………………. 5
Figure 3.2. Geomorphic reach delineation map ………………………………………………………………………………… 6
Figure 3.3. Typical channel evolution models for F-stage and D-stage …………………………………………………. 7
Figure 3.4. Broad level stream type classification per Rosgen …………………………………………………………….. 9
Figure 5.1. Hydraulic model cross-sections through the Village of Salem ……………………………………………. 13
Figure 5.2. Ineffective flow area example for cross-section 19271 …………………………………………………….. 15
Figure 6.1. Model hydrograph illustrating the impact of floodplain encroachment ……………………………… 17
Figure 6.2 Overview of upstream project alternatives …………………………………………………………………….. 18
Figure 6.3 Bridge flood capacity for public and private crossings on White Creek ……………………………….. 20
Figure 6.4 Berms along field edge at cross-section 14897 ………………………………………………………………… 21
Figure 6.5. T.S. Irene flood depth map showing berms and floodplain east of Blind Buck Road …………….. 22
Figure 6.6. Upstream bank armoring and bridge abutment at Beatty Hollow crossing …………………………. 23
Figure 6.7. Flood elevation changes with increased bridge opening ………………………………………………….. 23
Figure 6.8. Water surface longitudinal profile through the Beatty Hollow crossing ……………………………… 24
Figure 6.9. View of Beatty Hollow bridge and downstream constriction …………………………………………….. 25
Figure 6.10. Proposed realignment for Beatty Hollow bridge ……………………………………………………………. 26
Figure 6.11. Longitudinal profile through abandoned meander near Braymer Road ……………………………. 27
Figure 6.12. Alternative 3 site location map …………………………………………………………………………………… 27
Figure 6.13. Proposed grade control locations along Route 153 ………………………………………………………… 28
Figure 6.14. Unstable bank along Route 153 and diversion weir ……………………………………………………….. 29
Figure 6.15. Alternative 4: Floodplain partially blocked by berm downstream of Chambers Road …………. 30
Figure 6.16. T.S. Irene flood depth map showing berms near Chambers Road ……………………………………. 31
Figure 6.17. Alternative 5: Berm upstream of railroad bridge #4 ………………………………………………………. 32
Figure 6.18. T.S. Irene flood depth map for floodplain near railroad bridge #4 ……………………………………. 33
Figure 6.19. Alternative 6: Laid up stone abutment upstream of Route 153 bridge ……………………………… 34
Figure 6.20. Alternative 7: Ditch leading to culvert under railbed ……………………………………………………… 35

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Figure 6.21. T.S. Irene flood depth map with proposed rail bed lowering
…………………………………………… 36
Figure 6.22. Alternative 8: Railroad bridge #5 …………………………………………………………………………………. 37
Figure 6.23. Map of channel, floodplain, and bridge modifications for Village alternatives …………………… 39
Figure 6.24. Berm along field edge west of Park Place ……………………………………………………………………… 40
Figure 6.25. Alternative 2: Proposed berm removal downstream of Archibald bridge …………………………. 40
Figure 6.26.Alternative 2a: Channel and water surface profile with proposed deepening ……………………. 41
Figure 6.27. Archibald bridge at capacity during the Christmas 2014 flood …………………………………………. 42
Figure 6.28. Moderate bank cut example at cross-section 8684 ……………………………………………………….. 43
Figure 6.29. Large bank cut example at cross-section 7117 ………………………………………………………………. 43
Figure 6.30. Undeveloped floodplain approaching the Archibald bridge …………………………………………….. 44
Figure 6.31. Large floodplain cut at Archibald Street including bridge and house removal ……………………. 44
Figure 6.32. Typical cross-section of channel modifications for alternatives 6 and 7 ……………………………. 45

List of Tables
Table 2.1. Land cover characteristics for the White Creek watershed …………………………………………………. 2
Table 3.1. Summary of reach geomorphic characterstics …………………………………………………………………… 8
Table 3.2 Summary of reach stream types, incision, and channel evolution ……………………………………….. 8
Table 4.1. Recurrence interval flow rates for White Creek ………………………………………………………………. 11
Table 4.2. USGS gages with similar basin characteristrics ………………………………………………………………… 11
Table 5.1. Flow estimates for selected recurrence interval floods on White Creek ……………………………… 16
Table 6.1. Summary of channel and floodplain modification from Village alternatives analysis ……………. 38

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Executive Summary
White Creek Geomorphology and Historical Human Impacts  White Creek has a drainage area of approximately 23 square miles at the VT-NY border and 36
square miles in Salem Village. The agricultural and residential development patterns found in
the watershed are characteristic of typical rural watersheds in this area of Vermont and New
York. Agriculture and moderate density development are more prevalent in the New York
portion; however more than 70% of the watershed is undeveloped and classified as forest or
shrub.
 The White Creek corridor has been historically manipulated along most of its length from West
Rupert into Salem. Channel and floodplain manipulation likely started as early as the 1700’s as
agriculture expanded within the valley, and over the years has included channel straightening,
dredging, berming, and extensive floodplain encroachment from roads and railroads.
 Most of the river valley in Salem is occupied by alluvium parent material, or fine-grained soils
that have been deposited by White Creek over thousands of years. The New York portion of
White Creek is found in an unconfined valley with a low sloped valley and channel (i.e., typically
less than 0.5%). Under reference conditions in this setting we would expect a gravel-bottom,
pool-riffle channel with a moderate to high sinuosity. However due to historic channel
manipulation the resulting planform of the creek is very different from its original state, with
low sinuosity in most reaches and stream type departures observed in several reaches.
White Creek Hydrology and Hydraulics
 Estimating flood discharges for different recurrence intervals in the White Creek watershed in
Vermont and New York is challenging for several reasons:
o White Creek has never had a long term USGS gage to measure continuous discharge.
o White Creek straddles two very different landscapes: steep, mountainous terrain in
Vermont where orographic rainfall is common and annual precipitation may exceed 60
inches; lower elevation terrain in New York where annual precipitation totals are
typically less than 35 inches.
o The USGS hydrologic region where White Creek is found – Region 1 – spans a vast area
of upstate New York. The average parameter values used to develop flow regressions
across this large region may not be appropriate for the White Creek watershed. Region
2 estimates may be more appropriate for White Creek.
 Our review of the USGS regressions and gages in the region suggests that the flood flow
estimates used by NYSDOT and Washington County for evaluating the hydraulic capacity of
bridge openings likely underestimate the range of possible flows in the watershed. For example,
the value used by the State and the County for the 100-year flow at the Village of Salem has
been in the range of 3,500 to 3,700 cfs. Our analysis suggests that the range of flows for this
event likely falls between 5,000 cfs and 6,000 cfs.
 The wide river valley though the Town of Salem and the associated roads, railroad, buildings,
and bridges created a complex environment for hydraulic modeling. Extensive field verification

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and survey was required to understand the flooding dynamics within the study area.
Documentation of Tropical Storm Irene damage and flooding extents collected by the Salem
Flood Study Committee was invaluable for calibrating the hydraulic model and improving the
overall accuracy of the study.
 HEC-GeoRAS and HEC-RAS 4.1 software were used to create a one-dimensional river and
floodplain hydraulics model for White Creek from the Route 153 bridge in Vermont downstream
to the confluence with Blind Buck Brook. LiDAR was used to determine elevations for most
cross-sections in the model, however all bridge openings (and upstream/downstream sections)
were field surveyed. Channel bottom elevations were checked and adjusted throughout the
study area to account for LiDAR error in channel depth.
Infrastructure Vulnerability and Flood Mitigation Alternatives  Our hydraulic analysis included an evaluation of bridge flood capacity for all 17 public and
private bridges on White Creek. 10 of the 17 bridges have limited capacity to pass only the 10-
year flood or less, indicating that most bridges on White Creek are hydraulically undersized by
county and state standards. These assessments assume “clear flow” hydraulics, i.e., t hey do not
account for sediment and debris accumulation upstream or within the bridge opening during
flood events. Therefore the capacity at bridges prone to sediment aggradation and debris
clogging is likely lower during moderate and large flood events.
 Our hydraulic analysis of the White Creek corridor indicated that there are greater opportunities
to mitigate flooding depths and extents during moderate floods, as the flooding is not nearly as
extensive in comparison to large floods (i.e., 2011 Irene flood). The moderate floods, those
which have a 10-20% chance of occurring on any given year, occur on a frequency that regularly
affects residents’ lives and property in the valley.
 We evaluated 8 project alternatives upstream of Salem Village. We began by focusing on flood
resiliency for transportation infrastructure; we explored opportunities for larger bridge
openings, roadway embankment stabilization compatible with river stability. Another focus was
on flood flow attenuation opportunities for moderate floods including berm removals to
reconnect severed floodplains, improvement of drainage beneath the rail bed to reconnect
adjacent floodplains, and riparian buffer restoration.
 We evaluated over 10 project alternatives in Salem Village, and summarized the benefits and
costs for 7 alternatives in greater detail. These alternatives included removal of berms, removal
of the Archibald Street bridge, channel widening and deepening, and floodplain restoration with
home buyouts.
Next Steps  Upstream and Village proje cts were prioritized for “near term” and “long term” benefits to
reducing flood vulnerability in Salem, providing a “roadmap” for the community to follow. We
recommend the following steps for the community to advance these projects over time:

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o
Solicit input from individuals, businesses, and officials from the Towns of Salem and
Rupert at future community meetings regarding specific projects and overall project
prioritization.
o Prioritize one to two projects to pursue each year with assistance from WCDPW,
A/GFTC, and other participating groups to identify appropriate funding sources and
partners.
o Apply for one to two grants each year to advance project development and/or designs.
o Implement projects as funding allows, and monitor project success.
 To further identify and evaluate upstream floodplain restoration and reconnection
opportunities, we recommend a field-based geomorphic study and river corridor plan for the
White Creek reaches in Salem to complement similar work in the Vermont portion of the
watershed.
 River science needs to be better incorporated into future public infrastructure projects in the
watershed to ensure proper sizing and scour protection measures for bridges and roadway
stabilization measures.
 There is a need for better coordination amongst partners working in the watershed, including
the towns, A/GFTC, WCDPW, USFWS, Trout Unlimited, and Battenkill Watershed Alliance. The
need for this coordination is two-fold: 1. to ensure that habitat enhancement work (i.e., weirs)
does not increase flood vulnerability for nearby homes, farmland, and infrastructure; 2. To
ensure that public infrastructure and flood mitigation projects summarized in this report are
conducted in a way to minimize impacts to aquatic habitat and downstream water quality.

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1.0 Introduction
1.1 Project Background The White Creek flows out of steep terrain
in the Taconic Mountains of Vermont and
descends into a broad valley in New York
with a long history of agricultural land use
(see Figure 1 .1). During large floods, the
surge of floodwaters and sediment carried
by White Creek poses a hazard to
infrastructure and public safety along the
river corridor from Rupert to Salem. In the
headwaters area of Rupert, severe erosion
along roads and at critical bridge crossings
has led to costly repair work in recent floods
such as Tropical Storm Irene in 2011. As
White Creek enters the Town of Salem,
inundation hazards are prevalent,
particularly in areas where out of bank flow
occurs and is diverted around and along the
rail bed. In between the state line and the
Village of Salem, White Creek flows approximately 8 river miles along farm fields and adjacent to
Route 153 and the historic rail bed. Along this stretch, the potential for floodplains bordering White
Creek to attenuate or diminish the flood surge downstream is compromised due to historical
manipulation of the channel (i.e., berming along farm fields, channel dredging, confinement along
Route 153 and the rail bed). If these floodplain areas are enhanced and allowed to function at their
full potential, they may be critical in lowering flood risks to transportation infrastructure on the New
York side of the watershed as well as other public and private infrastructure in downstream Salem
Village.
The Adirondack/Glens Falls Transportation Council (A/GFTC) hired Fitzgerald Environmental
Associates (FEA) and project partner MSK Engineering and Design (MSK) to complete a hydrologic
and hydraulic study of the White Creek watershed in Rupert, Vermont and Salem, New York for the
purpose of evaluating infrastructure flood vulnerability and potential mitigation opportunities. The
findings from this study present a “road map” for future flood mitigation efforts including the
prioritization of projects based on their benefits and costs, and recommendations for next steps.
1.2 Project Objectives Flood vulnerability and mitigation studies are most successful when conducted at the watershed
scale beginning with characterization of watershed hydrology and continuing through the evaluation
of reach geomorphology and local channel and floodplain hydraulics. The scope of this project
covered the hydrology, geomorphology, and hydraulics of the White Creek corridor as a basis for
flood resiliency planning. The primary project objectives included: Figure 1 .1 : White Creek watershed boundary and the extents of
the 2012 – 2013 White Creek/Mill Brook SGA study area and the
2016 White Creek Study.

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Characterize the White Creek corridor in Salem to understand the channel’s natural
geomorphic tendencies and historical context;
 Complete a defensible hydrologic and hydraulic study of the watershed to understand the
flood magnitudes and dynamics of the White Creek corridor;
 Assess flood vulnerability of transportation infrastructure and public and private property in
the Town of Salem;
 Identify and evaluate flood resiliency strategies and projects upstream of the Village of
Salem;
 Identify and evaluate flood resiliency strategies and projects in the Village of Salem;
 Develop a “roadmap ” for future flood mitigation efforts in the Town of Salem by weighing
each project’s benefits and costs.
2.0 White Creek Watershed Background
White Creek originates from steep forested headwaters within the Towns of Rupert and Sandgate in
the southwestern corner of Vermont. The mainstem of White Creek converges with Mill Brook near
the Vermont/New York state line. The channel then descends through a wide valley shared with
Route 153 and the abandoned railroad bed until reaching the Village of Salem. White Creek is a
prominent feature within the Village with several streets and numerous houses located adjacent to
the stream banks. Downstream of the Village the channel continues to flow through a wide valley
primarily occupied with corn and hay fields until it reaches the confluence with Black Creek,
approximately 3 miles downstream.
2.1 Current and Historical Land Use Land cover data based on imagery from 2011 (Homer et al., 2015) are summarized in Table 2.1. The
agricultural and residential development patterns found in the watershed are characteristic of
typical rural watersheds in this area of Vermont and New York. Agriculture and moderate density
development are more prevalent in the New York portion; however more than 70% of the
watershed is undeveloped and classified as forest or shrub. Table 2 .1: Land cover characteristics of White Creek watershed (values expressed as a percent) .
Land Cover VT Watershed (22.5 mi 2
) NY Watershed (26.1 mi 2
) Ent ire Watershed (48.6 mi 2
)
Developed 1.8 4.9 3.4
Forest 83.6 57.3 69.7
Shrub 0.6 3.9 2.4
Grassland 0.2 0.4 0.3
Pasture 12.0 21.8 17.1
Cultivated Crops 1.1 10.3 6.0
Wetland 0.7 1.3 1.1
Water 0 0.1 0.1
Historic channel manipulation is a prominent feature along White Creek, especially through the wide
agricultural valleys along the New York portion of the watershed. Channel manipulation likely
started as early as the 1700’s as agriculture expanded within the valley. Large scale channel

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straightening in rural watersheds is typically associated with road and railroad construction, as well
as agricultural land uses. Analysis of historic imagery and mapping (Scott and Smith, 1853; UNH,
2012
) indicates areas where White Creek was completely relocated during the construction of the
railroad (Figure 2.1). Residential and agricultural land use along the river banks and floodplains
further restricts channel migration and floodplain accessibility. Decades of channel manipulation
cause the stream to lock in to an erosional process referred to incision or degradation. As channel
migration is limited by straightening and armoring, the channel begins to cut downward (incision)
which further reduces floodplain access. Berms were constructed in many areas along White Cree k
in response to flooding events. While these berms protect agricultural fields and buildings on the
floodplains, they reduce floodwater storage potential and increase the volume and rate of
floodwaters conveyed downstream toward the Village of Salem.

Fi gure 2.1: Historic channel locations indicate major channel manipulation during
railroad construction and development within the Village of Salem.
2.2 Watershed Gradients Channel slopes within the watershed follow the typical pattern of steep headwater reaches
gradually transitioning to moderate slopes as tributaries converge and the channel increases in size
(Figure 2.2). Channel slopes continue to decrease as the streams enter wide river valleys. As the
stream reaches the state line the channel slope drops below 1% and enters a very wide and
unconfined river valley. Channel slopes through the Village and extending down to the confluence
with Black Brook are typically under 0.5%. The transition from high/moderate slope in Vermont to
low slope in New York also signifies a shift in the types of expected flooding damage from erosion
and inundation in Vermont to predominantly inundation in New York.

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Figure 2.2: White Creek watershed and channel slope map.

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3.0 Geomorphic Assessment
A preliminary geomorphic assessment of the White Creek corridor was conducted to tie into the existing
geomorphic database and River Corridor Plan completed by FEA in Rupert in 2013 (FEA, 2013). The
existing database of geomorphic conditions ends in Rupert at Hebron Road, approximately ½ mile east
of the state line. Our assessments began downstream (west) of Salem Village at the confluence of White
Creek and Blind Buck Stream, and continued upstream to West Rupert (see Figure 3.2). In order to work
within the project time frame through the winter and spring months, we followed an abbreviated
version of the Vermont Department of Environmental Conservation’s Stream Geomorphic Assessment
(SGA) Phase 1 Protocols (VTDEC, 2009), as described below.
3.1 Geomorphic Assessment Approach
 The Salem portion of White Creek was delineated into 8 reaches (along approximately 8 river
miles) following VTDEC’s SGA Phase 1 protocol for reach delineation.
 Step 2 of VTDEC’s SGA protocol was populated, including valley and channel slope, watershed
drainage area, sinuosity, reference channel
geometry per Mulvihill et al. (2007),
reference stream type (Rosgen, 1994), and
reference bedform (Montgomery and
Buffington, 1997). Valley width and
confinement were generated using a
percent slope map, generated from the
LiDAR elevation data, to identify valley
walls and measure valley width (Figure
3.1). The Step 2 data is summarized in
Tables 3.1 and 3.2.
 The study area was scanned remotely
using high-resolution aerial photography
and LiDAR data to locate areas with
excessive sedimentation or lateral
movement post-Irene flood, i.e., significant
channel features such as bank erosion, large gravel deposits, debris jams, etc.
 Cross-sections cut from the HEC-RAS model at regular intervals were used to characterize
reference and existing stream type, channel evolution stage, channel geometry and
channel/floodplain connectivity, and estimate entrenchment and incision ratios. This data is
summarized in Table 3.2.
 A windshield survey was conducted to verify data generated remotely. This included
observations at access points along the Creek, such as bridge crossings and the railroad bed
adjacent the channel. Valley
Width
Figure 3.1 : LiDAR Terrain Model for
River Valley Wall Delineation.

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Figure 3.2: Geomorphic reach delineations along White Creek in Salem.

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The information collected in this assessment assist
ed with assigning a channel evolution model (CEM)
stage for each reach (Schumm, 1977). Channel evolution models provide a basis for understanding
the temporal scale of channel adjustments and departure in the context of SGA results. Both the “D”
sta ge and “F” stage CEMs (VTDEC, 2009) are helpful for explaining the channel adjustment processes
underway in the White Creek watershed. The “F” stage CEM is used to understand the process that
occurs when a stream degrades (incises) its bed. The more domina nt adjustment process for the “D”
stage channel evolution is aggradation, widening and planform change. D-stage CEM typically occurs
where grade controls prevent severe channel incision and abandonment of the adjacent floodplain.
The common stages of both CEMs are depicted in Figure 3.3 below.

Figure 3.3: Typical channel evolution models for F-stage and D-stage (VTDEC, 2009).

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3.2 Geomorphic Assessment Results Table 3.1 : Summary o f reach geomorphic characteristics for the White Creek corridor in Salem, NY.
Reach Elevation River Valley River Channel
Sinuosity Drainage
Area (mi 2
) HGR Channel Width*
Valley
Width (ft) Confinement
Up
(ft) Down
(ft) Length
(ft) Slope
(%) Length
(ft) Slope
(%) VT (ft) NY (ft) Ratio
(NY) Type
Reach 1 466 455 3,712 0.30 3, 908 0.28 1.05 42.4 68.1 83.5 2,050 24.6 Very Broad
Reach 2 490 466 6,656 0.36 6,805 0.35 1.02 35.8 63.2 78.5 2,250 28.7 Very Broad
Reach 3 505 490 2,880 0.52 3,350 0.45 1.16 35.4 63.0 78.2 1,900 24.3 Very Broad
Reach 4 527 505 4,170 0.53 4,545 0.48 1.09 32.8 60.8 76.0 1,050 13.8 Very Broad
Reach 5 552 527 4,380 0.57 5,094 0.49 1.16 28.2 56.9 72.0 1,650 22.9 Very Broad
Reach 6 588 552 5,030 0.72 6,159 0.58 1.22 27.0 55.9 70.9 1,250 17.6 Very Broad
Reach 7 626 588 4,559 0.83 4,668 0.81 1.02 25.5 54.5 69 .5 1,500 21.6 Very Broad
Reach 8 691 626 6,940 0.94 7,244 0.90 1.04 23.2 52.2 67.1 1,800 26.8 Very Broad
*
Hydraulic Geometry Regressions (HGRs) for bankfull channel width estimates from Mulvihill et al. (2007) for New York and VTANR (2009) for Vermont.
Table 3.2 : Summary o f reach stream typing, incision, and channel evolution.
Reach Reference Existing
Stream
Type ᶧ Substrate Bedform ᶧ Stream
Type ᶧ Incision
Ratio CEM
Stage ᶧ
Reach 1 C Gravel Riffle – Pool C Moderate F/III
Reach 2 C Gravel Riffle – Pool C Moderate F/III
Reach 3 C Gravel Riffle – Pool F Poor F/II
Reach 4 C Gravel Riffle – Pool B Moderate F/III
Reach 5 C G ravel Riffle – Pool C Good F/IV
Reach 6 C Gravel Riffle – Pool C Good F/III
Reach 7 C Gravel Riffle – Pool F Poor F/II
Reach 8 C Gravel Riffle – Pool C /F Good F/II
ᶧ Stream types per Montgomery and Buffington (1997) and Rosgen (1994)
Channel evolution model (CEM) per Schumm (1997)

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Geomorphic conclusions:
The preliminary geomorphic assessment provides a basis for understanding the river valley setting
and predicting what types of channel forms would be expected under
“reference ,” or undisturbed
conditions. This effort is useful for understanding the tendency of the White Creek corridor to
support natural river forms that may be beneficial for reducing flood vulnerability in downstream
areas such as Salem Village. Some key conclusions are outlined below.
 Most of the river valley is occupied by alluvium parent material (see Figure 3.2), or fine-grained
soils that have been deposited by White Creek over thousands of years.
 The New York portion of White Creek is found in an unconfined valley, with a low sloped valle y
and channel (i.e., typically less than 0.5%). Under reference conditions in this setting, we would
expect a gravel-bottom C or E-type channel (see Figure 3.4) with a sinuosity of 1.2 to 1.5 .
Sinuosity sometimes exceeds 1.5 in these settings. Given the high bedload supplied by the steep
mountainous headwaters in the Vermont portion of the watershed, it is likely that some reaches
of White Creek historically supported braided channel forms, particularly near the inflection
point in the valley near the state line.
 Every reach of White Creek in New York has been heavily manipulated in the past. These
manipulations include channel straightening and relocation, bank armoring, berms and levees,
clearing of riparian vegetation, channel dredging, and others. The resulting planform of White
Creek is very different from its original state, with sinuosity less than 1.2 in most reaches, and
stream type departures observed in 3 of the 7 reaches, indicating a severe departure from the
reference condition.
 Floodplain connectivity, as measured by the ability of a 2-year flood to access the adjacent
benches or low floodplain, ranged from poor to good along the corridor. Areas with the most
restricted floodplain access due to berms and levees along the channel include Reach 3
upstream of Blind Buck Road, and Reach 7 downstream of the NY Route 153 crossing.
 Channel evolution stages indicated a high bedload channel that is aggrading following the large
floods of the last 20 years; however further field observations would be required to verify these
conditions.

Figure 3.4: Broad level stream type classification per Rosgen (1996)

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4 .0 Hydrologic Analysis
This section provides a summary of the hydrologic data analysis used to estimate flood flows for
different recurrence intervals in the White Creek watershed. The U.S. Geological Survey (USGS) has
never operated a continuous gage in the watershed. Therefore, the records available to complete this
analysis include USGS regional regressions and gage records.
4.1 Review of USGS Regional Regressions We used USGS Regional Regression for three (3) regions to calculate flow rates in the White Creek
watershed at a range of recurrence intervals: 1.5-year (bankfull), 2-year, 10-year, 25-year, 50-year,
100-year, and 500-year (abbreviated as Q1.5, Q2, etc). The USGS Streamstats program enables a user
to quickly calculate flow rates at numerous locations within a watershed, based on the point location
for the watershed delineation. The Streamstats program utilizes the regional hydrologic regressio n
equation based on the location of the watershed delineation point.
White Creek in Salem, NY is located within hydrologic region 1 for New York State. Approximately half
of the 49 square mile watershed is located in Vermont, and at the state line the upstream watershed
is approximately 23 square miles. The portion of the watershed draining through the Village of Salem
is approximately 35.8 square miles. We tested the Streamstats calculations at the state line by
calculating recurrence interval flows based on a watershed drawn in NY (using Region 1 regressions)
and a watershed drawn immediately upstream using the VT regressions. This yielded results with
significantly larger flows predicted from the Vermont regression. Salem is located near the southern
boundary of NY hydrologic region 1 (see Figure 1 in Appendix 1); therefore we also calculated flows
using the regression equations for NY hydrologic region 2 (Table 4.1). Each regional calculation
utilizes a different set of calculation variables shown below:
NY Region 1: Q100 = 10,300 * (Drainage Area)0.96 * (Basin Storage + 1)-0.202 * (Annual Rainfall)1.106 *
(Basin Lag Factor + 1)-0.539 * (Basin Forested Area + 80)-1.638
NY Region 2: Q100 = 52.3 * (Drainage Area)0.9 * (Basin Storage + 5)-0.918 * (Basin Lag Factor +1)-0.461
* (Mean Annual Runoff)1.104
Vermont: Q100 = 0.251 * (Drainage Area)0.854 * (Basin Wetland Area)-0.297 * (Annual Rainfall)1.809
The rainfall and runoff estimates for the NY regressions were generated from a 1951-1980 dataset
(R andall, 1996; Lumia et al., 2006). The Vermont regressions were recently updated and utilize a
1981-2010 rainfall dataset from the PRISM Group at Oregon State University (Olson, 2014). The data
sources used for the NY Region 1 and Vermont regressions have a large difference in mean annual
rainfall estimates for the watershed draining to the VT/NY border (40.3 inches from Randall; 55.3
inches from PRISM Group). Both rainfall datasets indicate an area of increased annual rainfall in the
headwaters south of Rupert (see Figures 2 and 3 in Appendix 1); however the Randall estimate (45
inches) is much lower than the PRISM estimate (63.7 inches). This is likely due to a combination of
data quality/resolution and a well documented trend of increased annual precipitation depth in the
region in recent decades (Stager and Thill, 2010). The PRISM dataset predicts a mean annual rainfall

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depth of 48.3 inches for the 35.8 mi
2
watershed draining to Salem. This value was used for regression
calculations in Salem (Table 4.1).
Table 4.1: Recurrence interval flow rates for White Creek at the VT/NY border and in Salem. Location
(Drainage Area) Regression Q1.5 Q2 Q10 Q25 Q50 Q100 Q500
VT – NY Border
( 23.2 mi 2
) NY (Region 1) 691 846 1,577 1,980 2,284 2,628 3,422
NY (Region 2) 845 1 ,075 2,386 3,279 4,043 4,897 7,269
VT NA 1,212 2,413 3,255 3,955 4,720 6,864
Salem Village
( 35.8 mi 2
) NY (Region 1) 1,006 1,228 2,270 2,843 3,275 3,765 4,891
NY (Region 2) 1,115 1 , 468 3 , 156 4 , 290 5 , 250 6 , 319 9 , 252
VT NA 1 , 323 2 , 533 3 , 427 4 , 129 4 , 882 6 , 976
4.2 Review of USGS Regional Gages
We compared the regression equation flow estimates to recurrence interval flows described for USGS
gaging stations in New York, Vermont, Massachusetts, and Connecticut (Lumia et al., 2006; Olson,
2014). We identified 20 USGS gaging stations that were similar to White Creek in Salem NY based on
the following characteristics: drainage area, slope, rainfall, wetlands, and basin land cover (see Figure
1 in Appendix 1). From these we selected a subset of 11 gages which best matched the White Creek
basin characteristics and are either currently operational or recently decommissioned (Table 4.2). Table
4.2: USGS gages wit h similar basin characteristics; gages selected for analysis are shown in bold.
100 -year and 2 -year fl ow rates are area -normalized as CSM (cubic feet per second per square mile) Source Stream State USGS ID Years of
Record Drainage
Area (mi 2
) Basin Slope
(ft/mi) Q2
(CSM) Q100
(CSM) Lumia et al. 2006

Salmon Cr. CT 01199050 1961 – 2014 29.4 124.8 20 152
WB S acandaga River NY 01319000 1933 – 1978 28.9 81.2 40 81
Little Hoosic River NY 01333500 1948 – 2014 56.1 60.3 35 128
Bushnellsville Cr. NY 01362197 1952 – 2012 11.4 142 31 223
Chestnut Cr. NY 01365500 1938 – 2014 20.9 88.5 57 295
Sandburg Cr. NY 01366650 19 57 – 1977 52.8 60.8 36 127
Little Delaware River NY 01422500 1938 – 2014 49.8 49.9 42 115
Trout Cr. NY 01424500 1941 – 1996 49.5 48.4 43 111
WB Neversink River NY 01434498 1938 – 2014 33.8 75.8 127 541
Neversink River NY 01435000 1938 – 2014 66.6 69.7 92 336
Little Chazy River NY 04271815 1990 – 2014 50.3 43.7 12 51
Putnam Cr. NY 04276842 1990 – 2014 51.6 80.0 25 81
Olson 2014

Ayers Br. VT 01142500 1927 – 2014 30.5 58 25 114
Ottauquechee River VT 01150900 1984 – 2014 23.3 53 43 197
Saxtons River VT 01154000 1936 – 2014 72.2 86 39 194
NB Hoosic River MA 01332000 1927 – 2011 40.9 69.2 60 306
Green River MA 01333000 1948 – 2014 42.6 67.7 35 119
Mettawee River VT 04280350 1985 – 2008 70.2 72 31 131
Little Otter Cr. VT 04282650 1990 – 2014 57.1 19 15 54
Laplatte R iver VT 04282795 1990 – 2014 44.6 47 22 92
White Creek in Salem, NY 35.8 74 —
Median value for selected gages 41 72 35 152
Predicted flow (cfs) at VT/NY Border (23.2 mi 2
) 812 3,526
Predicted flow (cfs) in Salem ( 35.8 mi 2
) 1,253 5,442

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4.3 Hydrologic Analysis Summary Estimating flood discharges for different recurrence intervals in the White Creek watershed in
Vermont and New York is challenging for the following reasons:
 White Creek has never had a long term USGS gage to measure continuous discharge.
 White Creek straddles two very different landscapes: steep, mountainous terrain in Vermont
where orographic rainfall is common and annual precipitation may exceed 60 inches; lower
elevation terrain in New York where annual precipitation totals are typically less than 35
inches.
 The USGS hydrologic region where White Creek is found – Region 1 – spans a vast area of
upstate New York. The average parameter values used to developed flow regressions across
this large region may not be appropriate for the White Creek watershed. Region 2 estimates
may be more appropriate for White Creek.
Our extensive review of the USGS regressions and gages in the region suggests that the flood flow
estimates used by NYSDOT and Washington County for evaluating the hydraulic capacity of bridge
openings likely underestimate the range of possible flows in the watershed. For example, the value
used by the State and the County for the 100-year flow at the Village of Salem has been in the range
of 3,500 to 3,700 cfs. Our analysis suggests that the range of flows for this event likely falls between
5,000 cfs and 6,000 cfs. Our hydraulic analysis using a HEC-RAS model and high water marks from
Tropical Storm Irene (2011) suggests that we are within this range, as described in further detail in
the following section.

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5 .0 Hydraulic Analysis
The wide river valley though the Town of Salem and the associated roads, railroad, buildings, and
bridges created a complex environment for hydraulic modeling. Extensive field verification and
survey was required to understand the flooding dynamics within the study area. Documentation of
Tropical Storm Irene damage and flooding extents collected by the Salem Flood Study Committee
was invaluable for calibrating
the hydraulic model and
improving the overall accuracy
of the study.
HEC-GeoRAS and HEC-RAS 4.1
software were used to create a
one-dimensional river and
floodplain hydraulics model for
White Creek from the Route 153
bridge in Vermont downstream
to the confluence with Blind
Buck Brook. A floodplain digital
elevation model (DEM) was
created for the study area using
high-resolution LiDAR elevation
surfaces from a dataset covering
the Hudson, Hoosic, and
Deerfield basins collected by
FEMA in 2012. We converted
the DEM from meters to feet
and used it to create a
Triangulated Irregular Network
(TIN). The TIN is an alternate method for representing the elevation surface that is much easier and
faster to process for hydraulic modeling purposes.
The HEC-GeoRAS model was set up by first digitizing the stream centerline and the top of each bank.
We constructed the hydraulic model as a single reach for the 48,300 foot long study area. The next
step was to classify the land cover and the associated roughness values (Mannings N values) for the
channel and floodplain areas. Based on 2014 aerial imagery, we manually traced areas of different
land cover and assigned roughness values ranging from 0.035 (gravel bottom stream channel) to 0.08
(forest) following Chow (1959) and Arcement et al. (1989). Next, cross-sections were drawn
perpendicular to channel and floodplain flow stretching across the valley to contain all areas of
overbank flow (Figure 5.1). HEC-GeoRas allows the user to “slice” cross-sections across the floodplain
and channel and the software automatically samples the DEM to create an accurate 3D lateral profile
of the floodplain.
Figure 5.1 : Modeled cross – sections through the Village of Salem

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5.1 Field Survey Field verification of important floodplain features and road crossings was completed for the entire
study area in February and March, 2016. This is very important when constructing a large hydraulic
model based on LiDAR derived DEMs which are inherently less accurate in areas of steep slope
transitions,
at bridges and along road embankments where the DEM is sometimes adjusted to reflect
the “bare earth” condition, and sometimes in areas with dense coniferous tree cover. LiDAR
technology also has limited ability to penetrate water, therefore channel bottom and channel bank
elevations in the DEM are typically less accurate than elevations along the floodplain. The LiDAR data
are processed to remove the elevation of vegetation, buildings, bridges, etc. to create a surface that
represents the “bare earth” elevation. Bridge dimensions and accurate channel and bank elevations
and dimensions are critical components for HEC-RAS modeling. For each of the 17 bridges in the
study area we surveyed upstream and downstream sections, high and low chords, spans, and
heights. A licensed surveyor from MSK collected detailed survey around all major roadway bridges
within the study area using a Sprectra Precision Epoch 50 equipped with RTK smart rover. Staff from
FEA collected additional survey for railroad and private road bridges and collected channel bottom
and bank elevation surveys using a CST-Berger® 32x SAL Automatic Level (+ 1.0mm accuracy @ 1km
run) and standard survey rods. Horizontal data such as top of bank and bridge opening dimensions
were collected using a handheld Ashtech MobileMapper™ M100 Series GPS device (sub half-meter
accuracy). Channel bottom elevations were surveyed along any HEC-RAS cross-sections that were
visible from the bridges. 5.2 Modeling Details
The output file generated from HEC-GeoRAS can be directly opened in HEC-RAS 4.1. Given the scale
of the project and the width of the cross-sections, we had to manually check each “sliced” cross-
section for accuracy and make adjustments as needed. Typical adjustments included bank station
locations and smoothing of elevations around buildings and areas of dense vegetation. Channel
bottom elevations were checked and adjusted in any areas that were field surveyed. Typical channel
bottom adjustments ranged from 0.5 to 2 feet based on canopy density and water depth. We also
plotted the channel longitudinal profile and looked for any unnatural slope changes. Channel width
and bank profile were typically very accurate based on field measurements, LiDAR floodplain
elevations were unchanged except in areas of dense development.
We included a total of 89 cross-sections in the model with added detail around bridges and
important areas for overbank flow and past flood damage. The rail bed and roads through most of
the study area create important lateral flow boundaries and were challenging to represent with a
one-dimensional model. We utilized a combination of levees to block off areas where flooding has
not been observed, and ineffective flow areas (both permanent and non-permanent ) to reduce the
volume of water that can be conveyed through an area that does flood. The latter approach was
used to reduce the volume that is conveyed in the model to best represent downslope flow
restrictions (Figure 5.2). Permanent structures (houses, barns, etc.) were digitized in ArcGIS and
added to the GeoRAS database as obstructions.

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5.3 Model Calibration
We created an existing conditions plan and ran a steady flow model simulation with a mixed flow
regime. The estimated discharges for different flood recurrence intervals were calculated from a
series of regional regressions and from comparison to nearby USGS gaging stations in watersheds
with similar size, slope, and rainfall (see Section 4). Flow change locations were designated at six (6)
points along White Creek to adjust flows based on upstream drainage areas (Table 5.1); the flow
change locations were generally located at tributary junctions. After generating water surface
elevations and extents we fine-tuned the model with additional levees and ineffective flow area
adjustments. The water surface elevations were calibrated to known high water marks and to
estimated inundation extents from direct flood observations, photographs,
and a series of maps and
flooding descriptions provided by the Salem Flood Study Group. Two high water marks were
surveyed near the Route 22 bridge and the Archibald Street bridge, providing valuable data for
improving the model in this critical area.

Figure 5.2: Cross – section 19271 upstream of Beatty Hollow Road where the ineffective flow
area (green hashed lines) reduces the amount of floodplain available for conveyance until the
water surface is high enough to flow over Route 153.

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Table 5.1 : Flow estimates for select recurrence interval floods on White Creek scaled to the drainage
area at each flow change location.
Recurrence interval flow estima tes (cfs)
Cross –
Section Drainage
Area (mi 2
) Q2 Q5 Q10 Q50 Q100 Q500
48227 16.2 632 942 1,287 2,122 2,534 3,672
44614 23.2 905 1,348 1,843 3,039 3,630 5,258
40229 27.0 1,053 1,569 2,145 3,537 4,224 6,119
27218 28.2 1,099 1,639 2,241 3,694 4,412 6,391
20698 32.8 1,279 1,906 2,606 4,297 5,131 7,434
13547 35.8 1,396 2,081 2,844 4,690 5,601 8,114

The estimated 100-year flood discharge from our hydrologic analysis (5,600 cfs), when routed through
the existing conditions model, aligns well with observed water levels and flooding extents during the
2011 Tropical Storm Irene flood on White Creek, both in the Village and upstream (see maps in
Appendix B). In addition, we ran a simulation that accounted for partial debris blockage (approximately
50%) of the Archibald Street bridge opening and channel aggradation (approximately 1-2 ft) in the
Village, based on observations provided by the Town and the Flood Study Group. The results from this
simulation indicated high water elevation agreement within 2 inches at the two high water marks in the
Village. It is reasonable to assume that Tropical Storm Irene was between a 50-year and 100-year flood
on White Creek, as a USGS review of the annual exceedance probabilities (AEP) on gages in Vermont and
New York classified the 2011 flood as a 100-year flood (or greater) in most basins in southern Vermont
(Suro
et al., 2015). We reviewed the 4 gages nearest and surrounding the White Creek watershed and
found that the average AEP exceeded the 2% flood (i.e., 50-year flood).

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6.0 Flood Mitigation Alternatives Analysis and Feasibility Studies
6.1 Upstream Alternatives We used the results of our geomorphic, hydrologic, and hydraulic analyses to identify potential flood
resiliency opportunities along the White Creek corridor upstream of Salem Village. We began by
reviewing the projects highlighted in the 2012 CT Male report (CT Male, 2012) to ensure that past
work was not duplicated. The sites we evaluated represent a wide spectrum of near-term and long-
term project types. The primary focus was on flood resiliency for transportation infrastructure; we
explored opportunities for larger bridge openings, roadway embankment stabilization compatible
with river stability, and other practices highlighted in the Vermont Agency of Natural Resources
Standard River Principles and Practices (Schiff et al., 2015). In addition, with the objective of
ameliorating the historical impacts of channel straightening, berming, and other encroachments on
the surge of floodwaters in Salem (Figure 6.1), we explored flood flow attenuation opportunities for
moderate floods including berm removals to reconnect severed floodplains, improvement of
drainage beneath the rail bed to reconnect adjacent floodplains, and riparian buffer restoration.
Our hydraulic analysis of the White Creek corridor indicated that there are greater opportunities to
mitigate flooding depths and extents during moderate floods, as the flooding is not nearly as
extensive in comparison to large floods (i.e., 2011 Irene flood). The moderate floods, those which
have a 10-20% chance of occurring on any given year, occur on a frequency that regularly affect
residents’ lives and property. The sites we prioritized and explored in further detail are shown in
Figure 6.2 on the following page.

Figure 6.1: Model hydrograph illustrating the impact of floodplain encroachment
on the downstream flood wave (USACE, 1980).

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Figure 6.2: Overview map of upstream project alternatives.

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Evaluation of White Creek Bridge Flood Capacity
Our upstream analysis included an evaluation of bridge flood capacity for all
17 public and private
bridges on White Creek. Using our detailed hydraulic model, we evaluated the capacity of bridges to
pass flood discharge associated with each flood frequency without increasing flooding to adjacent
properties. In some cases the water elevation associated with a flood event is estimated to be near or
above the low chord of the bridge deck without increased risk of flooding to adjacent properties (e.g.,
2-year flood for Archibald Street bridge). In these cases, this flood discharge was assumed to be the
maximum capacity of the bridge. A summary of key observations from this analysis is provided below
to go along with Figure 6.3 on the following page.
 Only 2 bridges can safely pass the estimated 100-year flood without increasing flooding to
adjacent property.
 10 of the 17 bridges have capacity to safely pass the 10-year flood or less, indicating that
most bridges on White Creek are hydraulically undersized by county and state standards.
 All railroad bridges have a capacity of the 10-year flood or less.
 There are 3 severely undersized bridges in Salem Village: Route 22, Archibald Street, and the
downstream railroad bridge (RR-1) . These constrictions aggravate the problem of sediment
aggradation in the channel by slowing floodwater velocity and causing gravel and sand
bedload to deposit through the Village, thereby increasing flood vulnerability to properties in
the Village.
 Archibald Street bridge is severely hydraulically undersized; further detailed information
about the capacity of this bridge is provided in Section 6.2.
 Railroad Bridge #5 in West Rupert, a bridge over the rail trail, is severely undersized. The
reference bankfull channel width at this crossing is 53 feet; the structure span is 23 feet and
is poorly aligned with the channel. In addition, the abutment scour protection on the south
bank further constricts the channel. This undersized bridge causes channel backwater during
large floods and contributes to overbank flow along the southeast side of the railroad tracks
(see Section page 37 for further detail about this problematic structure).
 These assessments of flood capacity assume “clear flow” hydraulics, i.e., they do not account
for sediment and debris accumulation upstream or within the bridge opening during flood
events. Therefore the capacity at bridges prone to sediment aggradation and debris clogging,
such as the Archibald Street bridge, is likely lower during moderate and large flood events.

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Figure 6.3: Bridge flood capacity for public and private crossings on White Creek.

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Alternative 1: Floodplain Reconnection Upstream (East) of Blind Buck Road
Berms are found on the east and west banks along a farm field east of Route 153 and upstream of Blind Buck Road (Figures 6.4 and 6.5 ). The
berms vary between 2 to 4 feet tall and restrict access to floodplains in agricultural use along both banks. During large flood events such as Irene
in 2011, flow jumps out of bank at a bend in the stream between sections 14432 and 14897. However, the berms partially restrict access to a
large floodwater storage area under moderate flood conditions. We estimate these floodplains contain approximately 1,500,000 cubic feet of
storage, or 4% of the approximate 10-year flood volume. Reconnecting these floodplains for moderate floods would not appear to increase flood
vulnerability to improved property in the immediate vicinity, and would serve to dampen the flood wave downstream in Salem. This work would
require an estimated 1,800 cubic yards of excavation and easements from the farmer. The ability of the floodplain to slow the velocity of out of
bank flow would be significantly enhanced by taking this farmland out of production and re-establishing native woody vegetation, however this
would come at a significant loss to the farmer, perhaps beyond an amount a permanent conservation easement would reasonably cover.

Figure 6.4: Cross-section 14897 located approximately 1,000 feet upstream (east) of Blind Buck Road. Berms along edge
of field
Route 153 500 1000 1500 2000498500502504506508510512 G e o Ra s_ m o d e l P l a n : Ap ri l _ 7 _ l o w_ fl o o d _ e xi sti n g 5 /1 0 /2 0 1 6
RS = 14897
Station (ft)E levation (ft) Legend
WS SS Mean Q100
WS SS Mean Q10
WS SS Mean Q2
Ground
Levee
Bank Sta.05 .
0
8 .04 .
0
7 .05 .06 .
0
8

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Figure 6.5: T.S. Irene flood depth map showing berms and floodplain east of Blind Buck Road. Berms along
edge of field

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Alternative 2: Beatty Hollow Bridge Retrofit or Replacement
The Beatty Hollow crossing of White Creek is located at a natural pinch in the valley where bedrock ledge is found on the bounding slopes to the
east and west. Our hydraulic modeling of large floods suggests that this pinch point in the valley causes depths exceeding 12 feet upstream of
the Beatty Hollow Road bridge (see page 7 of Appendix 2). During a large flood, water has to squeeze between the valley walls and through the
current clear bridge span of 44 feet; this has caused road embankment erosion in past floods (Figure 6.6). We evaluated how a bridge span
approximating the reference bankfull width (see Figure 6.7) would change local hydraulics and potentially reduce the volume of water leaving
the channel upstream, and reduce the risk of embankment failure. Our analysis indicates that a bankfull span with the same height as the
existing structure would lower the 100-year flood elevation by 2.7 feet (Figure 6.8), thereby reducing flooding at the adjacent house to the east.
A span of this size may also help to reduce out of bank flows upstream of the railroad bridge which get trapped along the west side of Route 153
to the south a nd exacerbate flooding downstream near the Village. Channel velocity during large floods would be reduced by as much as 25%,
reducing the vulnerability of the Route 153 and Beatty Hollow Road embankments to erosion failure.
Figure 6. 6 : Looking west at upstream approach of White Creek to
Beatty Hollow Bridge. Note the embankment armor from repairs
following the 2000 flood, and the steep bedrock slope in the
background. The western abutment was moved toward Route 153 in
1999 to increase the clear span from 35 feet to 44 feet . Figure 6. 7 : Upstream face of Beatty Hollow bridge showing the existing 100 – year flood
level and proposed with the increased span to 65 feet to provide a bankfull channel.
Note that floodwaters impact the adjacent house under exist ing conditions as was
observed during the Tropical Storm Irene flood. Q10 0 EX
Q100 PR 200 300 400 500 600515520525530535540545 G e o Ra s_ m o d e l P l a n : 1 ) q 1 0 0_ b e a tty1 2 ) Ap ri l 2 0 _ h i g h N
RS = 18850 BR Station (ft)E levation (ft) Legend
WS SS Mean Q100 – April20_hig hN WS SS Mean Q100 – q 100_beatty1 – April20_hig hN
– April20_hig hN
– April20_hig hN
Ground – April20_hig hN
Ineff – April20_hig hN
Bank Sta – April20_hig hN – q100_beatty1
– q100_beatty1
– q100_beatty1
Ground – q100_beatty1
Ineff – q 100_beatty1
Bank Sta – q 100_beatty1

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Figure 6.8: Profile of 100-year flood in the vicinity of Beatty Hollow Road crossing. Blue line represents existing conditions profile and magenta
line represents proposed conditions profile with the span increased to 65 feet to provide a bankfull channel.

18000 19000 20000 21000510515520525530 G e o Ra s_ m o d e l P l a n : 1 ) Ap ri l 2 0 _ h i g h N 4 /2 2 /2 0 1 6 2 ) q 1 0 0 _ b e a tty1 5 /1 0 /2 0 1 6
Main Channel Distance (ft)E levation (ft) Legend
Q100 Existing
Q100 Proposed
Ground
B e attie HollowRR2A d de d p o st L iDA R b e rm on rig ht ba n kWhite Creek 1

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A more immediate solution to increasing the hydraulic capacity of the bridge opening is to remove a constriction caused by riprap armor at the
downstream side of the bridge (Figure 6.9). We estimate this riprap is obstructing the downstream hydraulic opening by 10-15%. This
encroachment causes further channel constriction to approximately 35 feet. This armor does not appear to be protecting critical infrastructure;
The stone could be repositioned to create more of a stacked stone wall to protect the road pull-off while eliminating the encroachment. Figure 6. 9 : View of Beatty Hollow Bridge
opening from upstream (taken by Evan
Fitzgerald, May, 2016). Note the riprap
stone projec ting out into the channel at
the downstream end of the bridge.

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In the long term a realignment of the road crossing would significantly improve the hydraulic capacity of this pinch point in the valley. Figure
6.10 illustrates a possible realignment of the road intersection; this would need to be evaluated further by the County to ensure safety with
respect to traffic patterns and sight distances. The realignment would reduce the sharp bend in the channel immediately upstream of the
current bridge opening. In addition, the west bank upstream of the bridge could be lowered in elevation (hatched area) to allow for some
overbank conveyance, thereby improving the hydraulics upstream of the structure. Finally, if a more comprehensive flood resiliency project i s
considered in the future with the bridge realignment, the removal of the railroad embankment upstream (north) of the bridge may also provide
additional flood reduction benefits. Removal of the railroad embankment would allow floodwaters leaving the channel upstream of the next
upstream railroad bridge to rejoin the main channel near Beatty Hollow Road, assuming the headwater depth is reduced with a large span. This
could alleviate flooding downstream in the Village by reducing the volume of water crossing Route 153 to the west.
Figure 6.1 0 : Beatty Hollow Bridge
current alignment versus an
alternative alignment which
would improve the channel
approach and hydraulic capacity .

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Alternative 3: County Road 153 Unstable Embankment near Braymer Road
This site was addressed in 2012 as part of the post-flood recovery work planned and
engineered by CT Male for the Town and Village of Salem. The purpose of the
project was to reconnect an abandoned meander to the east (Figure 6.12), which
would lead to lower flood flow velocity and erosion risk along Route 153. The
abandoned channel is currently steeper than the reconnected meander; the
reconnected meander dissipates energy over a longer run. The diversion weir at the
upstream end has likely exacerbated erosion along the Route 153 embankment
(Figure 6.14), as it has further steepened the head of an already over-steepened
channel, leading to higher flood velocities (Figure 6.11). To prevent further erosion
along the embankment, we propose bank armor in conjunction with grade control in
the channel adjacent the road either in the form of 2-3 discrete weirs or vanes
(Figure 6.13), or naturalized bed armor to raise the channel grade at or near the
adjacent meander channel.

Figure 6.1 1 : Longitudinal profile from LiDAR and field observations. Figure 6.1 2 : Site location map

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Figure 6.13: Looking south along Route 153 at site of proposed grade control to prevent further downcutting and
undermining of roadway embankment. The roadway embankment would need to be armored. Stone from the
downstream diversion, which we deem unnecessary, could be repurposed for a portion of the grade control and bank
armor. Erosion along
Rt . 153 Toe of
Embankment
Diversion Weir Pr oposed Grade
Control Weirs

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Figure 6.14 : Looking north (upstream) at the unstable bank. Route 153 is on the top of the slope, and the upstream
diversion weir is seen in the background.

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Alternative 4: Floodplain Reconnection Downstrea m (West) of Chambers Road
A berm stretches along the south bank downstream from the Chambers Road bridge and adjacent railroad bridge for approximately 900 ft,
extending beyond cross-section 22800 (Figures 6.15 and 6.16). The berm is typically 1.5ft tall and restricts access to a 5 acre floodplain in
agricultural use that is bounded by the railroad to the east. In addition, the railroad bed severs a portion of the floodplain to the east. These
combined areas represent approximately 530,000 cubic feet of floodplain storage. Reconnecting these floodplains for moderate floods would
not increase flood vulnerability to improved property in the immediate vicinity (i.e., out of bank flows would return to the channel safely without
affecting residences), and would serve to dampen the flood wave downstream in Salem. This work would require an estimated 8,600 cubic yards
of excavation and easements from the farmer. The ability of the floodplain to slow the velocity of out of bank flow would be significantly
enhanced by taking this farmland out of production and re-establishing native woody vegetation to increase floodplain roughness.

Figure 6.15 : Model cross-section 22800 downstream of Chambers Road showing a near bank berm and the railroad bed which both sever th e
channel from the floodplain in the 10-year flood. Removing both confining features would reconnect an estimated 530,000 cubic feet of
floodplain storage, which represents approximately 1% of the runoff volume in this flood event. Railroad bed Berm along edge
of field 0 2 00 4 00 6 00 8 00 1 00 0 1 20 0 1 40 0 1 60 05 305 355 405 455 505 555 60 Ge o Ra s_mod el Pla n : April_2 0 _Q 10 0 _lo w_ rou g h 4 /25 /20 1 6

S ta tio n (ft)E levation (ft) Lege nd
WS S S Mea n Q1 00
WS S S Mea n Q2 5
WS S S Mea n Q1 0
Gro u nd
L eve e
In eff
B an k Sta.0 5 .0 5 .0 4 .
0
7 .0 65

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Figure 6.16: T.S. Irene flood depth map showing floodplain, berms, and railroad bed. Berm along
edge of field

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Alternative 5: Floodplain Reconnection Upstream (East) of Railroad Bridge #4
Berms are found along the north bank along a farm field west of the Route 153 crossing (Figures 6.17 and 6.18). The berms vary between 2 to 5
feet tall and restrict access to a large floodplain in agricultural use that is bounded by Route 153 to the west. During large flood events such as
Irene, flow jumps out of bank at a low point along the channel at Section 34583. However, the berms restrict access to a large floodwater
storage area under moderate flood conditions. We estimate this floodplain contains approximately 1,400,000 cubic feet of storage, or 4% of the
approximate 10-year flood volume. Reconnecting these floodplains for moderate floods would not appear to increase flood vulnerability to
improved property in the immediate vicinity, and would serve to dampen the flood wave downstream in Salem. This work would require an
estimated 4,000 cubic yards of excavation and easements from the farmer. The ability of the floodplain to slow the velocity of out of bank flow
would be significantly enhanced by taking this farmland out of production and re-establishing native woody vegetation.

Figure 6.17 : Model cross- section 33573 upstream of Railroad Bridge #4 showing a near bank berm which severs the channel from the floodplain.
Removing the berm would reconnect an estimated 1,400,000 cubic feet of floodplain storage. Berm along edge
of field 0 2 00 4 00 6 00 8 00 1 00 0 1 20 0 1 40 0 1 60 05 905 956 006 056 106 156 206 25 Ge o Ra s_mod el Pla n : April_2 0 _Q 10 0 _lo w_ rou g h 4 /25 /20 1 6

S ta tio n (ft)E levation (ft) Lege nd
WS S S Mea n Q1 00
WS S S Mea n Q1 0
WS S S Mea n Q2
Gro u nd
In eff
B an k Sta.0 7 .0 4 .0 7 .0 5 .0 6

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Figure 6.18: T.S. Irene flood depth map showing floodplain and berms. Approx location of b erm s
along edge of field

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Alternative 6: County Route 153 Bridge Upstream Constriction
An old laid up stone abutment upstream of the Route 153 bridge constricts the channel (Figure 6.19), aggravating out of bank flows and flooding
of adjacent properties to the south and east during large floods. The bridge has an estimated capacity of the 10-year flood, and the constriction
further reduces the channel capacity. The bankfull channel upstream and downstream of the bridge ranges from 30 to 35 feet, while the
constriction at the abutment is approximately 20 feet. There is good machinery access to remove the stone (approximately 90 cubic yards) from
a private gravel road west of Route 153. A temporary easement from the landowner would be needed as the stone is likely outside of the road
right- of-way. Figure 6. 19 : View of County
Route 153 Bridge opening
from upstream (taken by Evan
Fitzgerald, May, 2016). Note
the old laid up stone abutment
projecting into the channel
upstream of the bridge.

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Alternative 7: Lowering of Railroad Bed and Removal of Culvert at Lenhardt Residence
During large floods water is diverted out of the bank in West Rupert at the rail trail bridge and gets trapped on the east side of the rail bed.
Ponded water south of the Atwater farm cannot easily return to the White Creek channel after the floodwaters recede due to limited capacity
through a 30-inch culvert. Lowering a portion of the rail bed around the culvert will provide additional relief back to the Creek, thereby relieving
trapped floodwaters and reducing prolonged flooding of homes. Figure 6. 20 : View north along rail bed where a dit ch
crosses through a 30 – inch culvert (taken by Evan
Fitzgerald, May, 2016).

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Figure 6.21: Map of proposed rail bed lowering to allow out of bank floodwaters from the north to return
to the White Creek floodplain and channel following recession of flood surge.

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Alternative 8: Replace Undersized Railroad Bridge #5
The rail trail bridge in West Rupert in severely undersized and poorly aligned, and contributes to out of bank flows during large floods.
Floodwaters get trapped on the south side of the rail bed and cannot return to the Creek. The current bridge span is 23 feet. The bridge span
should be at least 50 feet to match the channel bankfull width. In addition, riprap stone placed along the south bank along the toe of the new
abutment appea rs to have been placed for scour protection, however this further constricts the channel. Figure 6.22: View west at upstream end
of rail trail bridge in Rupert. The
confluence of White Creek and Mill
Brook is just downstream in the photo
background (taken by Evan Fitzgerald,
April , 2016).
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6.2 Salem Village Alternatives We created two different HEC-RAS geometry files to model small floods (Q2-Q10) and large floods
(Q50-Q500) in the Village of Salem. Levees and ineffective flow areas specific to flood depth were
required in many areas to control flood extents across the variable topography in the very wide river
valley. The two existing geometry files were used as the basis for a series of alternatives models to
evaluate flood mitigation options .
Most of the Village-specific alternatives we considered had only minimal flood risk reduction in the
large floods (Q100) in comparison to the more frequent moderate floods (Q5 or Q10). This is due to
the simple fact that during a very large flood a significant portion of the Village along White Creek is
inundated, and there are fewer practical opportunities besides extensive property buyouts to
significantly reduce flood risk. Whereas, during the moderate floods there are greater opportunities
to mitigate the flooding depths and extents, as the flooding is not nearly as extensive. The moderate
floods, those which have a 10-20% chance of occurring on any given year, occur on a frequency that
affects residents’ lives with enough regularity that we chose to focus our efforts on mitigating these
floods.
We selected the 10-year flood, with a modeled discharge of 2,844 cfs, as the representative flood to
analyze mitigation opportunities in the Village. The alternatives analysis for the Village included six
(6) types of channel and floodplain modifications which were investigated for flood depth and
velocity reductions both independently and iteratively (Table 6.1 and Figure 6.23 ). All alternatives
were compared to the “do nothing” alternative, and the incremental flood risk reduction with each
added intervention was reviewed. A series of flood depth maps for key alternatives is provided in
Appendix 3, and each alternative is described in greater detail in the following sections. Table 6.1 : Summary of channel and floodplain modifications from Village alternatives analysis.
Alternative Remove Berms
along Field Deepen
Channel Remove
Archibald Bridge Overflow
Box Culvert Widen Channel w/
Flood Benches Create Floodplain
near Archibald
1 Do Nothing – Existing Conditions
2 X
2a X X
3 X
3a X
4 X X
5 X X X
6 X X X X
7 X X X X X

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Figure 6.23: Map of channel, floodplain, and bridge modifications considered during the alternatives analysis.

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Alternative 2
This scenario involves the removal of berms along the south bank extending from the end of Park Place to the railroad crossing. Berm removal
will restore access to a large floodplain during small to medium sized flood events. The berms are typically 1.5-2.5 f eet tall and are continuous
except for a small break near the railroad (Figures 6.24 and 6.25). The berms total approximately 1,200ft in length and we estimate the total
berm volume to be 1,000-1,400 CY. Coordination with the owner (Woody Hill Farms) would be required. In talking with staff from the
Washington County Soil and Water Conservation District, we understand that the farmer placed these berms along the river to prevent overflow
on to the crop fields and reduce erosion. However, this has the effect of creating tailwater in small and moderate floods (Figure 6.25), before the
berms are overtopped, exacerbating flooding on the west end of the Village.

Figure 6.2 4 : Berm along fi eld edge west of Park Place. Figure 6.25 : Berm removed at XS 7117 in the model resulting in a 6 – inch
decrease in the 10 – year flood ( Q10 ) water surface elevation .

Q10 EX
Q10 PR BERM 0 200 400 600 800 1000 1200 1400 1600466468470472474 476 G e o Ra s_ m o d e l P l a n : 1 ) Ap ri l _ 7 _ l o w_ e x 2 ) Ap ri l _ 7 _ a l t2
RS = 7117 Station (ft)E levation (ft) Legend
WS SS Mean Q10 – April_7_low_ex WS SS Mean Q10 – April_7_alt2
Ground – April_7_alt2
Levee – April_7_alt2
Bank Sta – April_7_alt2
Ground – April_7_low_ex
Levee – April_7_low_ex
Bank Sta – April_7_low_ex

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Alternative 2a
This scenario involves the removal of berms along the south bank extending from the end of Park Place to the railroad crossing and deepening
the channel from the Route 22 bridge through cross-section 7117. We estimate the channel has aggraded approximately 1-2 feet of gravel and
sand through this section compared to pre-Irene conditions (Figure 6.26). This is supported by the 2005 County site plans for the construction of
the Archibald bridge, which indicate a maximum clearance of 7.5 feet at the upstream face of the bridge in 2005 in comparison to 6 feet
currently . Some minor bank shaping may be required to maintain stable bank slopes of no greater than 2H:1V as the channel bed is excavated.
We estimate that approximately 3,000-4,000 CY of material would be removed over the 2,200 foot length of channel, in addition to the berm
removal volume described in Alternative 2. Figure 6.26 : Channel deepening
to increase capacity from Route
22 to Archibald Street. The
magenta line s represent the
proposed channel bottom (solid)
and 10 – year flood profile
(dashed ) . The predicted 10 – year
surf ace water elevation does not
overtop the Archibald bridge
following channel deepening,
however flooding upstream of
the bridge is not reduced.

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Alternatives 3, 3a, and 4
Alternatives 3 and 4 include removing the Archibald Street bridge and the north abutment to increase channel width and capacity. The bridge is
currently a significant obstruction to flows at or above the 2-year event (Figure 6.27). Tailwater from the constricted channel increases water
surface elevation upstream to the Route 22 bridge in large events. Water surface elevations for the 10-year flood are predicted to drop 1 to 1.5
feet during moderate floods at cross-section 8062 following bridge removal. This would significantly decrease the number of vulnerable homes
along Archibald Street, Nichols Street, and Park Place during moderate storm events. Alternative 4 includes the removal of the downstream
berms and is predicted to further reduce water surface elevations during the 10-year storm by approximately 0.5 to 1ft at the west end of the
Village. Berm removal further reduces water surface elevations through the farm fields and allows the 10-year storm to pass through the
railroad bridge below the low chord. Alternative 3a does not remove the bridge and includes a 20ft wide by 5ft tall concrete box culvert installed
under Archibald Street immediately north of the bridge. Based on the hydraulic model, the box culvert will achieve the same flood water
elevation reductions as bridge removal in Alternative 3. It is important to note that bridge removal will reduce the risk debris catchment during
storms and will likely improve sediment transport. Adding a second hydraulic opening (culvert) may actually increase debris catchment risk over
the current configuration. We estimate that alternative 3a will require approximately 1,500CY of excavation to create the overflow channel
through the culvert. Additional heavy stone armoring will be recommended for the banks of the overflow channel to protect adjacent properties
and the bridge abutment. Figure 6.27 : Archibald Street bridge at capacity during
the Christmas 2014 flood which we estimated to be an
approximate 1 – year flood, based on records from
nearby USGS gages for this event . Our hydraulic model
indicates that a discharge between the 1 – year flood
estimate ( 1,250 cfs) and the 2 – year flood estimate
( 1,400 cfs) will exceed the current capacity of the
opening. This is further evidence that our model aligns
well with large and small flood hydraulics in the Village .
Photo courtesy of the Salem Flood Stud y Committee .

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Alternatives 5 and 6
Alternatives 5 and 6 include berm removal, channel deepening, and bank cuts to create flood benches. The flood benches are located below the
predicted 2-year flow elevation and increase the available channel and floodplain width during the 2-year and 5-year floods from 40-70 feet to
90-120 feet. The bank cuts between Route 22 and Archibald are typically 20-40 feet wide on the north bank. A larger cut is proposed at cross-
section 7117, where the channel is currently very narrow and along the berm (Figures 6.28 and 6.29). These widths are well above the predicted
bankfull width for White Creek based on the NY Region 1 regressions, however it is important to increase available floodplain given the repeat
flood damage through the Village and the current lack of undeveloped floodplain. Bank cuts will require the removal of approximately 90 large
trees that are currently along the top of the north bank in between Route 22 and Archibald Street. The design plans will require dense plantings
of native trees and fast growing shrub species (i.e., willows) along the flood bench and the banks. We estimate that the bank cuts will require
approximately 5,500-6,500 CY of excavation in addition to the 4,000-5,000 CY described in Alternative 2a for channel deepening.
Figure 6.28 : Moderate bank cut (40ft) at cross – section 8684. The magenta
line s represents proposed channel bottom and flood profile . Figure 6. 29 : Large bank cut (45 – 50ft), channel deepening, and berm removal
at cross – section 7 117. The magenta line s represents proposed channel
bottom and flood profile . 400 600 800 1000 1200468470472474476478480482 484 G e o Ra s_ m o d e l P l a n : 1 ) Ap ri l _ 7 _ l o w_ e x 2 ) Ap ri l _ 7 _ A l t5
RS = 8684 Station (ft)E levation (ft) Legend
WS SS Mean Q5 – April_7_low_ex WS SS Mean Q5 – April_7_Alt5
– April_7_Alt5
Ground – April_7_Alt5 Levee – April_7_Alt5Ineff – April_7_Alt5
Bank Sta – April_7_Alt5 – April_7_low_ex
Ground – April_7_low_ex
Levee – April_7_low_exIneff – April_7_low_ex
Bank Sta – April_7_low_ex 800 1000 1200 1400466468470472 474 G e o Ra s_ m o d e l P l a n : 1 ) Ap ri l _ 7 _ l o w_ e x 2 ) Ap ri l _ 7 _ A l t5
RS = 7117 Station (ft)E levation (ft) Legend
WS SS Mean Q5 – April_7_low_ex WS SS Mean Q5 – April_7_Alt5 Ground – April_7_Alt5
Levee – April_7_Alt5
Bank Sta – April_7_Alt5
Ground – April_7_low_ex
Levee – April_7_low_ex
Bank Sta – April_7_low_ex

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Alternative 7
Alternative 7 includes the berm removal, channel deepening, and bank cuts described in Alternative 6 with the addition of a large floodplain cut
centered on the current Archibald bridge location. The existing floodplain area along the north bank of White Creek approaching the Archibald
bridge is somewhat elevated and we predict that it is only accessed during storm events larger than the 2-year flow (Figure 6.30). Unfortunately
there is little relief between the floodplain elevation and adjacent houses, therefore floodplain access is likely associated with property damage.
The proposed floodplain cut will lower the elevation of the floodplain by approximately 2 feet and extend 90-100 from the current river bank.
This cut will require the removal of the house at 41 Archibald St and the removal of approximately 110 ft of roadway extending to the north of
the bridge (Figure 6.31). The new floodplain will be accessible at the 2-year storm and is predicted to reduce flood depths upstream to the Route
22 bridge by 0.2 to 0.6 feet compared to Alternative 6, and approximately 2 feet of flood elevation reduction compared to Alternative 1. We
estimate that Alternative 7 will require approximately 3,500-4,000 CY of excavation in addition to Alternative 6.

Figure 6.30 : Undeveloped floodplain on the north bank approaching the
Archibald bridge. The floodplain elevation is only slightly lower than
surrounding houses and the road. Figure 6.31 : Large floodplain cut at Archibald Street including removal of the bridge
and the house at 41 Archibald. The magenta line s represents proposed channel
bank cuts, channel bottom , and flood profile .
400 600 800 1000 1200 1400 1600
1800468470472474476478 G e o Ra s_ m o d e l P l a n : 1 ) Ap ri l _ 7 _ l o w_ e x 2 ) Ap ri l _ 7 _ a l t7
RS = 8062 Station (ft)E levation (ft) Legend
WS SS Mean Q10 – April_7_low_ex WS SS Mean Q10 – April_7_alt7 – April_7_alt7
– April_7_alt7
Ground – April_7_alt7 Levee – April_7_alt7
Ineff – April_7_alt7
Bank Sta – April_7_alt7 – April_7_low_ex
– April_7_low_ex
Ground – April_7_low_ex Levee – April_7_low_ex
Ineff – April_7_low_ex
Bank Sta – April_7_low_ex

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Figure 6.32: Typical cross-section of Alternative 6 and 7 channel widening and deepening to lower flood levels.

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6.3 Mitigation Project Prioritization and Potential Funding Included in Appendix 4 are alternatives matrices summarizing the benefits, ballpark costs, estimated
implementation time frame, and permitting jurisdictions for each alternative. These tables provide a
way for the community and other stakeholders to compare each alternative and chart a path forward
to reduce flood vulnerability in Salem. Below we have used our professional judgment to prioritize
projects for near and long term implementation, with potential funding sources listed for each
alternative.
Upstream Project Prioritization Near Term Projects Potential Funding Source s
1. Unstable embankment along County Route 153 near
Br aymer Road (Alternative 3)  WCDPW
2. Improve downstream hydraulic opening at Beatty
Hollow Road Bridge (Alternative 2)  WCDPW
3. Remove Upstream Constriction at County Route 153
Bridge (Alternative 6)  WCDPW
Long Term Projects Funding Source
1. Floodplain reconnection upstream of Blind Buck
Road (Alternative 1)  FEMA; NRCS
2. Replace Beatty Hollow Road Bridge to improve
alignment and hydraulic capacity (Alternative 2)  WCDPW; FEMA
3. Floodplain reconnection upstream of Railroad
Bridge #4 (Alternative 5)  FE MA; NRCS
Village Project Prioritization
Near Term Projects Potential Funding Source s
1. Remove Archibald Street Bridge Deck and North
Abutment (Alternative 3)  WCDPW; NYDEC
2. Deepen channel through Village and develop a long –
term sediment maintenance pl an. (Alternative 2a)  FEMA; Town of Salem
3. Remove berms on south bank downstream of Salem
Village. (Alternative 2)  NRCS
Long Term Projects Funding Source
1. Bank cut on north bank in between Route 22 and
Archibald Street. (Alternative 6)  FEMA; Town of Salem
2. Bank cut and floodplain restoration on north bank in
between Route 22 and Archibald Street; Buyout of
home at 41 Archibald Street . (Alternative 7)  FEMA; Town of Salem

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7 .0 Conclusions and Recommendations
The White Creek corridor has been historically manipulated along most of its length from West
Rupert into Salem, leading to increased flood vulnerability in the Village of Salem. The lack of
historical flow monitoring on White Creek and the highly modified channel and floodplain made it
challenging to estimate watershed flood hydrology and model river corridor hydraulics. We put
significant effort into the hydrologic and hydraulic analysis to develop a sound basis for evaluating
flood mitigation alternatives in Salem. The hydraulic model served as a tool for this evaluation, and
can be used and refined in the future to support subsequent steps such as engineering design, grant
applications, and permitting. Below we suggest next steps for the communities in the watershed to
move this planning process forward, including project and planning recommendations.
7.1 Next Steps As part of the ongoing community discussion regarding flood resiliency planning in the White Creek
watershed, we recommend the following steps to incorporate the community’s input i nto the final
prioritization and advance the projects over time:
 Solicit input from individuals, businesses, and officials from the Towns of Salem and Rupert at
future community meetings regarding specific projects and overall project prioritization.
 Prioritize one to two projects to pursue each year with assistance from WCDPW, A/GFTC, and
other participating groups to identify appropriate funding sources and partners.
 Apply for one to two grants each year to advance project development and/or designs.
 Implement projects as funding allows, and monitor project success.
7.2 Project and Planning Recommendations  Improving hydraulic capacity at the Archibald Street crossing, either by removing the bridge
deck and north abutment or installing an overflow box culvert, should be a priority for reducing
flood vulnerability in Salem Village.
 Sediment management options for the White Creek channel in Salem Village should be explore d
in further detail in the near-term to reduce flood vulnerability in the Village. This will require
additional survey work to set benchmarks for long-term monitoring and aggradation levels that
trigger maintenance, and extensive coordination with NYDEC, USACE, and other stakeholders to
ensure impacts to aquatic habitat and downstream water quality are minimized.
 Floodplain restoration and reconnection projects upstream of the Village are a priority for
reducing flood vulnerability in the long-term. Our modeling indicates that floodplain
reconnections totaling 10% of the volume of a moderate flood (i.e., 10-year flood), could reduce
the peak discharge in Salem Village by as much as 25%. The three (3) upstream floodplain
reconnection projects we scoped in this study could cumulatively achieve this reduction over
the long-term.
 River science needs to be better incorporated into future public infrastructure projects in the
watershed to ensure proper sizing and scour protection measures for bridges and roadway
stabilization.

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To further identify and evaluate upstream floodplain restoration and reconnection
opportunities, we recommend a field-based geomorphic study and river corridor plan for the
White Creek reaches in Salem to complement similar work in the Vermont portion of the
watershed. This work would follow the Vermont Agency of Natural Resources Protocols
referenced in this report (VTANR, 2009; VTANR, 2010).
 There is a need for better coordination amongst partners working in the watershed, including
the towns, A/GFTC, WCDPW, USFWS, Trout Unlimited, and Battenkill Watershed Alliance. The
need for this coordination is two-fold: 1. to ensure that habitat enhancement work (i.e., weirs)
does not increase flood vulnerability for nearby homes, farmland, and infrastructure; 2. To
ensure that public infrastructure and flood mitigation projects summarized in this report are
conducted in a way to minimize impacts to aquatic habitat and downstream water quality.

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8 .0 Literature Cited
Arcement, George J., and V. R. Schneider, 1989. Guide for Selecting Manning’s Roughness Coefficients for Natural Channels and Flood Plains. USGS Paper 2339.
Chow, V.T., 1959. Open Channel Hydraulics. New York, NY: McGraw-Hill Book Co.
CT Male Associates, 2012. Project Work Plan for DEC/ESD Grant Application Post-Hurricane Irene, Tropical Storm Lee Restoration, White Creek, Salem, NY. Prepared for Town of Salem and Village
of Salem.
FEMA (Federal Emergency Management Agency), 1985. Flood Insurance Rate Map, Village of Salem, New York. Community Number 360888 B. Effective April 17, 1985.
Fitzgerald Environmental Associates, LLC (FEA), 2013. White Creek and Mill Brook Corridor Plan, April 13, 2013. Prepared for the Bennington County Conservation District. Homer, C.G., Dewitz, J.A., Yang, L., Jin, S., Danielson, P., Xian, G., Coulston, J., Herold, N.D., Wickham,
J.D., and Megown, K., 201
5, Completion of the 2011 National Land Cover Database for the
conterminous United States
-Representing a decade of land cover change information .
Photogrammetric Engineering and Remote Sensing
, v. 81, no. 5, p. 345-354
Lumia, Richard, Freehafer, D.A., and Smith, M.J., 2006, Magnitude and frequency of floods in New York: U.S. Geological Survey Scientific Investigations Report 2006 –5112, 152 p.
Montgomery, D. R., & Buffington, J. M., 1997, Channel-reach morphology in mountain drainage basins, Geological Society of America Bulletin, 109(5), 596-611.
Mulvihill, C.I., Filopowicz, Amy, Coleman, Arthur, and Baldigo, B P., 2007, Regionalized Equations for Bankfull Discharge and Channel Characteristics of Streams in New York State —Hydrologic
Regions 1 and 2 in the Adirondack Region of Northern New York: U.S. Geological Survey
Scientific Investigations Report 2007-5189, 18 p., online only.
Randall, D. A. 1996. Mean Annual Runoff, Precipitation, and Evapotranspiration in the Glaciated Northeastern United States, 1951-1980. United States Geological Survey Open-File Report 96-
395.
Rosgen, D. L., 1994, A classification of natural rivers, Catena, 22(3), 169 – 199.
Rosgen, D. L., 1996, Applied River Morphology , Wildland Hydrology, Pagosa Springs, Colorado
Schiff, R., E. Fitzgerald, J. MacBroom, M. Kline, and S. Jaquith, 2015. Vermont Standard River Management Principles and Practices (Vermont SRMPP): Guidance for Managing Vermont’s Rivers
Based on Channel and Floodplain Function. Prepared by Milone & MacBroom, Inc. and Fitzgerald
Environmental Associates, LLC for and in collaboration with Vermont Rivers Program, Montpelier,
Vermont.
Schumm, S. A., 1977, The Fluvial System, John Wiley and Sons, New York.
Scott, J. D. and R. P. Smith, 1853. Map of Washington County from actual Surveys by Morris Levey. Available at http://www.co.washington.ny.us/DocumentCenter/View/1526
Stager, J.C. and Thill, M. 2010. Climate change in the Champlain Basin: what natural resource managers can expect and do. Report prepared for The Nature Conservan cy

Fitzgerald Environmental Associates, LLC
White Creek Infrastructure Flood Vulnerability Study
50
Suro, T.P., Roland, M.A., and Kiah, R.G., 2015, Flooding in the Northeastern United States, 2011: U.S. Geological Survey Professional Paper 1821, 32 p., http://dx.doi.org/10.3133/pp1821.
USACE (US Army Corps of Engineers), 2008. Effects of Flood Plain Encroachment on Peak Flow . USACE
Hydrologic Engineering Center. September, 1980
USACE (US Army Corps of Engineers), 2010. HEC-RAS River Analysis System, Version 4.1. Available at: http://www.hec.usace.army.mil/software/hec-ras/documentation.aspx
USGS StreamStats Program for New York, 2015. Available at: http://water.usgs.gov/osw/streamstats/new_york.html
UNH (University of New Hampshire), 2002. Historic USGS Maps of New England & New York. Cambridge, NY-VT Quadrangle. Available at: http://docs.unh.edu/nhtopos/Cambridge.htm
VTANR (Vermont Agency of Natural Resources), 2009, Stream Geomorphic Assessment – Phase 1 & 2 Handbook. Rapid Stream Assessment. VTANR Publication.
VTANR (Vermont Agency of Natural Resources), 2010, Vermont Agency of Natural Resources River Corridor Planning Guide. April, 2010.

APPENDIX 1:
HYDROLOGIC ANALYSIS MAPS

Best C om paris o n G ages

O th er S im ila r G ag es

W hit e C re e k W ate rs h e d

S ta te B ou nd ary

C ou nty B ou nd ary

N Y U SG S H yd ro lo gic R eg io ns

1

2

3

4

5

6

W hit e C re ek S tu dy H yd ro lo gic M odelin g

Fig ure 1 : U SG S H yd ro lo gic R egio ns a nd
G agin g S ta tio n C om paris o n

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

0
40
20

M ile s

D ate : J a n 1 8, 2 01 6D ra w n: J H B

Note s:-U SG S c o m pa ris o n g ag in g s ta tio n s w ere s e le cte d base d o n s e ve ra l b a sin c h a ra cte ris tic s: d ra in ag e are a, b asin s lo p e, a nn ua l p re cip it a it o n, b a sin ru n off , b asin s to ra g e, a n d la g .
µ

S ale m , N Y
White Creek Appendix 1 – Page 1 of 3

Best C om paris o n U SG S
Str e am flo w G ag es

O th er S im ila r U SG S
Str e am flo w G ag es

W hit e C re e k W ate rs h e d

S ta te B ou nd ary

C ou nty B ou nd ary

P R IS M M ea n A nnual
P re c ip it a tio n ( in ch es)

< 35 35 – 4 5 45 – 5 5 55 – 6 5 65 – 7 5 > 75

W hit e C re ek S tu dy H yd ro lo gic M odelin g

Fig ure 2 : R eg io nal A nnual P re cip it a tio n E stim ate s

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

0
50
25

M ile s

D ate : J a n 1 8, 2 01 6D ra w n: J H Bµ

Sale m , N Y

N ote s:- R ain fa ll is o p le th s a re b ase d o n a 1 95 1- 1 9 80 d ata se t d escrib ed b y R and all ( 1 9 96).- P R IS M r a in fa ll g rid d a ta is b ase d o n 1 98 1- 2 0 10 d ata se t d escrib ed b y O ls o n ( 2 0 14 ).- U SG S c o m paris o n g ag in g s ta tio ns w ere s e le cte d b a se d o n s e ve ra l b asin c h ara cte ris tic s: d ra in a ge a re a , b a sin s lo pe, a n nu al p re cip it a it o n , b asin r u no ff, b a sin s to ra ge , a nd la g.
White Creek Appendix 1 – Page 2 of 3

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42
44
46
38
40
36
48
50
55
60
42
38
42
42
38
40
36
44
40

^
_P re cip it a tio n M onit o rin g S ta tio ns
W hit e C re e k W ate rs h e d
S ta te B ou nd ary
M ean A nnu al P re cip it a tio n I s o ple th ( in ch e s)
M ean A nnual P re cip it a tio n ( P R IS M )Hig h: 7 1 in ch es
Low : 3 8 in ch e s
W hit e C re ek S tu dy H yd ro lo gic M odelin g
Fig ure 3 : R ecu rre nce In te rv a l
R ain fa ll D ep th E stim ate s

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC 1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46 Te le p ho ne: 8 02.87 6.7 77 8 w ww.fit z g e ra ld envir o n m enta l. c o m
0105
M ile s
D ate : J a n 0 7, 2 01 6D ra w n: J H B
Note s:- R ain fa ll is o p le th s a re b ase d o n a 1 95 1- 1 9 80 d ata se t d escrib ed b y R and all ( 1 9 96).- P R IS M r a in fa ll g rid d a ta is b ase d o n 1 98 1- 2 0 10 d ata se t d escrib ed b y O ls o n ( 2 0 14 ).- P re cip it a tio n m onit o rin g s ta tio ns u se d to d e te rm in e r e cu rr e n ce in te rv a l r a in fa ll d ep th s fr o m N CRC /N RCS E xtr e m e P re cip it a tio n M ode lµ
S ale m , N Y
White Creek Appendix 1 – Page 3 of 3

APPENDIX 2:
TROPICAL STORM IRENE FLOOD SIMULATION MAPS

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Shee t 1S hee t 2

4 82 27
448 33
458 91
444 66
452 00
446 14
448 94
435 56
464 83472 64
468 96
471 22

V T R O UTE 1 53
C RO SS R D
EA ST S T
M IL L R D

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- M ap til e o rie nta tio n is v a ria ble to b est fo llo w th e s tr e a m c h ann el
D ra w n:
J H B a n d E PF
D ate :
A pr 1 , 2 016
F lo o d D ep th M ap pin gS im ula te d T .S . I r e ne2011 F lo od±M ap 1 o f 1 1
08 00400F eet
Appendix 2 – Page 1 of 11

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Shee t 1
S hee t 3
S hee t 2
S hee t 2
4 48 33
444 66
402 29
452 00
446 14
448 94
417 43413 66
435 56
411 34
422 53
401 29
458 91
399 69

V T R O UTE 1 53
C RO SS R D

4W D R oad
C ounty R oute 1 53

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- M ap til e o rie nta tio n is v a ria ble to b est fo llo w th e s tr e a m c h ann el
D ra w n:
J H B a n d E PF
D ate :
A pr 1 , 2 016
F lo o d D ep th M ap pin gS im ula te d T .S . I r e ne2011 F lo od
±
M ap 2 o f 1 1
08 00400F eet
Appendix 2 – Page 2 of 11

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Shee t 3
S hee t 4S hee t 3
S hee t 2

3 65 32
371 57
379 23
395 60
376 27
374 68
390 66
386 09
399 69401 29
402 29
411 34
355 24

C ounty R oute 1 53
B lo sso m R d

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- M ap til e o rie nta tio n is v a ria ble to b est fo llo w th e s tr e a m c h ann el
D ra w n:
J H B a n d E PF
D ate :
A pr 1 , 2 016
F lo o d D ep th M ap pin gS im ula te d T .S . I r e ne2011 F lo od
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M ap 3 o f 1 1
08 00400F eet
Appendix 2 – Page 3 of 11

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Shee t 5
S hee t 4
S hee t 4
S hee t 3

3 45 83
348 26
355 24
365 32
334 16
322 77
335 73
314 36

C ounty R oute 1 53
B lo sso m R d

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- M ap til e o rie nta tio n is v a ria ble to b est fo llo w th e s tr e a m c h ann el
D ra w n:
J H B a n d E PF
D ate :
A pr 1 , 2 016
F lo o d D ep th M ap pin gS im ula te d T .S . I r e ne2011 F lo od
±
M ap 4 o f 1 1
08 00400F eet
Appendix 2 – Page 4 of 11

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Shee t 6
S hee t 5
S hee t 5
S hee t 4

2 98 26
322 77
314 36283 00
272 18
306 09
292 00
262 18

C ounty R oute 1 53
U nnam ed S tr e et

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- M ap til e o rie nta tio n is v a ria ble to b est fo llo w th e s tr e a m c h ann el
D ra w n:
J H B a n d E PF
D ate :
A pr 1 , 2 016
F lo o d D ep th M ap pin gS im ula te d T .S . I r e ne2011 F lo od
±
M ap 5 o f 1 1
08 00400F eet
Appendix 2 – Page 5 of 11

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Shee t 6
S hee t 7S hee t 6
S hee t 5

2 41 65247 75
236 56
235 98
235 41
228 00
262 18
254 46
272 18
220 82
214 07
283 00
206 98

C ounty R oute 1 53
C ham bers R d
M cK eig han L n
B ra y m er L n

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- M ap til e o rie nta tio n is v a ria ble to b est fo llo w th e s tr e a m c h ann el
D ra w n:
J H B a n d E PF
D ate :
A pr 1 , 2 016
F lo o d D ep th M ap pin gS im ula te d T .S . I r e ne2011 F lo od
±
M ap 6 o f 1 1
08 00400F eet
Appendix 2 – Page 6 of 11

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Shee t 7
S hee t 8S hee t 7
S hee t 6

1 70 67
181 86
206 98
202 85
228 00
220 82
214 07
187 85
199 84
198 10
189 52
177 22
192 71
235 41

C ounty R oute 1 53
B eatty H oll o w R d
Bra y m er L n

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- M ap til e o rie nta tio n is v a ria ble to b est fo llo w th e s tr e a m c h ann el
D ra w n:
J H B a n d E PF
D ate :
A pr 1 , 2 016
F lo o d D ep th M ap pin gS im ula te d T .S . I r e ne2011 F lo od
±
M ap 7 o f 1 1
08 00400F eet
Appendix 2 – Page 7 of 11

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Shee t 9
S hee t 8
S hee t 8
S hee t 7

1 8 E . B ro ad w ay
S urv ey = 4 84.7
M odel = 4 8 4.6

1 44 32
141 36148 97
124 33
135 47132 35
161 30
170 67
129 48
177 22
181 86

E B ro ad w ay
B li n d B uck R d
County R oute 1 53

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- M ap til e o rie nta tio n is v a ria ble to b est fo llo w th e s tr e a m c h ann el
D ra w n:
J H B a n d E PF
D ate :
A pr 1 , 2 016
F lo o d D ep th M ap pin gS im ula te d T .S . I r e ne2011 F lo od
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M ap 8 o f 1 1
08 00400F eet
Appendix 2 – Page 8 of 11

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Shee t 9
S hee t 9S hee t 1 0
S hee t 8

3 3 P ark P la ce
S urv ey=478.9
M odel= 478 .4
1 8 E . B ro ad w ay
S urv ey = 4 84.7
M odel = 4 8 4.6

8 06 2
840 4
997 2
906 7
868 4
895 2
930 1
793 1
11 1 8 6
11 085
108 26
11 300
124 33
129 48
132 35

E B ro ad w ay
N M ain S t
M ain S t
E H ig h S t
Park P l
Vale S t
A rc h ib ald S t
Sta n to n H il l R d
S M ain S t
W B ro ad w ay
R ailr o ad S t
W arre n S t
N ic h ol S t
Thom as S t
C ato S t
N orth S t
B li n d B uck R d
Bla n ch ard S t
C ary R d
W ill ia m s S t
Vin ce n t L n
A cad em y S t
U nnam ed S tr e et

Fit z g era ld
En v ir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- M ap til e o rie nta tio n is v a ria ble to b est fo llo w th e s tr e a m c h ann el
D ra w n:
J H B a n d E PF
D ate :
A pr 1 , 2 016
F lo o d D ep th M ap pin gS im ula te d T .S . I r e ne2011 F lo od
±
M ap 9 o f 1 1
08 00400F eet
Appendix 2 – Page 9 of 11

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Shee t 1 1
S hee t 1 0S hee t 1 1
S hee t 9S hee t 1 0

33 P ark P la ce
S urv ey=478.9
M odel= 478 .4
1 8 E . B ro ad w ay
S urv ey = 4 84.7
M odel = 4 8 4.6

8 06 2
840 4
868 4
793 1
518 5
618 8
461 5
895 2
394 0
756 1
636 2
906 7
711 7
930 1
997 2

S M ain S t
W B ro ad w ay
P ark P l
M ain S t
A rc h ib ald S t
C ary R d
Railr o ad S t
N ic h ol S t
Vale S t
Sta n to n H il l R d
County R oute 3 0
E B ro ad w ay
T hom as S t
Vin ce n t L n
W ill ia m s S t
Sta te R ou te 2 2
A cad em y S t
U nnam ed S tr e et

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- M ap til e o rie nta tio n is v a ria ble to b est fo llo w th e s tr e a m c h ann el
D ra w n:
J H B a n d E PF
D ate :
A pr 1 , 2 016
F lo o d D ep th M ap pin gS im ula te d T .S . I r e ne2011 F lo od
±
M ap 1 0 o f 1 1
08 00400F eet
Appendix 2 – Page 10 of 11

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!

Shee t 1 1
S hee t 1 0S hee t 1 1

3 3 P ark P la ce
S urv ey=478.9
M odel= 478 .4

3 3
518 5
461 5
394 0317 8
174 3

S ta te R ou te 2 2
C em ete ry R d
Bora d or W ay
C ounty R oute 3 0
S M ain S t
D riv ew ay
U nnam ed S tr e et
W B ro ad w ay
D riv ew ay
D riv ew ay

Fit z g era ld
En vir o nm enta l
A sso cia te s, L LC
1 8 S e ve ra nce G re e n, Su it e 2 03 C olc he ste r, V T 0 54 46
Te le p ho ne: 8 02.87 6.7 77 8
w ww.fit z g e ra ld envir o n m enta l. c o m

W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- M ap til e o rie nta tio n is v a ria ble to b est fo llo w th e s tr e a m c h ann el
D ra w n:
J H B a n d E PF
D ate :
A pr 1 , 2 016
F lo o d D ep th M ap pin gS im ula te d T .S . I r e ne2011 F lo od
±
M ap 1 1 o f 1 1
08 00400F eet
Appendix 2 – Page 11 of 11

APPENDIX 3:
ALTERNATIVES ANALYSIS MAPS

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P ark P l
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A rc h ib ald S t
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W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- F lo od d epth s a re b a se d o n a n e stim ate d 5 -y e ar s to rm f lo w o f 2 ,0 80 cfs a nd a n e stim ate d 1 0-y e ar s to rm flo w o f 2 ,8 44 cfs
D ra w n:
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D ate :
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F lo o d D ep th M ap pin gA lt e rn a tiv e 2A ppro xim ate 10-y e a r f lo od
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P ark P l
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A rc h ib ald S t
N ic h ol S t
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A lt e rn ativ e # 2: R em ove b e rm s a lo ng fie ld e d ge
0600300F eet
A lt e rn ativ e # 1: D o n oth in g – e xis tin g c o n dit io n s
B erm a lo ng fa rm f ie ld

F it z g era ld
En viro nm enta l
A ss o cia te s, L LC
White Creek Appendix 3 – Page 1 of 6

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W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
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0600300F eet
A lt e rn ativ e # 1: D o n oth in g – e xis tin g c o n dit io n s
B erm a lo ng fa rm f ie ld

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En viro nm enta l
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0600300F eet
A lt e rn ativ e # 1: D o n oth in g – e xis tin g c o n dit io n s
B erm a lo ng fa rm f ie ld

F it z g era ld
En viro nm enta l
A ss o cia te s, L LC
White Creek Appendix 3 – Page 3 of 6

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S ale m , N Y
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0600300F eet
A lt e rn ativ e # 1: D o n oth in g – e xis tin g c o n dit io n s
B erm a lo ng fa rm f ie ld

F it z g era ld
En viro nm enta l
A ss o cia te s, L LC
White Creek Appendix 3 – Page 4 of 6

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W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- F lo od d epth s a re b a se d o n a n e stim ate d 5 -y e ar s to rm f lo w o f 2 ,0 80 cfs a nd a n e stim ate d 1 0-y e ar s to rm flo w o f 2 ,8 44 cfs
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A lt e rn ativ e # 6: R em ove A rc h ib ald b rid ge a n d in cre ase c h a nne l w id th a nd d e pth
06 00300F eet
A lt e rn ativ e # 1: D o n oth in g – e xis tin g c o n dit io n s
B erm a lo ng fa rm f ie ld

F it z g era ld
En viro nm enta l
A ss o cia te s, L LC
White Creek Appendix 3 – Page 5 of 6

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N ic h ol S t
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W hit e C re e k S tu dyH yd ra u li c M odeli n g
S ale m , N Y
Note s: – F lo od d epth g rid is m ap ped fr o m w ate r s u rfa ce e le va tio ns c a lc u la te d a t e ach c ro ss-s e ctio n u sin g a H EC -R AS h yd ra u li c m ode l a n d p re dic te d flo w s fr o m a h yd ro lo gic a na ly sis- F lo od d epth s a re b a se d o n a n e stim ate d 5 -y e ar s to rm f lo w o f 2 ,0 80 cfs a nd a n e stim ate d 1 0-y e ar s to rm flo w o f 2 ,8 44 cfs
D ra w n:
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N ic h ol S t
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A lt e rn ativ e # 7: R em ove A rc h ib ald b rid ge, w id en a n d d ee pen c h an nel,
a nd c u t flo od b e nch es a lo n g n orth b ank
0600300F eet
A lt e rn ativ e # 1: D o n oth in g – e xis tin g c o n dit io n s
B erm a lo ng fa rm f ie ld

F it z g era ld
En viro nm enta l
A ss o cia te s, L LC
White Creek Appendix 3 – Page 6 of 6

APPENDIX 4:
MITIGATION PROJECT MATRICES

White Creek Watershed, Rupert, VT & Salem, NY
Legend

Recommended Projects to Protect Infrastructure, Residences,EffectiveLimitedIneffective

and Businesses from Future Flooding

July 19, 2016

ProjectWhat is At Risk?
Reduces Flood
Risk1

10-year Flood
Level Reduction in
Village

Reduces
Erosion Risk2

Protects Businesses,
Infrastructure, and
Property

Ease of
Implementation

Implementation Cost
Range

Estimated Time for
Implementation

Permitting
Jurisdictions
Comments

Upstream Alternatives

Alternative 1: Floodplain Reconnection
Upstream (East) of Blind Buck Road

Businesses, Residences,
& County/Town
Infrastructure
●0.5 – 1ft●●Difficult
$100K-150K2-3 yearsNYDEC; USACE

Berms along both banks restrict access to floodplains on both sides of river during 10-year floods and greater. Approximately 33 acre-ft of floodplain storage could be reconnected for moderate floods. Berm removal would require excavation of approximately 1,800CY of material along the banks, with some tree removal likely. Temporary and permanent easements with farm owner would be needed.

Alternative 2: Beatty Hollow Bridge Retrofit
or Replacement; Improve downstream
hydraulic opening

Businesses, Farms,
Residences, &
County/Town
Infrastructure
●N/A●●Difficult

$500K (replacement);
$10K-$15K (improve
opening)

2-3 years
(replacement);
<1 year (improve opening) NYDEC; USACE Widening clear span to predicted bankfull width of 65 feet (from USGS regression) and realigning opening would lower flood depths during large floods by 3 feet or more, reducing risk of neaby flooding and erosion along the road embankment. A temporary solution to increasing capacity involves removing a downstream constriction caused by existing bank riprap projecting into the channel (approximately 60CY). Alternative 3: Unstable Embankment along County Road 153 near Braymer Road County Transportation Infrastructure ○N/A●●Moderate$60K-$75K 1-2 yearsNYDEC; USACE The well intentioned Irene recovery work to reconnect an abandoned meander made the Rt 153 embankment more vulnerable to erosion by increasing floodwater velocity over the upstream diversion weir. Embankment armoring and grade control with large stone (approximately 220CY) would protect the roadway during future flood events. Alternative 4: Floodplain Reconnection Downstream (West) of Chambers Road Businesses, Farms, Residences, & County/Town Infrastructure ●0.5 – 1ft●●Difficult $250K-$300K2-3 yearsNYDEC; USACE Berms and the abandoned railroad bed east of the Creek restrict access to floodplains during 10-year floods and greater. Approximately 12 acre-ft of floodplain storage could be reconnected for moderate floods. Berm removal would require excavation of approximately 8,600CY of material, with some tree removal likely along the banks. Temporary and permanent easements with farm owner would be needed. Alternative 5: Floodplain Reconnection Upstream (East) of Railroad Bridge #4 Businesses, Farms, Residences, & County/Town Infrastructure ●0.5 – 1ft●●Difficult$150-$200K 2-3 yearsNYDEC; USACE Berms along the west bank restrict access to floodplains during 10-year floods and greater. Approximately 32 acre-ft of floodplain storage could be reconnected for moderate floods. Berm removal would require excavation of approximately 4,000CY of material along the banks, with some tree removal likely. Temporary and permanent easements with farm owner would be needed. Alternative 6: County Route 153 Bridge Upstream Constriction Businesses, Farms, Residences, & County/Town Infrastructure )N/A))Easy$5K-$10K 1 yearNone An old laid up stone abutment upstream of the Rt 153 bridge constricts the channel, aggravating out of bank flows and flooding of adjacent property during large floods. There is good access to remove the stone (approximately 90CY) from a private gravel road west of Rt 153. A temporary easement from the landowner would be needed as the stone is likely outside the road ROW. Alternative 7: Lowering of Railroad Bed and Removal of 30-inch RCP at Lenhardt Residence Farms and Residences)N/A○)Moderate$15K-$20K1-2 yearsNYDEC; USACE During large floods water is diverted out of the bank in West Rupert at the rail trail bridge and gets trapped on the east side of the rail bed. Ponded water south of the Atwater farm cannot easily return to the White Creek channel after the floodwaters recede due to limited capacity through a 30-inch culvert. Lowering a portion of the rail bed around the culvert will provide additional relief back to the Creek. Alternative 8: Replace Undersized Railroad Bridge #5 Farms and Residences●N/A●●Difficult$150K-$200K2-3 years NYDEC; USACE; VTrans The rail trail bridge in West Rupert in severely undersized and poorly aligned, and contributes to out of bank flows during large floods. Floodwaters get trapped on the south side of the rail bed and cannot return to the Creek. The current bridge span is 23 feet. The bridge span should be at least 50 feet to match the channel bankfull width. ) ○ ● OBJECTIVES FEASIBILITY 1Reduces Flood Risk – The proposed project/strategy lowers the flood level.2Reduces Erosion Risk – The proposed project/strategy lessens the vulnerability of a location to erosion. White Creek Appendix 4 Page 1 of 2 White Creek Watershed, Rupert, VT & Salem, NYLegend Recommended Projects to Protect Infrastructure, Residences,EffectiveLimitedIneffective and Businesses from Future Flooding July 19, 2016 ProjectWhat is At Risk? Reduces Flood Risk1 10-year Flood Level Reduction in Village Reduces Erosion Risk2 Protects Businesses, Infrastructure, and Property Ease of Implementation Implementation Cost Range Estimated Time for Implementation Permitting Jurisdictions Comments Salem Village Alternatives Alternative 2: Remove Berms Downstream of Salem Village Businesses, Residences, & County/Town Infrastructure ○0 – 0.5ft○○Moderate $40-50K1-2 yearsNone Project involves coordination with landowner (Woody Hill Farms) to remove berms along farm fields for approx. 1,200 linear feet. Total volume estimated to be 1,000-1,400 CY. Berms create minor tailwater in small to moderate floods and affects the western edge of the Village. Alternative 2a: Remove Berms Downstream of Salem Village; Deepen Channel Businesses, Residences, & County/Town Infrastructure )0.5 – 1ft○○Moderate $50K-$80K1-2 yearsNYDEC; USACE Deepening the channel from the Route 22 bridge through cross-section 7117. Channel has aggraded approximately 1-2 feet compared to pre-Irene conditions. Some minor bank shaping may be required. We estimate that approximately 3,000-4,000 CY of material would be removed over the 2,200 foot length of channel. A sediment maintenance plan would need to be established in conjunction with state and federal agencies. This would requre additional channel survey work to establish benchmarks associated with levels of aggradation that increase flood vulnerability. Alternative 3 & 3a: Remove Archibald Street Bridge or Install an Overflow Box Culvert to North of Existing Bridge Businesses, Residences, & County/Town Infrastructure ●1 – 1.5ft))Moderate $50K (removal); $250K-$350K (overflow culvert) 2-3 years SEQR; NYDEC; USACE For removal option, the south abutment would be left in place to accommodate a future pedestrian crossing, but the north abutment would be removed to widen the floodway. Overflow box culvert (20ft span, 5ft height) would be installed on the north bank and would require an easement from the property owner to create an overflow channel. Alternative 4: Remove Berms Downstream of Salem Village; Remove Archibald Street Bridge Businesses, Residences, & County/Town Infrastructure ●1 – 1.5ft))Moderate $80K-$100K2-3 years SEQR; NYDEC; USACE See above comments. The combination of berm removal with bridge removal (or overflow box culvert) provides only marginal improvement over Alternative 3. Alternative 5: Remove Berms Downstream of Salem Village; Deepen Channel; Widen Channel with Flood Benches Businesses, Residences, & County/Town Infrastructure )0.5 – 1ft))Difficult$250K-$350K 3-5 years SEQR; NYDEC; USACE Widening of the channel without Archibald Street bridge removal (or overflow culvert) provides only limited flood reduction, as the bridge constriction remains severe. This is not a viable alternative considering the high costs and limited benefits. Alternative 6: Remove Berms Downstream of Salem Village; Deepen Channel; Widen Channel with Flood Benches; Remove Archibald Street Bridge Businesses, Residences, & County/Town Infrastructure ●1.5 – 2ft))Difficult$400K-$500K 3-5 years SEQR; NYDEC; USACE Easements would be required on approximately 14 properties to excavate the flood benches, primarily along the north bank in between Route 22 and Archibald Street. Many large trees lining the north bank would need to be removed. A revegetation plan would be required as part of the final design and permitting. Alternative 7: Remove Berms Downstream of Salem Village; Deepen Channel; Widen Channel with Flood Benches; Remove Archibald Street Bridge; Businesses, Residences, & County/Town Infrastructure ●1.5 – 2ft●●Difficult$500K-$700K >5 years
SEQR; NYDEC;
USACE; FEMA

See above comments. The Fleming house (41 Archibald Street) would be bought-out and demolished to allow for the re-establishment of a floodplain on the north bank. This alternative would also reduce the 100-year flood elevations in the Village 1-1.5 feet.

OBJECTIVES

FEASIBILITY

)

1Reduces Flood Risk – The proposed project/strategy lowers the flood level.2Reduces Erosion Risk – The proposed project/strategy lessens the vulnerability of a location to erosion.
White Creek Appendix 4 Page 2 of 2

Beaver B ro o k
D ry C re ek
W hit e C re e k
B li n d B uck S tr e am
S an dg ate B ro ok
B utte rm il k F alls B ro o k
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Sm it h R d
Prie st R d
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S co tt L ake R d
Bla c k C re e k R d
Dil lo n H ill R d
Cham bers R d
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B li n d B uck R d
Dunnig an R d
Cem ete ry R d
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R UPER T R DW S A NDG ATE R D
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Exit 18 Rezone Study (final)

Exit 18 Rezone Study
Town of Queensbury
Warren County, New York

February 2016

Prepared for: Prepared
by:

III Winners Circle
Albany, NY 12205
CHA File: 30230

Exit 18 Rezone Study – Queensbury, NY Page i

TABLE OF CONTENTS

1.0 INTRODUCTION …………………………………………………………………………………………………………1
A. Study Background, Overview, and Purpose …………………………………………………………………… 1
B. Study Area ………………………………………………………………………………………………………………… 1
C. Study Objectives ………………………………………………………………………………………………………… 4
D. Study Approach …………………………………………………………………………………………………………. 5
2.0 EXISTING AREA CONDITIONS ………………………………………………………………………………………..5
A. Roadway Network ……………………………………………………………………………………………………… 5
B. Traffic Volumes ………………………………………………………………………………………………………….. 8
C. Transit Service …………………………………………………………………………………………………………. 10
D. Pedestrians and Bicyclists ………………………………………………………………………………………….. 11
3.0 NO-BUILD TRAFFIC VOLUMES …………………………………………………………………………………….. 12
4.0 LAND USE ………………………………………………………………………………………………………………. 15
5.0 BUILD TRAFFIC VOLUMES ………………………………………………………………………………………….. 19
A. Trip Generation ……………………………………………………………………………………………………….. 19
B. Site Trip Distribution ………………………………………………………………………………………………… 22
C. Future Build Volumes ……………………………………………………………………………………………….. 23
6.0 CAPACITY ANALYSIS …………………………………………………………………………………………………. 25
A. Existing Traffic Operations ………………………………………………………………………………………… 26
B. No-Build Traffic Operations ……………………………………………………………………………………….. 27
C. Build Traffic Operations …………………………………………………………………………………………….. 28
7.0 QUEUE ANALYSIS …………………………………………………………………………………………………….. 34
8.0 MITIGATION IMPROVEMENTS ……………………………………………………………………………………. 37
9.0 SENSITIVITY ANALYSIS………………………………………………………………………………………………. 43
10.0 PEDESTRIAN & BICYCLE CONSIDERATIONS ……………………………………………………………………. 47
11.0 ZONING CONSIDERATIONS ………………………………………………………………………………………… 48
12.0 IMPLEMENTATION STRATEGIES ………………………………………………………………………………….. 49
13.0 CONCLUSION ………………………………………………………………………………………………………….. 51

Exit 18 Rezone Study – Queensbury, NYPage ii
LIST OF FIGURES
Figure 1: Study Location Map …………………………………………………………………………………………………… 2
Figure 2: Exit 18 Rezone Area …………………………………………………………………………………………………… 3
Figure 3: Study Intersections ……………………………………………………………………………………………………. 4
Figure 4: 2015 Existing DHV Traffic Volumes ……………………………………………………………………………….. 9
Figure 5: 2015 Intersection Volume Comparison………………………………………………………………………… 10
Figure 6: GGFT Bus Route 7 ……………………………………………………………………………………………………. 10
Figure 7: No-Build Traffic Volumes …………………………………………………………………………………………… 13
Figure 8: Intersection Volume Comparison – Existing/No-Build …………………………………………………….. 14
Figure 9: Parcel Consolidation Concept …………………………………………………………………………………….. 18
Figure 10: Intersection Volume Comparison – Existing/No-Build/Build ………………………………………….. 23
Figure 11: 2020 Build Volumes ……………………………………………………………………………………………….. 24
Figure 12: Intersection Improvements – Big Bay Road & Corinth Road …………………………………………… 38
Figure 13: Intersection Improvements – Big Boom Road/Media Drive/Main Street ………………………….. 40
Figure 14: Reduced Development Improvement Concept – Big Boom Road …………………………………….. 43
LIST OF TABLES
Table 1: NYSDOT AADT volumes ……………………………………………………………………………………………….. 8
Table 2: 2015 Two-Way Design Hour Volumes …………………………………………………………………………….. 8
Table 3: 2015 Peak Hour Pedestrian and Bicycle Volumes ……………………………………………………………. 11
Table 4: Existing Zoning …………………………………………………………………………………………………………. 15
Table 5: Parcel Consolidation and Development Concept ……………………………………………………………. 19
Table 6: CI-18 Development Trip Generation …………………………………………………………………………….. 21
Table 7: HCM Intersection LOS ……………………………………………………………………………………………….. 25
Table 8: Level of Service Summary – AM Peak Hour ……………………………………………………………………. 30
Table 9: Level of Service Summary – PM Peak Hour …………………………………………………………………….. 32
Table 10: Queue Summary – AM Peak Hour ………………………………………………………………………………. 35
Table 11: Queue Summary – PM Peak Hour ………………………………………………………………………………. 36
Table 12: LOS Summary Build with Improvements ……………………………………………………………………… 41
Table 13: Trip Generation Scenario Comparison ………………………………………………………………………… 44
Table 14: LOS Summary – Reduced Build Scenario ………………………………………………………………………. 45
LIST OF APPENDICES
Appendix A …………………………………………………………………………………………………. Traffic Volume Data
Appendix B …………………………………………………………………………………… Trip Generation & Distribution
Appendix C ……………………………………………………………………………………. Capacity Analysis Worksheets
Appendix D ……………………………………………………………………… Mitigation Improvement Cost Estimates

Exit 18 Rezone Study – Queensbury, NY Page 1

1.0 INTRODUCTION

A. Study Background, Overview, and Purpose

The Adirondack/Glens Falls Transportation Council (A/GFTC) initiated this study to provide a technical
analysis of the transportation system impacts associated with proposed changes in commercial zoning in
the area of the I-87 (Adirondack Northway) Interchange 18 in the Town of Queensbury, Warren County,
New York. The Commercial Intensive Exit 18 (CI-18) District proposed by the Town of Queensbury is
intended to provide for flexible development opportunities on key sites, creating economic development
while encouraging the overall improvement and appearance of these areas, including attractive building
designs and enhanced pedestrian access.

The Corinth Road/Main Street corridor, which is the primary east-west arterial route serving the study
area, was reconstructed in 2011 (PIN 1753.80). This reconstruction involved capacity and safety
enhancements including construction of a two-way center left-turn lane, intersection improvements,
pedestrian/bicycle accommodations and new traffic signal systems. The basis of design for this road
reconstruction included projections of traffic growth associated with a land development scenario within
the study area that considered more than 1.6 million square feet of new commercial and industrial uses
and approximately 1,200 new residential units. The timeline for that projected growth was 2015. The
basis of the roadway design for the reconstruction also considered additional traffic growth to a 2025
planning horizon.

This Exit 18 Rezone Study identifies the changes in traffic that has occurred over the past 10 years since
the original design studies were conducted, including documentation of traffic volumes, turning patterns,
and pedestrian/bicycle activity in the corridor, and provides analysis of traffic operations to identify the
transportation improvements recommended to support anticipated development under the proposed CI-
18 zoning.

The study includes the following:

• Land use and development assessment of properties within the rezone area
• Documentation of existing traffic volumes and transportation system operations
• Projections of future travel demand generated by development under the proposed rezone
• Identification of traffic impacts of the potential development
• Identification of mitigation alternatives and implementation strategies

B. Study Area

The project study area is located in the vicinity of the I-87 Interchange 18 with Corinth Road/Main Street
(Warren County Route 28), in the southern part of the Town (See Figure 1). The proposed CI-18 District
comprises approximately 65 acres of land around the interchange, extending north and south of Corinth
Road/Main Street from Big Bay Road (west of I-87) to Big Boom Road (east of I-87), as shown in Figure 2.

Exit 18 Rezone Study – Queensbury, NY Page 2

The limits of the study of the transportation system extend further east to the municipal boundary of the
City of Glens Falls, and includes the following intersections (see also Figure 3):

• Corinth Road (CR28) and Big Bay Road
• Corinth Road (CR 28) and I-87 Exit 18 Southbound ramps
• Corinth Road (CR 28) and I-87 Exit 18 Northbound ramps
• Main Street (CR 28) and Big Boom Road/Media Drive
• Main Street (CR 28) and Pine Street
• Main Street (CR 28) and Richardson Street

Figure 1: Study Location Map

Exit 18 Rezone Study – Queensbury, NY Page 3

Figure 2: Exit 18 Rezone Area

Exit 18 Rezone Study – Queensbury, NY Page 4

Figure 3: Study Intersections
Aerial Image Source: Google Maps

C. Study Objectives

The objectives identified for this study are to:

• Quantify the estimated traffic impacts resulting from development allowable under the
proposed zoning changes on the function and capacity of the transportation system, including
considerations of motorized and non-motorized traffic.
• Recommend modifications to the proposed zoning changes that would allow for the
preservation of surface transportation capacity while still fostering the Town of Queensbury’s
goals to encourage desirable new development.
• Recommend conceptual transportation system improvements that would be required to
maintain acceptable transportation system operations with the forecasted development
conditions.
• Identify alternative funding mechanisms that are permissible under State and local
regulations that could be used to leverage transportation system improvements.

Exit 18 Rezone Study – Queensbury, NY Page 5

D. Study Approach

The study approach employed to complete this technical study consisted of:

• Inventory of existing transportation and land use conditions, and environmental constraints.
• Development of future land use and transportation conditions, considering
planned/approved projects and local development trends.
• Assessment of impacts to the transportation system, and evaluation of mitigation strategies
including transportation system management, capacity enhancements, and land use
alternatives.
• Assessment of potential funding and implementation strategies.
• Town, A/GFTC and agency coordination.

This technical study is consistent with the foundational aspect of A/GFTC’s Planning Principles for planning
and program development by providing a coordinated assessment of land use and transportation. The
alternatives for mitigation strategies were similarly developed in accordance with these principles to
maximize utilization of available system capacity, and to consider mobility, access and safety for all modes
and users.

2.0 EXISTING AREA CONDITIONS
A. Roadway Network
County Route 28 is an Urban Principal Arterial and is owned and maintained by Warren County. West of
the Exit 18 interchange this road is named Corinth Road, and east of the interchange it is named Main
Street. As mentioned previously, this roadway was recently reconstructed to improve mobility and safety
for motorized and active transportation. The segment of the corridor (Corinth Road) between Big Bay
Road and the I-87 southbound ramps has a basic typical section of one 12-foot travel lane for each
direction, with a 5-ft. sidewalk on the north side of the road. The segment of the corridor through the
interchange consists of two lanes in each direction (a through travel lane and a left-turn lane in each
direction), and sidewalks on both sides of the street. East of the interchange, Main Street transitions from
the four-lane section to a three-lane section comprised of a single 14-foot shared travel lane in each
direction and a center two-way left turn lane (TWLTL). At the signalized intersections of Main Street at Big
Boom Road, Pine Street and Richardson Street, the TWLTL becomes a dedicated directional left-turn lane.
Five-foot sidewalks are provided on both sides of Main Street from the I-87 interchange to beyond the
Richardson Street limits of the study area. The posted speed limit along CR 28 throughout the study area
is 35 mph.

Main Street from I-87 to its termination at US 9 in Glens Falls is part of the National Highway System and
is a Designated Truck Access Highway in New York State. The corridor is a mix of commercial and
residential uses. With the exception of the interchange area, access to the corridor is uncontrolled,
meaning that driveway access to abutting properties is permitted.

Exit 18 Rezone Study – Queensbury, NY Page 6

Study Area Intersections
All six of the study area intersections are controlled by multi-phased, traffic-actuated traffic signals. The
NYSDOT owns and maintains the coordinated signals at the I-87 Exit 18 northbound and southbound
ramps and at the adjacent intersection of Main Street, Big Boom Road and Media Drive. The current signal
timing and phasing plans for these intersections were obtained from NYSDOT. Although Warren County
owns and maintains the roadway infrastructure for the remaining segments of the study corridor, the
traffic signals at the three other study intersections are locally managed through an agreement between
the Town and the City of Glens Falls. The traffic signal timing and phasing data for these three locally-
managed signals was obtained by field observations. The reconstruction of the corridor included provision
for the interchange ramp signals to also operate in coordination with the signal at Big Boom Road, but
currently they do not operate in this coordinated mode.

The geometry of the intersections are as follows:

 Big Bay Road / Corinth Road – This is a “T” intersection controlled with a traffic signal. The Corinth
Road eastbound approach consists of a shared through /right-turn lane while the westbound
approach provides an exclusive left turn lane and an exclusive through lane. The Big Bay Road
northbound approach provides a shared left / right turn lane. A crosswalk with pedestrian
accommodations exists on the west leg of the intersection. The traffic signal is fully-actuated and
operates in a 3-phase sequence, including permitted/protected turn movements.

 I-87 Exit 18 Southbound (SB) Ramp / Corinth Road – This is a four-way intersection operating
under traffic signal control. The Corinth Road eastbound approach provides two exclusive
through lanes and an exclusive right turn lane while the Corinth Road westbound approach
provides an exclusive left turn lane and an exclusive through lane. I-87 Exit 18 SB Ramp approach
(north leg) provides two lanes; a shared left-turn / through lane and an exclusive right turn lane
for southbound vehicles exiting I-87 while the south leg provides a single, one-way travel lane for
vehicles to access I-87 southbound. Crosswalks and pedestrian accommodations exist on the
north and east legs of this intersection. This signal is owned and maintained by the NYSDOT and
is coordinated with the I-87 Exit 18 Northbound Ramp / Corinth Road intersection using a single
controller to mutually operate both ramp intersections.

 I-87 Exit 18 Northbound Ramp/ Corinth Road – This is a four-way intersection operating under
traffic signal control. The Corinth Road eastbound approach provides an exclusive left-turn lane
and an exclusive through lane while the Corinth Road westbound approach provides an exclusive
through lane and a shared through / right turn lane. The I-87 Exit 18 northbound approach
provides an exclusive left turn lane, a shared through / right-turn lane and an exclusive right turn
lane while the north leg provides a single, one-way travel lane for vehicles to access I-87
northbound. Crosswalks and pedestrian accommodations are provided on both the I-87 on and
off ramps. This signal is owned and maintained by the NYSDOT and is coordinated with the I-87
Exit 18 Southbound Ramp / Corinth Road intersection using a single controller to mutually operate
both ramp intersections.

 Big Boom Road / Media Drive / Main Street – This is a signalized four-way intersection. The Main
Street eastbound approach provides an exclusive left-turn lane, an exclusive through lane and a
shared through / right-turn lane. The Main Street westbound approach provides an exclusive left-
turn lane and a shared through / right-turn lane. The Big Boom northbound approach provides a

Exit 18 Rezone Study – Queensbury, NY Page 7

shared left-turn / through / right-turn lane while the Media Drive southbound approach provides
an exclusive left-turn lane and a shared through / right-turn lane. Crosswalks and pedestrian
accommodations exist on the north, east, and west legs of this intersection. The traffic signal is
fully-actuated and operates in a 4-phase sequence, including permitted/protected turn
movements.

 Pine Street / Main Street – This is a signalized four-way intersection. The Main Street eastbound
and westbound approaches provide an exclusive left-turn lane and a shared through / right-turn
lane. The Pine Street northbound and southbound approaches each consists of a shared left-turn
/ through / right-turn lane. The north leg (southbound approach) is offset to the east from the
south leg (northbound approach) and therefore, has split phasing for the northbound and
southbound approaches. The Speedway (formerly Hess) gas station driveway exists opposite the
Pine Street northbound approach. Crosswalks and pedestrian accommodations exist on the north
and south legs of this intersection.

 Richardson Street / Main Street – This is a signalized four-way intersection. The Main Street
eastbound and westbound approaches provide an exclusive left-turn lane and a shared through /
right-turn lane. The Richardson Street northbound and southbound approaches each consists of
a shared left-turn / through / right-turn lane. Crosswalks and pedestrian accommodations exist
on all four legs of this intersection. The traffic signal is fully-actuated and operates in an 8-phase
sequence, including permitted/protected turn movements.

Exit 18 Rezone Study – Queensbury, NY Page 8

B. Traffic Volumes
Traffic volume data compiled from the New York State Department of Transportation (NYSDOT) Traffic
Data Viewer provides the Average Daily Traffic (ADT) on Corinth Road / Main Street as shown in Table 1:

Table 1: NYSDOT AADT volumes
Location From To Existing (2011)
(vehicles per day)
Existing (2011)
Peak Hour Volume
(vehicles)
Forecasted (2013)
(vehicles per day)
AM PM
Corinth Rd. Pinewood Rd. I-87 8,020 664 711 8,011
Main St. I-87 Richardson St. Not provided NA NA 21,347
Main St. Richardson St. City Line 13,753 1,037 1,107 13,727
I-87 Southbound off ramp Corinth Rd 6,500 (2009) 493 611 Not provided
I-87 Northbound off ramp Corinth Road 5,021 (2009) 430 543 Not provided

Traffic volumes were counted at the six study intersections to document the current volumes and patterns
of traffic movement during peak-hour conditions. These counts were conducted on Wednesday, May 20,
2015 and Thursday, May 21, 2015 for the weekday AM peak period (7 am to 9 am) and weekday PM peak
period (4 pm to 6 pm). The existing traffic volumes were summarized and a monthly seasonal adjustment
factor applied, based upon NYSDOT published factors, to reflect peak design conditions. The 2015 Existing
Design Hour Volumes (DHV) are shown on Figure 4 (next page). The two-way traffic volumes on the study
area roadways are shown on Table 2.

Table 2: 2015 Two-Way Design Hour Volumes
Segment

Two-Way Peak Hour Volume
(vehicles)
AM PM
West of Big Bay Rd. / Corinth Rd. – 1,050 1,025
Big Bay Rd. / Corinth Rd. Exit 18 SB ramps 1,345 1,330
Exit 18 SB ramps Exit 18 NB ramps 1,535 1,625
Exit 18 NB ramps Big Boom Rd. / Media Dr. / Main St. 1,880 1,940
Big Boom Rd. / Media Dr. / Main St. Pine St. / Main St. 1,570 1,620
Pine St. / Main St. Richardson St. / Main St. 1,545 1,500
East of Richardson St. / Main St. – 1,235 1,280

Trucks and other heavy vehicles comprise 4-7% of the total traffic volumes on Corinth Road / Main Street
during the AM peak hour and 3-5% during the PM peak hour. This count data is provided in Appendix A.

Exit 18 Rezone Study – Queensbury, NY Page 10

The current 2015 DHV intersection volumes in the study area were compared to the forecasted 2015
Design Volumes that had been developed as the basis of design for the Corinth Road Reconstruction
project. The data shows that the actual volumes are lower than the volumes that were used as the design
condition for the reconstruction project. A comparison of volumes for the PM peak hour is provided in
Figure 5.

Figure 5: 2015 Intersection Volume Comparison

C. Transit Service

Greater Glens Falls Transit (GGFT)
currently operates transit service in the
study area via Bus Route 7 (West Glens
Falls). The service operates weekdays from
7:00 a.m. to 5:05 p.m. and on Saturdays
from 9:00 am to 5:10 pm, with average
service headways of approximately 2
hours. A bus stop is located at the
McDonald’s on Corinth Road, just west of
the I-87 southbound ramps, although
there is no shelter or bus turn-out.

Figure 6: GGFT Bus Route 7

Exit 18 Rezone Study – Queensbury, NY Page 11

D. Pedestrians and Bicyclists

A sidewalk is provided along the north side of Corinth Road/Main Street throughout the limits of the study
area. A sidewalk is also provided on the south side of the street from the I-87 southbound ramps to beyond
the eastern limits of the study area. Crosswalks and pedestrian signals are provided at all of the signalized
intersections, as noted in the intersection descriptions above. Pedestrian crossings of Main Street are also
provided at two non-signalized intersections: at Ryan Avenue and at Rozelle Street.

Bicycles are accommodated in the
shared 14-ft wide travel lanes on
Main Street east of Big Boom Road.
Because of the constraints of the
interchange bridge structure,
bicyclists either share the travel
lanes or utilize the sidewalk to
move through the interchange
area. The facility was intentionally
designed for this level of
accommodation.

Counts of pedestrians and bicyclists were recorded at each study intersection during the weekday AM and
PM study periods concurrently with the vehicle traffic counts in May 2015. The pedestrian/bicyclist
volumes occurring during the AM and PM peak hours are shown in Table 3. The total number of
pedestrians shown in the table includes the total number across all legs of the intersection. This summary
shows there was minimal pedestrian and bicycle movements at the time of the counts. This is not to imply
that the infrastructure supporting these transportation modes is not vital to the corridor, but these
volumes provide a basis for understanding the effect of pedestrian and bicycle activity in the analysis of
vehicle traffic operations.

Table 3: 2015 Peak Hour Pedestrian and Bicycle Volumes
Intersection

Pedestrians Bicyclists
AM PM AM PM
Big Bay Rd. / Corinth Rd. 0 0 0 0
Exit 18 SB ramps 2 1 0 0
Exit 18 NB ramps 1 1 2 2
Big Boom Rd. / Media Dr. / Main St. 0 1 0 1
Pine St. / Main St. 0 1 0 0
Richardson St. / Main St. 0 1 0 1

Unsignalized pedestrian crossing at intersection of Main Street and Rozelle Street

Exit 18 Rezone Study – Queensbury, NY Page 12

3.0 NO-BUILD TRAFFIC VOLUMES

In order to assess the traffic impacts associated with rezoning within the project area, it is first necessary
to estimate the traffic volumes on the adjacent roadways for the future condition without the project (No-
Build Condition) and then apply the traffic generated from the proposed project to obtain the future
conditions with the project (Build Condition).

The Final Design Report (FDR) for the Corinth Road/Main Street Reconstruction project (PIN 1753.80), was
reviewed to obtain historic baseline intersection traffic volumes for the project area. Comparison of the
2015 Existing Design Hour volumes and the 2004 traffic volumes contained in the FDR indicates that the
traffic volumes within the project area have generally been relatively stable with 0% to 2% per year
growth, depending on location. Intersections at the westerly project limits have experienced more growth
than the intersections at the easterly project limit. For the purposes of this study, an annual growth rate
of 1% was applied to adjust the 2015 Design Hour volumes to the 5-year 2020 planning horizon established
for the study.

The Town Planning Department identified three approved development projects that would add future
traffic volume to the study area:

 Parillo Mixed Use: 2,832 s.f. Fast Food and 20,000 s.f. of office/retail
 30,300 s.f. expansion of existing 30,502 s.f. warehouse (approved 12/2013).
 Four (4) 200’ x 30’ self-storage buildings and associated site work (approved 4/15).

Based on the traffic projections developed for each of these projects, it is estimated they will add a
combined 28 vehicle trips during the weekday AM peak hour and 39 vehicle trips during the weekday PM
peak hour through the I-87 Exit 18 interchange.

The traffic generated by these developments were combined with the general background growth to
represent the future No-Build volumes, which will be the basis for evaluating the impact of the projected
development under the proposed CI-18 zoning. The resulting 2020 No-Build traffic volumes are shown on
Figure 7 (next page). The No-Build intersection volumes for the PM peak hour are shown in comparison
to the volumes that were used as the design condition for the Reconstruction project and the 2015 current
volumes on Figure 8 (page 14).

Exit 18 Rezone Study – Queensbury, NY Page 14

Figure 8: Intersection Volume Comparison – Existing/No-Build

Exit 18 Rezone Study – Queensbury, NY Page 15

4.0 LAND USE

The proposed CI-18 rezone area is approximately 65.5 acres. Land use within the boundaries of the
proposed CI-18 zone includes undeveloped parcels and a variety of small-scale commercial and service
uses, as follows:

Restaurants
Carl R’s Café, Restaurant & Bar
McDonalds
Subway
Taco Bell

General Commercial
U-Haul Moving and Storage

Convenience/Fuel Services
Capital Food and Fuel
Cumberland Farms

Lodging
Days Inn Queensbury/Lake George
Super 8 Queensbury

The current zoning of the proposed CI-18 district includes Commercial Intensive (CI), Commercial Light
Industrial (CLI) and Main Street (MS) zones. The land area associated with each of the current zones is
shown in Table 4:

Table 4: Existing Zoning

Zone
Size
(acres)
Commercial Intensive (CI)
Commercial Light Industrial (CLI)
Main Street (MS)
28.93
7.14
29.43
Total 65.5

The statement of intent for the proposed CI-18 zone is to take advantage of an area of Queensbury that
already has intense commercial development proximate to the Exit 18 Interchange with US Interstate 87
(Adirondack Northway) by allowing for flexible development opportunities on key sites, creating economic
development while encouraging the overall improvement and appearance of these areas, including
attractive building designs and enhanced pedestrian access

The CI and MS zones allow many of the same uses. One difference is the listing of Enclosed Shopping
Center as an allowable use in the proposed CI-18 zone; a use that is not allowed in the existing zones in
the study area. The second “new” use is Amusement Center which is allowed in the proposed CI-18 zone,

Exit 18 Rezone Study – Queensbury, NY Page 16

the existing CL but not in the CLI or MS zone. Many of the most intensive uses allowable only under the
existing CLI zone are not included in the proposed CI-18 zone.

The proposed CI-18 zone also will allow buildings up to 70 feet depending on the building setback. Existing
zoning allows for a maximum height of 40 in the CI and MS zone and 60 in the CLI zone. Finally to further
encourage well planned and attractive projects, language to be included in 179-7-050 Design Districts has
been developed for the proposed zone. This will address issues such as facades, rooflines entrance design
and location, building materials within the context of overall site planning.

The development potential of the CI-18 zone was evaluated based on considerations of existing physical
constraints (such as wetlands, steep slopes and floodplains) and the proposed zoning criteria. The
evaluation also incorporated approved projects not yet built in the Study Area. A review of National
Wetlands Inventory (NWI) wetlands mapping, U.S. Department of Agriculture (USDA) soils mapping and
Federal Emergency Management Agency (FEMA) floodplain mapping did not identify resources that
would constrain development within the proposed CI-18 zone.

The proposed CI-18 zone consists of approximately 20 separate parcels varying in size from approximately
1 acre to over 17 acres. The buildable acreage of the proposed CI-18 zone was determined by deducting
land necessary to accommodate the infrastructure for roads (access and traffic circulation) and utilities,
and considering the adjustments for zoning requirements related to lot coverage,
landscaping/greenspace, and permeable surfaces. Typically the road and utility infrastructure for
development will comprise 15-20% of a site. For the purposes of this analysis, 15% was used to provide a
higher estimate of the development potential of the area.

The Town of Queensbury zoning code requires site development to provide a minimum of 30%
landscaping/30% permeable surfaces. In addition, the use of permeable pavement earns a 50% bonus
that is used to meet the landscaping/permeable pavement requirements. It is assumed that over the
entire study area approximately 20% of parcels will utilize permeable pavement, reducing the required
landscaping/permeable pavement requirements.

Based on these considerations of infrastructure and zoning criteria, it is estimated that the CI-18 rezone
area will support approximately 38 buildable acres.

Available acreage calculation 65.5 acres total
Subtract roads, utilities (15%) 9.83
Subtract constraints (wetlands/steep slopes/floodplains) 0
Subtract landscaping/permeable surfaces requirements ¹ 17.69
Approximate acreage available for development 37.98
¹ It is assumed that over the entire study area approximately 20% of parcels will utilize permeable
pavement

A land use scenario for this buildable area was developed for a 2020 planning horizon for the purpose of
the transportation analysis. Prior to identifying conceptual land uses for this development scenario,
parcels within the study area were consolidated to ensure that parcels meet the acreage requirements of
the proposed zoning and thus will be developable. This parcel consolidation concept is shown on Figure
9. It is noted that the geographic location of Parcel F (Capital Food and Fuel) does not allow it to be

Exit 18 Rezone Study – Queensbury, NY Page 17

combined with any other parcel. Because of this, Parcel F was considered to remain an undersized lot with
a non-conforming use (convenience/fuel services) under the proposed zoning.

Gas stations are not identified as an allowable use in the proposed zoning language resulting in a second
non-conforming use on the south side of Main Street (Parcel K). Again, for the purpose of this analysis,
two undersized adjoining parcels are proposed to be combined. The undersized lots are not adjacent to
any other parcels in the study area.

The Parcel Consolidation and Concept Development Table (Table 5) identifies the estimated maximum
build-out focused on high traffic generators. Alternative uses have been identified for some parcels, which
were also considered for the purpose of identifying a development scenario for the transportation
analysis.

Exit 18 Rezone Study – Queensbury, NY Page 18

Figure 9: Parcel Consolidation Concept

Exit 18 Rezone Study – Queensbury, NY Page 19

Table 5: Parcel Consolidation and Development Concept
Parcel

Size
(Acres)
Existing
Zoning
Proposed
Zoning
Estimated
Buildable
Area
(Acres)
Estimated Build-out Land Use

A 16.59 CI CI-18 9.62 Hotel with meeting rooms: 170 rooms
Office: 60,000 sq. ft.
Bank or other service use with drive-thru: 7,000 sq.
ft.
B 3.14 CI CI-18 1.82 Maintain existing use – fast food with drive thru:
4,000 sq. ft. ¹
C 1.25 CI CI-18 0.73 Business commercial (service)/small retail/food
strip: 12,000 sq. ft.
D 5.46 CI CI-18 3.16 Commercial office: 50,000 sq. ft.
E 2.49 CI CI-18 1.44 Expansion of existing Hotel: 110 added rooms
F 0.98 MS CI-18 0.57 Existing use to remain
G 3.28 MS CI-18 1.91 Expansion of existing Hotel: 120 rooms
H² 1.85 MS CI-18 1.07 Commercial Office: 11,000 sq. ft.
I² 1.10 MS CI-18 0.64 Commercial Office: 7,000 sq. ft.
J 2.41 MS CI-18 1.40 Retail/fast food: 9,000 sq. ft.
K 2.35 MS CI-18 1.36 Existing use to remain; redevelop as expanded
convenience/fuel services or similar use & include
adjoining non-conforming parcels³
L 17.46 MS CI-18 10.12 Hotel w/meeting rooms & restaurant: 200 rooms
Commercial office: 80,000 sq. ft. ⁴
M 7.14 MS CI-18 4.14 Retail Shopping Mall/Plaza: 80,000 sq. ft.
65.5 37.98
¹Site currently does not meet proposed landscape or percent permeable requirements; site redevelopment to meet these
requirements.
²H and I represent one parcel divided by Big Boom Road.
³Gas stations are not an allowable use in the proposed CI-18 zone; redevelopment/expansion of this use will require a variance.
The 2 adjacent parcels do not meet minimum lot size in the CI-18 zone and therefore were combined and included in Parcel K.
⁴Alternate concept- possible 100,000 GLFA SF shopping mall/plaza with outparcel, 500-550 parking spaces.
5.0 BUILD TRAFFIC VOLUMES
A. Trip Generation

The transportation impacts associated with development of the proposed CI-18 zone was based on a
development scenario for the 2020 planning horizon established in coordination with the Town and
A/GFTC. This Build development scenario consists of the following uses:

Exit 18 Rezone Study – Queensbury, NY Page 20

Land Use Size

Hotel
Office
Bank with Drive-thru service
Fast food Restaurant with Drive-thru service
Specialty/Neighborhood Retail
Shopping Center Retail

294
128,000
7,000
4,000
17,000
180,000

rooms*
sq. ft.
sq. ft.
sq. ft.
sq. ft.
sq. ft.

*this is in addition to the 106 existing hotel rooms in the zone

The Institute of Transportation Engineers (ITE) Trip Generation Manual, 9th edition, is the industry
standard for determining trip generation for various land uses and is based on data collected at case study
sites throughout the United States. The applicable ITE Land Use Codes (LUC) corresponding to the land
uses for the Build scenario are as follows:

 ITE LUC 310: Hotels
 ITE LUC 710: General Office
 ITE LUC 912: Bank with Drive-Thru
 ITE LUC 820: Retail
 ITE LUC 934: Fast Food Restaurant w/ Drive-Thru

The traffic generated by the development with the CI-18 zone will be composed of the following basic trip
categories; primary trips and pass-by trips. Primary trips represent motorists whose primary destination
is within the zone and travel along the adjacent road is not linked to additional purposes. Pass-by trips
are secondary trips that are attracted from traffic passing the individual development sites on an adjacent
street that offers direct access to the generator.

The ITE Trip Generation Handbook, 3rd Edition, which provides pass-by trip rates for the various land uses,
was used to assess the number of new trips that would be associated with each of the proposed
developments as pass-by trips. The following pass-by trip rates were estimated for the development,
based on the ITE information and engineering experience/judgement:

 Bank with Drive-Thru: 30% pass-by trips
 Shopping Center retail: 35% pass-by trips
 Fast-food and smaller retail sites: 50% pass-by trips
 Hotels and offices: are not uses that would include pass-by trips.

Internal capture is another trip generation concept, which is related to travel between parcels within the
CI-18 zone. ITE has limited information pertaining to this effect, but what information does exist shows
that the interaction between the proposed uses would not be significant. In the case of the CI-18 zone,
many of these trips would also still involve travel on the public street network. Consequently, the trip

Exit 18 Rezone Study – Queensbury, NY Page 21

generation estimates for the Build condition did not consider a trip reduction for these types of trips
between parcels.

Based on the ITE information, it is estimated that the Build development scenario will generate 1,048
vehicle trips during the AM peak hour and 2,123 trips during the PM peak hour. Of these trips, 794 trips
are estimated to be new to the network during the AM peak hour and 1,503 trips will be new during the
PM peak hour. Although transit service is provided in the corridor, existing ridership characteristics
discussed with GGFT suggest that transit will not significantly influence the trip generation characteristics
of travel to the study area, so the trip generation estimates were not reduced for transit use for the
purpose of this study.

Table 6 summarizes the estimated site traffic generated by the Build scenario, grouped by land use.
Appendix B provides the detailed trip generation and distribution estimates for each parcel within the CI-
18 zone.

Table 6: CI-18 Development Trip Generation

EnterExitTotalEnterExitTotalEnterExitTotal
SUMMARY OF BUILD OUT USES
Tota l1,2021,2002,40292641569185176
Pa s s -By000000000
Pri ma ry1,2021,2002,40292641569185176
Tota l9339301,8632343126553253306
Pa s s -By000000000
Pri ma ry9339301,8632343126553253306
Tota l5195181,0374837858585170
Pa s s -By (30%)155156311131326252651
Pri ma ry3643627263524596059119
Tota l9929921,98493891826863131
Pa s s -By (50%)496496992454691333366
Pri ma ry496496992484391353065
Tota l1,3411,3412,682422668108117225
Pa s s -By (50%)6706701,3401717345656112
Pri ma ry6716711,342259345261113
Tota l6,3336,33212,6651811112925365791,115
Pa s s -By (35%)2,2162,2174,4335152103195196391
Pri ma ry4,1174,1158,23213059189341383724
TRIP GENERATION SUMMARY
Total11,32011,31322,6336903581,0489411,1822,123
Pass-By3,5373,5397,076126128254309311620
Primary7,7837,77415,5575642307946328711,503
Total of All Parcels
C, JReta i l82017,000
s .f.
L, MShoppi ng
Center820180,000
s .f.
ABa nk w/ Dri ve-
Thru9127,000 s .f.
B, J
Fa s t Food
Res ta ura nt w/
Dri ve-Thru
9344,000 s .f.
A, D, H,
IGenera l Offi ce710128,000
s .f.
AM Peak HourPM Peak Hour
A, E, G,
LHotel310294
rooms
ParcelBuild UseLUCSizeTrip TypeWeekday

Exit 18 Rezone Study – Queensbury, NY Page 22

B. Site Trip Distribution

The traffic generated by the Build scenario was distributed to the network based on the overall traffic flow
patterns in the study area and considering the type of use, and proximity of the site to other regional
activity centers and residential populations. The trips were distributed to the network for each of the
parcels. The overall distribution for all new primary trips resulted in the following general distribution:

To/From: Main Street East ………………………………. 23%
Corinth Road West: …………………………… 23%
I-87 North: ………………………………………. 20%
I-87 South: ………………………………………. 20%
Media Drive North: …………………………… 13%
Big Bay Rd South: ……………………………….. 1%
TOTAL ……………………………………………. 100%

The distribution and turning movement assignments of site traffic to the study area roadways for pass-by
and primary trips is provided in Appendix B.

Exit 18 Rezone Study – Queensbury, NY Page 23

C. Future Build Volumes

The site generated traffic was combined with the 2020 No-Build volumes to represent the estimated
future volume conditions for the project area with the rezone development. The future 2020 Build
volumes are shown on Figure 11 (next page).

A comparison of the intersection volumes for the 2020 Build Condition to the 2015 Design Volumes that
had been developed for the Corinth Road Reconstruction project (FDR, 2004) are shown in Figure 10. This
data shows that the 2020 Build volumes for the four intersections between Big Bay Road and Big Boom
Road are substantially higher (15%-30%) than the volumes that were used as the design condition for the
Reconstruction project. The Build volumes for the intersections east of Big Boom Road are projected to
be lower than the design volumes used as the basis of the reconstruction project design.

Figure 10: Intersection Volume Comparison – Existing/No-Build/Build

Exit 18 Rezone Study – Queensbury, NY Page 25

6.0 CAPACITY ANALYSIS

The operating conditions of transportation facilities are evaluated based on the relationship of existing or
projected traffic volumes to the theoretical capacity of the highway. Various factors affect highway
capacity, including traffic volume, speed, roadway geometry, grade, number and width of travel lanes and
intersection control. The current standards for evaluating capacity and operating conditions are
contained in the Highway Capacity Manual 2010 (HCM 2010), published by the Transportation Research
Board (TRB). The procedures describe operating conditions in terms of Level of Service (LOS). In general,
LOS “A” represents the best operating conditions and LOS “F” represents the worst.

Level of Service (LOS) criteria are equated to average delay per vehicle (seconds), and range from LOS A
to LOS F. An overall intersection LOS of D or better is generally considered to be acceptable during peak
periods for signalized intersections. A LOS F represents levels of congestion that are generally considered
to be unacceptable at any intersection; however, again, other metrics should also be considered in
determining a need for improvements. Table 5 below presents the level of service thresholds for
signalized intersections.

Table 7: HCM Intersection LOS
LOS Control Delay per Vehicle
(Seconds)
A 10 or less
B 10-20
C 20-35
D 35-55
E 55-80
F greater than 80

Capacity analyses were performed for the following conditions using SYNCHRO 8 software:
 2015 Existing
 2020 No-Build
 2020 Build

These analyses were completed using the HCM 2010 guidance on recommended practices for treatment
of various data inputs to develop the models, such as considerations of peak hour factor adjustments, and
heavy vehicle factors. However, the operational analysis models that were used to produce the level-of –
service results used the computational methods from the earlier HCM 2000 version because of limitations
in the HCM 2010 methodology for analyzing the signal phasing at some of the study area intersections,
such as the clustered signal operations of the interchange.

Table 8 and Table 9 at the end of this Section summarize the LOS and delay results for each of the
intersections for the weekday AM and PM peak periods, respectively. Summary reports of these analyses
are provided in Appendix C.

Exit 18 Rezone Study – Queensbury, NY Page 26

A. Existing Traffic Operations
The capacity analyses show that the overall intersection operations in the corridor are acceptable, with
weekday AM and PM peak periods at all intersections operating at LOS D or better. In fact, the overall
intersection levels of service for much of the study area is LOS B. Similarly, all approaches and lane groups
operate at LOS D or better during peak hours, except at the Big Boom Road/Media Drive/ Main Street
intersection where the northbound approach (Big Boom Road) operates at LOS F during both peak
periods. The LOS F condition for this approach is not because of a high volume demand (55 veh/hr in the
AM peak and 80 veh/hr in the PM peak), but is a result of the interaction of this traffic with the conflicting
traffic entering the intersection at the same time from Media Drive.

Traffic moves along the corridor in long groups, or platoons, during the peak hours. Queue conditions that
sometimes extend beyond the designated storage areas within the lanes and/or extend to an adjacent
intersection can reduce the effective operations in the corridor. These factors will periodically produce
congestion in the corridor that is not reflected by the intersection level of service results. The queue
conditions in the corridor are discussed in Section 7.0 of this report.

It is noted that the Corinth Road Reconstruction project included the capability for the signal at the Big
Boom Road/Media Drive/Main Street intersection to be operated in coordination with the signals at the
I-87 Exit 18 interchange. However, the existing signal timing plans for these signals shows that this
coordination is not currently being deployed by NYSDOT. NYSDOT has indicated that they will be making
minor adjustments to some timing inputs to improve the efficiency of the signal operations, but they
consider that the coordination would not have an overall benefit to corridor operations at this time.

Exit 18 Rezone Study – Queensbury, NY Page 27

The field observations of conditions at the Main Street/Richardson Street intersection indicate that the
northbound approach of Richardson Street is operating in a ‘Vehicle Recall’ mode, which means that green
time is allocated for this approach even when there are no vehicles present on Richardson Street to be
served. In contrast, the southbound approach operates in a ‘Vehicle Actuation’ mode, so that a call for
GREEN is not placed for this approach unless a vehicle is present. This current recall mode of operation
for the northbound approach reduces the efficiency of traffic operations because of the unnecessary
traffic stops on Main Street. The signal was designed so that both the northbound and southbound
approaches would operate in ‘Vehicle-actuation’ mode.

Another characteristic of the signal operations at the Main Street/Richardson Street intersection is that
the Richardson Street phases of the signal do not appear to be programmed for northbound and
southbound approaches of Richardson Street to both receive a GREEN signal at the same time regardless
of which direction activated the call (known as ‘Dual Entry’). Instead, the current operations have the
signals facing southbound traffic remain RED if there is no vehicle call on this approach even when the
northbound approach is GREEN. This is not a common phasing treatment, and is not how the signal was
designed to operate. While this does not negatively impact delays at the intersection, it may cause
confusion for pedestrians. This is because the pedestrian signals to cross Main Street on the east side of
the intersection are associated with the northbound traffic phase while the pedestrian signals to cross
Main Street on the west side of the intersection are associated with the southbound traffic phase. Because
the signal is not using the Dual Entry function, the pedestrian signals will display WALK for the east side
crossing at the same time that the signals display DON’T WALK for the west side crossing.

B. No-Build Traffic Operations
The No-Build capacity analysis identifies the traffic operations for the 2020 planning horizon considering
status quo development and socio-economic trends for the area. This analysis provides the context for
evaluating the impact of the development in the CI-18 zone. The analyses assumes the existing geometrics
and signal phasing configurations, but with optimized signal cycle and green time allocations.

The analyses show similar operations as the Existing conditions, with all intersections operating at an
overall LOS D or better during the weekday AM and PM peak periods. All approaches to each of the
intersections continue to operate at acceptable LOS (LOS D or better) except for the Big Boom Road
northbound approach (AM and PM periods) and the Main Street eastbound approach at Richardson Street
(AM period). As with the Existing Conditions, the Big Boom northbound approach continues to experience
long delays with unacceptable LOS (LOS F). The increase in traffic associated with background growth
results in additional delay (16.3 seconds) to the Main Street eastbound approach at Richardson Street
during the weekday AM peak period, such that the LOS deteriorates from LOS D to LOS E. This level of
service also reflects the inefficiency created by the current recall mode operation of the Richardson Street
approach.

Exit 18 Rezone Study – Queensbury, NY Page 28

C. Build Traffic Operations

The analysis of the Build condition operations considered these operations in the context of the existing
geometry and traffic control. However, for the purpose of analysis, it is assumed that the access to Parcel
A will be provided from Corinth Road opposite Big Bay Road, which is the preferred access location. The
initial base assumptions for the geometry needed at this intersection to support the access to Parcel A
used in the Build analysis are as follows:

 Big Bay Road/Corinth Road –
o Site access to Corinth Road opposite Big Bay Road, modifying this from a “T” intersection
to a 4-way intersection.
o Provide a single lane on the new southbound approach from Parcel A to provide a shared
left-turn/through/right-turn lane.
o Provide a separate left-turn lane on Corinth Road eastbound approach (for traffic entering
Parcel A)

In addition to these geometric modifications, the Build capacity analyses assumes modified signal phasing
to accommodate the new fourth leg of the Big Bay Road/Corinth Road intersection. The geometry and
signal phasing at the other study intersections are the same as existing for this analysis.

The results of the capacity analyses show that the overall level of service for all the study intersections
except Big Boom Road/Media Drive/Main Street will operate at LOS D or better. The intersection of Big
Boom Road/Media Drive/Main Street will be LOS E in the AM peak hour and LOS F in the PM peak hour.

Exit 18 Rezone Study – Queensbury, NY Page 29

The Build analysis also shows LOS E/F operations at the following intersection approaches, even though
the overall intersection operations are LOS D or better:

 Big Bay Road/Corinth Road: SB approach (AM & PM)
 Pine Street/Main Street: EB approach (AM)
NB & SB approaches (PM)

It is noted that the analysis of the intersection of Main Street/Richardson Street shows an improvement
in LOS from the No-Build condition to the Build condition. This is because the Build analysis is based on
signal operations with both the northbound and southbound approaches operating in ‘Vehicle Actuation’
mode, and with associated signal timing re-optimization.

These analyses show that specific areas of the transportation system, particularly in the area of the Big
Boom Road/Media Drive/Main Street intersection, will require improvements to accommodate the traffic
increases associated with projected CI-18 rezone development. Consideration of these mitigation
improvements are discussed in Section 8.0.

Exit 18 Rezone Study – Queensbury, NY Page 30

Table 8: Level of Service Summary – AM Peak Hour

EBLeft-turnA8.3
Through/Ri ght-turnB13.3B14.9C21.1
Overa l l Approa chB13.3B14.9C20.3
WBLeft-turnA7.2A8.5C26.1
ThroughA3.2A3.2
Through/Ri ght-turnB13.9
Overa l l Approa chA4.3A4.7B17.5
NBLeft-turn/Ri ght-turnC23.1C23.5
Left-turn/Through/Ri ght-turnC31.5
Overa l l Approa chC23.1C23.5C31.5
SBLeft-turn/Through/Ri ght-turnF83.5
Overa l l Approa chF83.5
B11.7B12.7C23.5
EBThroughB15.9B17.2C27.9
Ri ght-turnB13.5B14.4C20.6
Overa l l Approa chB15.2B16.4B26.0
WBLeft-turnB19.2B23.9B22.1
ThroughA2.7A2.9A3.2
Overa l l Approa chB11.5B13.9B11.3
SBLeft-turn/ThroughD33.9D36.8D39.8
Ri ght-turnC27.3C28.8C29.5
Overa l l Approa chC30.8C33.0C34.4
B16.8B18.6C22.0
EBLeft-turnB18.3C20.5C30.1
ThroughA3.7A4.1A7.3
Overa l l Approa chA8.1A9.1B13.8
WBThrough/Ri ght-turnB16.3B18.5B24.5
Overa l l Approa chB16.3B18.5C24.5
NBLeft-turnC29.9C32.4D40.0
Through/Ri ght-turnC27.8C29.2C31.7
Overa l l Approa chC28.2C29.9C34.0
B16.9B18.5C23.5
IntersectionStreetApproachLane GroupLOS
Exi t 18-SB Off Ra mp
Overall Intersection
2020 Build
LOS
Delay
(sec/veh)
Cori nth Rd (Rte 28)
Delay
(sec/veh)
Bi g Ba y Rd
Delay
(sec/veh)
2015 Existing 2020 No-Build
LOS
Cori nth Rd (CR 28) &
Exi t 18-SB Ra mps
Cori nth Rd (Rte 28)
Cori nth Rd (CR 28) &
Bi g Ba y Rd
Overall Intersection
Ma i n St (CR 28) &
Exi t 18-NB Ra mps
Ma i n St (Rte 28)
Exi t 18-NB Off Ra mp
Overall Intersection

Exit 18 Rezone Study – Queensbury, NY Page 31

Table 8: Level of Service Summary – AM Peak Hour (continued)

EBLeft-turnB18.4C20.2F107.3
Through/Ri ght-turnA8.9B10.6D43.7
Overa l l Approa chB10.3B12.0D52.1
WBLeft-turnB16.7B15.2D41.7
Through/Ri ght-turnC26.2C24.1E63.5
Overa l l Approa chC26.0C23.9E60.6
NBLeft-turn/Through/Ri ght-turnF106.9F163.5F104.7
Overa l l Approa chF106.9F163.5F104.7
SBLeft-turnC31.8D35.3D36.2
Through/Ri ght-turnC31.4C34.4C28.4
Overa l l Approa chC31.4C34.5C28.8
C20.1C22.3E58.0
EBLeft-turnB13.4B15.0C20.4
Through/Ri ght-turnC29.0D43.4E62.6
Overa l l Approa chC28.5D42.4E61.2
WBLeft-turnC23.9C26.6C26.5
Through/Ri ght-turnB12.7B14.0B19.9
Overa l l Approa chB12.7B14.1B19.9
NBLeft-turn/Through/Ri ght-turnC29.6C29.3C29.2
Overa l l Approa chC29.6C29.3C29.2
SBLeft-turn/Through/Ri ght-turnC26.8C26.4C26.3
Overa l l Approa chC26.8C26.4C26.3
C22.2C30.7D42.8
EBLeft-turnB11.0B11.3A6.3
Through/Ri ght-turnD53.0E69.5B16.7
Overa l l Approa chD52.4E68.7B16.6
WBLeft-turnB16.1B16.1B10.3
Through/Ri ght-turnB16.8B17.8A9.5
Overa l l Approa chB16.8B17.8A9.5
NBLeft-turn/Through/Ri ght-turnC20.8C21.2D35.5
Overa l l Approa chC20.8C21.2D35.5
SBLeft-turn/Through/Ri ght-turnB18.0B18.0C29.5
Overa l l Approa chB18.0B18.0C29.5
D36.5D45.7B15.9
2015 Existing 2020 No-Build2020 Build
LOS
Delay
(sec/veh)LOS
Delay
(sec/veh)LOS
Delay
(sec/veh)
Ma i n St (CR 28) &
Ri cha rds on St
Ma i n St (Rte 28)
Ri cha rds on St
Overall Intersection
Ma i n St (CR 28) &
Pi ne St
Ma i n St (Rte 28)
Pi ne St
Overall Intersection
Overall Intersection
Ma i n St (CR 28) &
Bi g Boom Rd/Medi a Dr
Ma i n St (Rte 28)
Bi g Boom Rd
Medi a Dr
IntersectionStreetApproachLane Group

Exit 18 Rezone Study – Queensbury, NY Page 32

Table 9: Level of Service Summary – PM Peak Hour

EBLeft-turnC25.9
Through/Ri ght-turnB11.9B12.2D39.8
Overa l l Approa chB11.9B12.2D39.0
WBLeft-turnA4.9A5.3C25.2
ThroughA4.0A4.1
Through/Ri ght-turnC31.9
Overa l l Approa chA4.2A4.3C30.4
NBLeft-turn/Ri ght-turnB17.7B18.6
Left-turn/Through/Ri ght-turnC30.2
Overa l l Approa chB17.7B18.6C30.2
SBLeft-turn/Through/Ri ght-turnF81.7
Overa l l Approa chF81.7
A9.4A9.7D39.0
EBThroughB17.7B18.0D37.2
Ri ght-turnB15.3B15.5C21.6
Overa l l Approa chB17.1B17.4C33.5
WBLeft-turnB13.2B18.4D46.5
ThroughA2.2A2.5A2.6
Overa l l Approa chA8.2B11.1C23.2
SBLeft-turn/ThroughC32.5C33.9D37.5
Ri ght-turnC27.4C28.4C27.5
Overa l l Approa chC29.8C30.9C32.3
B15.7B17.4C28.9
EBLeft-turnC20.4C23.2D39.2
ThroughA3.4A3.7A6.8
Overa l l Approa chA8.8A10.0B16.5
WBThrough/Ri ght-turnB16.3B18.4D38.6
Overa l l Approa chB16.3B18.4D38.6
NBLeft-turnC32.5C34.4C34.6
Through/Ri ght-turnC27.6C28.6C29.2
Overa l l Approa chC29.0C30.3C30.8
B17.8B19.3C29.0
IntersectionStreetApproachLane Group
2020 Build
LOS
Delay
(sec/veh)LOS
Delay
(sec/veh)LOS
Delay
(sec/veh)
2015 Existing
Cori nth Rd (CR 28) &
Bi g Ba y Rd
Cori nth Rd (Rte 28)
Bi g Ba y Rd
Overall Intersection
2020 No-Build
Cori nth Rd (CR 28) &
Exi t 18-SB Ra mps
Cori nth Rd (Rte 28)
Exi t 18-SB Off Ra mp
Overall Intersection
Ma i n St (CR 28) &
Exi t 18-NB Ra mps
Ma i n St (Rte 28)
Exi t 18-NB Off Ra mp
Overall Intersection

Exit 18 Rezone Study – Queensbury, NY Page 33

Table 9: Level of Service Summary – PM Peak Hour (continued)

EBLeft-turnB19.1C21.6F325.4
Through/Ri ght-turnB11.3B11.3F183.6
Overa l l Approa chB12.2B12.6F199.8
WBLeft-turnB13.4B14.0F377.3
Through/Ri ght-turnC23.5C24.1F210.3
Overa l l Approa chC23.2C23.8F250.7
NBLeft-turn/Through/Ri ght-turnF216.0F278.5F319.6
Overa l l Approa chF216.0F278.5F319.6
SBLeft-turnC32.5D35.2C29.7
Through/Ri ght-turnC31.1C33.3B17.5
Overa l l Approa chC31.2C33.5B18.1
C26.3C29.3F222.9
EBLeft-turnB12.3B13.9C20.9
Through/Ri ght-turnB14.5B16.9B13.4
Overa l l Approa chB14.3B16.7B13.9
WBLeft-turnC20.2C22.6C31.7
Through/Ri ght-turnB17.6B19.9B19.5
Overa l l Approa chB17.6B19.9B19.5
NBLeft-turn/Through/Ri ght-turnC30.3C30.2E56.3
Overa l l Approa chC30.3C30.2E56.3
SBLeft-turn/Through/Ri ght-turnC29.5C29.6E55.7
Overa l l Approa chC29.5C29.6E55.7
B16.1B18.4B17.2
EBLeft-turnB11.8B12.0A5.7
Through/Ri ght-turnC32.1D38.9B13.2
Overa l l Approa chC31.6D38.1B12.9
WBLeft-turnB14.4B15.6A8.9
Through/Ri ght-turnB19.1C22.2A9.5
Overa l l Approa chB19.0C22.1A9.5
NBLeft-turn/Through/Ri ght-turnB18.9B19.6D36.5
Overa l l Approa chB18.9B19.6D36.5
SBLeft-turn/Through/Ri ght-turnB17.6B18.1C32.7
Overa l l Approa chB17.6B18.1C32.7
C25.6C30.3B13.0
Lane Group
2015 Existing 2020 No-Build2020 Build
LOS
Delay
(sec/veh)LOS
Delay
(sec/veh)LOS
Delay
(sec/veh)
Pi ne St
Overall Intersection
IntersectionStreetApproach
Ma i n St (CR 28) &
Ri cha rds on St
Ma i n St (Rte 28)
Ri cha rds on St
Overall Intersection
Ma i n St (CR 28) &
Bi g Boom Rd/Medi a Dr
Ma i n St (Rte 28)
Overall Intersection
Bi g Boom Rd
Medi a Dr
Ma i n St (CR 28) &
Pi ne St
Ma i n St (Rte 28)

Exit 18 Rezone Study – Queensbury, NY Page 34

7.0 QUEUE ANALYSIS

Vehicle queue conditions are a factor in the quality of performance of the transportation system, where
queues extend beyond the storage lengths of the turn lanes or where queues extend to the adjacent
upstream intersection. In both these cases, the queue spillback can affect traffic mobility by impairing
access to adjacent travel lanes. The queue analysis is presented in Table 10 for the AM peak hour and in
Table 11 for the PM peak hour. These tables show the 50th percentile and 95th percentile queue lengths
for each peak hour. The 95th percentile queue is defined to be the queue length that has only a 5-percent
probability of being exceeded during the analysis time period. It is typically used in design to identify the
appropriate length of turn-lanes, but it is not typical of what an average driver would experience. The 50th
percentile queue length is a better characterization of the driver experiences. Queues that exceed the
lane storage capacity are highlighted in red.

As shown in these tables, the 95th percentile queue nominally exceeds the available storage at the
following locations in the 2015 existing condition:

I-87 Exit 18 NB Ramps: NB left-turn (PM peak hour)
EB through (AM peak hour)
WB through (PM peak hour)
Big Boom Road/Media Drive: EB through (AM and PM peak hour)

These queue conditions will periodically impede progression of traffic through these two intersections
during the peak hours, adding to vehicle delay which is not reflected in the level of service analysis
discussed in Section 6.0. It is noted that while the NB ramp approach to Main Street is shown to exceed
the formally designated storage lane capacity, the queue is contained within the length of the ramp. The
50th percentile peak hour queues are shorter than the available storage capacity at the locations noted
above. This indicates that the queue-related congestion that does occur at these intersections is of
relatively short duration within the peak hours and does not significantly affect corridor mobility.

The analysis of future No-Build conditions shows that the 95th percentile queue will exceed the available
storage at the following additional locations:

I-87 Exit 18 SB Ramps: WB left-turn (PM peak hour)
Pine Street: EB through (AM peak hour)

The 50th percentile queue conditions in the 2020 No-Build condition are shorter than the available storage
capacity, indicating that the queue-related congestion will continue to be contained to short durations
within the peak hours and that these conditions will not significantly affect mobility in the corridor.

The analysis of the 2020 Build condition shows that the queue demand at these intersections will increase
substantially as a result of the projected development within the CI-18 zone. These changes are consistent
with the changes in level of service noted in Section 6.0. Consideration of mitigation improvements are
discussed in Section 8.0.

Exit 18 Rezone Study – Queensbury, NY Page 35

Table 10: Queue Summary – AM Peak Hour

EBLeft-turn1001236
Through/Ri ght-turn800-173568193617353730
WBLeft-turn247945104783222
Through650-2611029118
Through/Ri ght-turn650-229462
NBLeft-turn/Ri ght-turn200-13621465
Left-turn/Through/Ri ght-turn200-30100
SBLeft-turn/Through/Ri ght-turn200-40109
EBThrough650-121218146233232331
Ri ght-turn235046048057
WBLeft-turn330102253140308216337
Through330-44725279100136
SBLeft-turn/Through400-109188123198151240
Ri ght-turn260053055065
EBLeft-turn3305315983186147241
Through330-8446095494486665
WBThrough/Ri ght-turn315-158284196309289415
NBLeft-turn1607914492155145232
Through/Ri ght-turn20004306750147
EBLeft-turn1151686189194254
Through/Ri ght-turn325-6038368413427570
WBLeft-turn10031441439101
Through/Ri ght-turn1100-215686247757542873
Bi g Boom RdNBLeft-turn/Through/Ri ght-turn500-20722479227450
SBLeft-turn100726827926
Through/Ri ght-turn500-35735863139
EBLeft-turn150133134134
Through/Ri ght-turn1100-132109714811631691239
WBLeft-turn50040404
Through/Ri ght-turn1100-7379180846105993
NBLeft-turn/Through/Ri ght-turn500214214214
SBLeft-turn/Through/Ri ght-turn500332334335
EBLeft-turn50282918
Through/Ri ght-turn1100-302688335741232819
WBLeft-turn65020202
Through/Ri ght-turn775-146322159350127425
NBLeft-turn/Through/Ri ght-turn500-3386359152117
SBLeft-turn/Through/Ri ght-turn500-144615482059
Ma i n St (CR 28) &
Pi ne St
Ma i n St (Rte 28)
Pi ne St
Ma i n St (CR 28) &
Ri cha rds on St
Ma i n St (Rte 28)
Ri cha rds on St
Ma i n St (CR 28) &
Exi t 18-NB Ra mps
Ma i n St (Rte 28)
Exi t 18-NB Off Ra mp
Ma i n St (CR 28) &
Bi g Boom Rd/Medi a Dr
Ma i n St (Rte 28)
Medi a Dr
Cori nth Rd (CR 28) &
Bi g Ba y Rd
Cori nth Rd (Rte 28)
Bi g Ba y Rd
Cori nth Rd (CR 28) &
Exi t 18-SB Ra mps
Cori nth Rd (Rte 28)
Exi t 18-SB Off Ra mp
2020 Build
50th95th50th95th50th95th
2020 No-Build
IntersectionStreetApproachLane Group
2015 Existing
Link Distance
(ft)
Turn Bay
Length (ft)

Exit 18 Rezone Study – Queensbury, NY Page 36

Table 11: Queue Summary – PM Peak Hour

EBLeft-turn1001540
Through/Ri ght-turn800-103307117355365655
WBLeft-turn24783984178154
Through650-3815443167
Through/Ri ght-turn650-383686
NBLeft-turn/Ri ght-turn200-10611265
Left-turn/Through/Ri ght-turn200-132268
SBLeft-turn/Through/Ri ght-turn200-142329
EBThrough650-99174119190237395
Ri ght-turn235039041058
WBLeft-turn330117290165357301*
Through330-558863948199
SBLeft-turn/Through400-98173111182134214
Ri ght-turn2600570591681
EBLeft-turn3304714882177159251
Through330-7511884122109594
WBThrough/Ri ght-turn315-182322225347342566
NBLeft-turn160103181119193127205
Through/Ri ght-turn200000755143
EBLeft-turn11514651669160314
Through/Ri ght-turn325-6232671356778920
WBLeft-turn100518519277458
Through/Ri ght-turn1100-2277262598029211174
Bi g Boom RdNBLeft-turn/Through/Ri ght-turn500-331204213611801441
SBLeft-turn100625726719
Through/Ri ght-turn500-564667127196
EBLeft-turn150049052651
Through/Ri ght-turn1100-0983010471951474
WBLeft-turn50040403
Through/Ri ght-turn1100-79853869062941209
NBLeft-turn/Through/Ri ght-turn500112112117
SBLeft-turn/Through/Ri ght-turn500328329748
EBLeft-turn50413413316
Through/Ri ght-turn1100-255604283657219882
WBLeft-turn65151515
Through/Ri ght-turn775-175427189467137630
NBLeft-turn/Through/Ri ght-turn500-215922613580
SBLeft-turn/Through/Ri ght-turn500-7318321140
* queue is metered by upstream signal
Ma i n St (CR 28) &
Ri cha rds on St
Ma i n St (Rte 28)
Ri cha rds on St
Ma i n St (CR 28) &
Bi g Boom Rd/Medi a Dr
Ma i n St (Rte 28)
Medi a Dr
Ma i n St (CR 28) &
Pi ne St
Ma i n St (Rte 28)
Pi ne St
Cori nth Rd (CR 28) &
Exi t 18-SB Ra mps
Cori nth Rd (Rte 28)
Exi t 18-SB Off Ra mp
Ma i n St (CR 28) &
Exi t 18-NB Ra mps
Ma i n St (Rte 28)
Exi t 18-NB Off Ra mp
2020 Build
50th95th50th95th50th95th
2015 Existing
Cori nth Rd (CR 28) &
Bi g Ba y Rd
Cori nth Rd (Rte 28)
Bi g Ba y Rd
2020 No-Build
IntersectionStreetApproachLane Group
Link Distance
(ft)
Turn Bay
Length (ft)

Exit 18 Rezone Study – Queensbury, NY Page 37

8.0 MITIGATION IMPROVEMENTS

The capacity and queue analyses of the 2020 Build condition shows that the CI-18 zone development will
require new transportation system improvements at the following locations to support the projected
traffic demand:

Big Bay Road/Corinth Road intersection
Big Boom Road/Media Drive/Main Street intersection
I-87 Exit 18 NB Ramp/Main Street intersection

Big Bay Road/Corinth Road Intersection

The improvements at this intersection are primarily associated with providing access to the Parcel A
development in the northwest quadrant of the CI-18 zone. The recommended access configuration is to
provide one lane for traffic entering the parcel and two lanes for exiting traffic. An eastbound left-turn
lane on Corinth Road is also recommended.

The additional geometric improvement to address the cumulative development of Parcels A, C and D is to
provide a separate right-turn lane on the northbound approach of Big Bay Road. Traffic signal
improvements and/or replacement will also be required to accommodate the new geometry and signal
phasing. Other improvements may also be needed at the intersection to address sidewalk, drainage and
other ancillary roadway features that may be impacted by the design of the roadway improvements.
Figure 12 shows a concept of these improvements.

Exit 18 Rezone Study – Queensbury, NY Page 38

Figure 12: Intersection Improvements – Big Bay Road & Corinth Road

Big Boom Road/Media Drive/Main Street intersection
The following geometric improvements have been identified for this intersection:

Big Boom Road northbound approach: Provide two left-turn lanes
Provide a separate right-turn lane
Maintain a single through lane

Media Drive southbound approach: Provide a median to align lanes with northbound approach
Provide a separate right-turn lane
Maintain a single through lane

Main Street westbound approach: Provide an additional westbound travel lane
Extend length of the left-turn lane

Exit 18 Rezone Study – Queensbury, NY Page 39

Figure 13 depicts these geometric improvements. The traffic signal equipment at this intersection will also
need to be replaced to accommodate these geometric changes and the attendant changes to signal
phasing. Other ancillary improvements will also be needed to relocate existing sidewalks, drainage and
other roadway features to accommodate the widening needed for these roadway improvements. It is
noted that the southbound left-turn movement will operate at LOS F in this condition because of the long
cycle length; however, this involves a low volume of traffic and is not considered to be an unacceptable
operating condition in this context.

I-87 Exit 18 NB Ramps/Main Street Intersection
The following geometric improvements have been identified for this intersection:

Main Street westbound approach: Provide two through lanes for entire connecting link between
this intersection and Media Drive
Provide a separate right-turn lane

These geometric improvements are also depicted on Figure 13. The traffic signal equipment at this
intersection will also need to be modified/replaced to accommodate these geometric changes and the
attendant changes to signal phasing. Other ancillary improvements will also be needed to relocate existing
sidewalks, drainage and other roadway features to accommodate the widening needed for these roadway
improvements.

Table 12 summarizes the results of the capacity analysis for the 2020 Build Condition with this mitigation
improvements.

The extent of improvements required to accommodate the projected development scenario under the CI-
18 zoning is significant in the area of the Big Boom Road/Media Drive/Main Street area, including potential
impact to the West Glens Falls Cemetery located along the north side of Main Street east of Media Drive.
Because of these impacts, a sensitivity analysis was conducted to identify a threshold of development in
the CI-18 zone that could be supported with a smaller package of mitigation improvements, which is
discussed in Section 9.0.

Exit 18 Rezone Study – Queensbury, NY Page 40

Figure 13: Intersection Improvements – Big Boom Road/Media Drive/Main Street

Exit 18 Rezone Study – Queensbury, NY Page 41

Table 12: LOS Summary Build with Improvements

EBLeft-turnA6.0A8.7
Through/Ri ght-turnB19.2C22.6
Overa l l Approa chB18.4C21.8
WBLeft-turnC20.5B13.2
Through/Ri ght-turnA6.1B10.5
Overa l l Approa chB10.4B11.1
NBLeft-turn/ThroughC33.3C23.0
Ri ght-turnC24.6B17.2
Overa l l Approa chC26.6B18.7
SBLeft-turnC34.9C31.6
Through/Ri ght-turnC30.7C20.6
Overa l l Approa chC33.9C28.6
B17.0B17.9
EBThroughC28.7D37.2
Ri ght-turnB20.0C21.6
Overa l l Approa chC26.5C33.5
WBLeft-turnC20.6D50.3
ThroughA7.0A6.7
Overa l l Approa chB12.8C27.2
SBLeft-turn/ThroughC34.1D37.5
Ri ght-turnC26.5C27.4
Overa l l Approa chC30.1C32.3
C21.9C30.6
EBLeft-turnB10.8C28.9
ThroughA2.4A2.0
Overa l l Approa chA4.8B10.1
WBThrough/Ri ght-turnC20.7C22.9
Ri ght-turnB16.5B16.7
Overa l l Approa chB19.7C21.3
NBLeft-turnC34.2C34.6
Through/Ri ght-turnC29.4C29.2
Overa l l Approa chC30.8C30.8
B17.6B19.9
PM Peak Hour
LOS
Delay
(sec/veh)
Ma i n St (CR 28) &
Exi t 18-NB Ra mps
Ma i n St (Rte 28)
Exi t 18-NB Off Ra mp
Overall Intersection
Exi t 18-SB Off Ra mp
Overall Intersection
Cori nth Rd (Rte 28)
Cori nth Rd (CR 28) &
Exi t 18-SB Ra mps
Cori nth Rd (Rte 28)
Cori nth Rd (CR 28) &
Bi g Ba y Rd
Overall Intersection
IntersectionStreetApproachLane Group
AM Peak Hour
LOS
Delay
(sec/veh)

Exit 18 Rezone Study – Queensbury, NY Page 42

Table 12: LOS Summary Build with Improvements (continued)

EBLeft-turnB12.1B16.0
Through/Ri ght-turnC28.0D39.4
Overa l l Approa chC25.9D36.8
WBLeft-turnB14.9D51.4
Through/Ri ght-turnB19.5C22.8
Overa l l Approa chB18.9C29.7
NBLeft-turnC29.0E65.5
ThroughC21.3C28.2
Ri ght-turnB17.3C20.2
Overa l l Approa chC23.9D45.6
SBLeft-turnF93.0D50.4
ThroughC28.6D39.1
Ri ght-turnC24.5C33.8
Overa l l Approa chC29.5D36.3
C23.9D36.9
EBLeft-turnB14.9C21.3
Through/Ri ght-turnB17.3B18.2
Overa l l Approa chB17.2B18.4
WBLeft-turnC28.8C33.6
Through/Ri ght-turnB15.0C22.2
Overa l l Approa chB15.0C22.2
NBLeft-turn/Through/Ri ght-turnD46.1D43.7
Overa l l Approa chD46.1D43.7
SBLeft-turn/Through/Ri ght-turnD42.2D41.6
Overa l l Approa chD42.2D41.6
B17.1C20.6
EBLeft-turnA6.3A5.7
Through/Ri ght-turnB16.7B13.2
Overa l l Approa chB16.6B12.9
WBLeft-turnB10.3A8.9
Through/Ri ght-turnA9.5A9.5
Overa l l Approa chA9.5A9.5
NBLeft-turn/Through/Ri ght-turnD35.5D36.5
Overa l l Approa chD35.5D36.5
SBLeft-turn/Through/Ri ght-turnC29.5C32.7
Overa l l Approa chC29.5C32.7
B15.9B13.0
AM Peak Hour
LOS
Delay
(sec/veh)
PM Peak Hour
LOS
Delay
(sec/veh)
Overall Intersection
Ma i n St (CR 28) &
Bi g Boom Rd/Medi a Dr
Ma i n St (Rte 28)
Medi a Dr
IntersectionStreetApproachLane Group
Ma i n St (CR 28) &
Ri cha rds on St
Ma i n St (Rte 28)
Ri cha rds on St
Overall Intersection
Ma i n St (CR 28) &
Pi ne St
Ma i n St (Rte 28)
Pi ne St
Overall Intersection

Exit 18 Rezone Study – Queensbury, NY Page 43

9.0 SENSITIVITY ANALYSIS

A sensitivity analysis was conducted to identify the threshold of reduced development in the CI-18 zone
that would not require the extent of improvements that were identified for the development based on
the proposed rezoning. In particular, the focus of this sensitivity analysis considered a reduced retail
development scenario for parcels L and M. Based on the proposed zoning and the size of these parcels,
it is estimated that 180,000 sq. ft. could be
physically built on these two parcels
(combined). The process used for this
sensitivity analysis was to conduct capacity
analysis of iteratively-reduced trip
generation of these two parcels to identify
the amount of traffic that could be
supported by the following set of
improvements, and then to correlate that
level of traffic to the size of development:

Big Bay Road/Corinth Road intersection
Same as recommended for Full-Build scenario
(see Section 8.0)

Big Boom Road/Media Drive intersection
• Northbound: Provide a separate left-turn
lane
• Southbound: Convert the lane designations
o from separate left-turn lane and shared
through/right-turn lane
o to shared left-turn/through lane and
separate right-turn lane
• Eastbound: no changes from existing
• Westbound: no changes from existing

The improvement concept for the Big
Boom Road/Media Drive/Main Street
intersection is shown on Figure 14. These
improvements will also require
modification/replacement of the traffic
signal at this intersection, and minor
relocation/modification of other ancillary
roadside elements such as sidewalks and
drainage. There are no other
improvements considered for the study
area for this reduced development
scenario.

Figure 14: Reduced Development Improvement Concept – Big Boom Road

Exit 18 Rezone Study – Queensbury, NY Page 44

The iterative capacity analysis identified that this improvement concept would support the traffic
generated by the CI-18 rezone development with a 40% reduction of the number of primary and pass-by
trips generated by parcels L and M. Because the traffic generation of retail uses is exponentially related
to the size of the building, this equates generally to a combined size of approximately 85,000 square feet
of retail building area on these properties.

The primary trips generated by each parcel within the CI-18 zone are shown in Table 13 for the original
Build scenario and for the Reduced Build scenario for comparison.

Table 13: Trip Generation Scenario Comparison

The capacity analysis of
the 2020 Reduced Build
scenario shows that the
overall level of service for
each study intersection
will be LOS C or better
during AM and PM peak
hours in the 2020
Reduced Build scenario.
Queue management will
continue to be a factor
that will contribute to
periodic short-term
congestion that is not
reflected by the LOS
analysis.

AM Peak HourPM Peak Hour
EnterExitTotalEnterExitTotalEnterExitTotalEnterExitTotal
A2007627620076276A137230367137230367
B——B——
C1652116521C343973343973
D97131109713110D2311113423111134
E151126151126E161430161430
F——F——
G241640241640G232144232144
H1521715217H3131631316
I1011110111I28102810
J57471045747104J53521055352105
K——K——
L7031101421961L183206389110124234
M602888351752M15817733594108202
Total564230794511207718Total63287115034957201215
Reduced Build ScenarioParcelOriginal Build ScenarioOriginal Build ScenarioParcelReduced Build Scenario

Exit 18 Rezone Study – Queensbury, NY Page 45

Table 14: LOS Summary – Reduced Build Scenario

EBLeft-turnA6.3B10.2
Through/Ri ght-turnB19.6C22.1
Overa l l Approa chB18.8C21.4
WBLeft-turnB18.7B10.8
Through/Ri ght-turnA7.6B14.5
Overa l l Approa chB10.9B13.7
NBLeft-turn/ThroughC33.4C25.3
Ri ght-turnC24.0B17.6
Overa l l Approa chC26.1B19.6
SBLeft-turnC35.0C34.7
Through/Ri ght-turnC30.8C22.7
Overa l l Approa chC34.1C31.5
B17.4B19.3
EBThroughC22.3C34.3
Ri ght-turnB16.4C21.6
Overa l l Approa chC20.8C31.2
WBLeft-turnD44.3C33.9
ThroughA4.8A2.5
Overa l l Approa chC21.8B17.5
SBLeft-turn/ThroughC27.6C34.3
Ri ght-turnC23.4C27.1
Overa l l Approa chC25.4C30.4
C22.1C25.3
EBLeft-turnC21.9C33.7
ThroughA5.6A5.8
Overa l l Approa chB10.3B14.6
WBThrough/Ri ght-turnC28.9C34.0
Overa l l Approa chC28.9C34.0
NBLeft-turnC28.4C34.9
Through/Ri ght-turnC24.7C28.4
Overa l l Approa chC25.8C30.4
C21.5C26.3
Ma i n St (CR 28) &
Exi t 18-NB Ra mps
Ma i n St (Rte 28)
Exi t 18-NB Off Ra mp
Overall Intersection
Cori nth Rd (CR 28) &
Bi g Ba y Rd
Cori nth Rd (Rte 28)
Overall Intersection
Cori nth Rd (CR 28) &
Exi t 18-SB Ra mps
Cori nth Rd (Rte 28)
Exi t 18-SB Off Ra mp
Overall Intersection
IntersectionStreetApproachLane Group
AM Peak HourPM Peak Hour
LOS
Delay
(sec/veh)LOS
Delay
(sec/veh)

Exit 18 Rezone Study – Queensbury, NY Page 46

Table 14: LOS Summary – Reduced Build Scenario (continued)

EBLeft-turnC22.0C28.4
Through/Ri ght-turnB18.1C25.7
Overa l l Approa chB18.6C26.0
WBLeft-turnB13.0B15.9
Through/Ri ght-turnC32.0D43.1
Overa l l Approa chC29.8D38.2
NBLeft-turnC33.2D42.2
Through/Ri ght-turnC30.5C20.6
Overa l l Approa chC31.9C31.6
SBLeft-turn/ThroughD47.5C31.3
Ri ght-turnD36.8C26.8
Overa l l Approa chD39.2C28.2
C25.4C30.8
EBLeft-turnB14.4B19.2
Through/Ri ght-turnB17.1B16.4
Overa l l Approa chB17.0B16.6
WBLeft-turnC28.0C30.5
Through/Ri ght-turnB14.1C20.3
Overa l l Approa chB14.1C20.3
NBLeft-turn/Through/Ri ght-turnD45.9D43.4
Overa l l Approa chD45.9D43.4
SBLeft-turn/Through/Ri ght-turnD42.0D41.3
Overa l l Approa chD42.0D41.3
B16.6B18.7
EBLeft-turnA6.1A5.4
Through/Ri ght-turnB16.3B12.0
Overa l l Approa chB16.2B11.8
WBLeft-turnA10.0A8.0
Through/Ri ght-turnA9.3A9.1
Overa l l Approa chA9.3A9.1
NBLeft-turn/Through/Ri ght-turnC34.9D35.2
Overa l l Approa chC34.9D35.2
SBLeft-turn/Through/Ri ght-turnC29.4C31.9
Overa l l Approa chC29.4C31.9
B15.5B12.2
Ma i n St (CR 28) &
Ri cha rds on St
Ma i n St (Rte 28)
Ri cha rds on St
Overall Intersection
Ma i n St (CR 28) &
Bi g Boom Rd/Medi a Dr
Ma i n St (Rte 28)
Medi a Dr
Overall Intersection
Ma i n St (CR 28) &
Pi ne St
Ma i n St (Rte 28)
Pi ne St
Overall Intersection
AM Peak HourPM Peak Hour
LOS
Delay
(sec/veh)LOS
Delay
(sec/veh)IntersectionStreetApproachLane Group

Exit 18 Rezone Study – Queensbury, NY Page 47

10.0 PEDESTRIAN & BICYCLE CONSIDERATIONS

Although the documentation of existing conditions indicated relatively low pedestrian and bicycle activity
in the corridor during periods of peak vehicular traffic volumes, the infrastructure supporting these
transportation modes is vital for providing a sustainable multimodal corridor that is accessible to all users.
The development within the CI-18 zone is also anticipated and encouraged to create uses that foster
increased pedestrian and bicycle activity within the zone.

The impact of development within the CI-18 zone on the public transportation accommodations for
pedestrian and bike activity were considered in the context of these factors:

 Impact of expanded roadway infrastructure on mobility and safety for pedestrians and bicyclists
 Connectivity for active transportation users generated by new development within the zone to
existing pedestrian and bicycle facilities and destinations in the area.

Impact of expanded roadway infrastructure
Section 8.0 – Mitigation Improvements described the roadway improvements identified to provide the
additional capacity to accommodate the vehicular traffic generated by the projected Build condition. At
the intersection of Corinth Road and Big Bay Road, these capacity enhancements are primarily associated
with providing access to the development site at the northwest quadrant of Corinth Road and I-87
Interchange 18 (Parcel A). The extent of these improvements are relatively modest and do not
substantially change the character of the intersection. These improvements will not significantly increase
the walking distance for pedestrians to cross Corinth Road. While the construction of the access to Parcel
A will create a new point of interaction of pedestrians/bicyclists with turning vehicular traffic, this
interaction will be typical of other intersections in the corridor, and is not anticipated to have a significant
impact to pedestrian/bicycle mobility or safety. Pedestrian signals should be provided for the crossing of
the new Parcel A driveway as part of the signal improvements to accommodate this new access.

The vehicular capacity improvements identified at the Main Street/Big Boom Road/Media Drive
intersection to accommodate the projected Build condition include the addition of multiple turn lanes
and an additional through lane on Main Street (westbound). The large size of the intersection created by
these improvements will increase the time required for pedestrians and bicyclists to cross the
intersection. This added crossing distance, along with the added complexities of driver operations also
increases safety risk for pedestrians and bicyclists crossing at the intersection and interacting with turning
traffic from multiple lanes. This is not to say that the larger intersection would be unsafe for pedestrians
and bicyclists, but it would change the character and complexity of navigation by these users. The more
complex signal phasing associated with the geometry of this intersection would also increase the delay
time for pedestrians waiting to cross the street.

The Reduced Build scenario for development within the CI-18 zone correspondingly reduces the extent of
improvements for the Main Street/Big Boom Road/Media Drive intersection. In this scenario, the
improvements consist of widening to provide a new left-turn lane on Big Boom Road (northbound). The
southbound approach of Media Drive may also need to be widened (as shown on Figure 14 in Section 9.0)
to properly align the northbound and southbound travel lanes, but the extent of this widening would be
subject to detailed design. In any case, these improvements would add about 12-14 feet of additional
crossing distance. The distance to cross Main Street would be the same as existing. This geometry is much

Exit 18 Rezone Study – Queensbury, NY Page 48

less complex than for the full Build scenario and is consistent with typical crossing situations on urban
arterials.

Connectivity
The increased pedestrian and bicycle activity generated by the new development within the CI-18 District
will create new demand for infrastructure to support their mobility and access. The proposed zoning is
designed to provide on-site amenities to support pedestrian and bicycle accommodation. Consideration
should also be given in the site planning processes to provide for active transportation connections
between parcels and to create spaces for public gathering.

A stated goal of the proposed CI-18 zone is to provide pedestrian connectivity to the Main Street District.
Sidewalks and bicycle accommodations should also be provided along Big Boom Road and Big Bay Road
through the CI-18 zone to connect the active transportation infrastructure at each site to the existing
pedestrian and bike facilities along Corinth Road and Main Street. These accommodations along Big Boom
Road would also facilitate bike connection to the Hudson River waterfront recreation area at the end of
Big Boom Road.

11.0 ZONING CONSIDERATIONS

The Town’s proposed CI-18 zoning was reviewed to identify recommended modifications to meet the
objectives of the zone and to maintain transportation mobility along the Corinth Road/Main Street
corridor. This essentially involved considerations to reduce the density for larger retail uses within the
zone. To achieve this result, it is recommended that a density requirement be incorporated into § 179-3-
040, Section 8.B(b), as follows:

[12] Density Requirements CI-18

(a) Buildings, or portions thereof, that are located greater than 400 feet from the centerline of County
Route 28 (Corinth Road/Main Street), shall be limited in size to conform with the following maximum
development densities, based on the parcel’s area greater than 400 feet from the centerline of Corinth
Road:

• Retail (LUC 820): 4,000 square feet gross floor area per acre
• Fast Food/Convenience/Gas (LUC 934): 500 square feet gross floor area per acre
• Restaurant (LUC 932): 1,000 square feet gross floor area per acre
• General Office (LUC 710): 8,000 square feet gross floor area per acre
• Hotel (LUC 310): 20 rooms/acre

Land uses not listed above shall have a density limitation based on the most applicable ITE Land Use Code
as equated to General Office (LUC 710).

Other recommended changes to the zoning code for the CI-18 district are as follows:

Exit 18 Rezone Study – Queensbury, NY Page 49

 Remove ‘Enclosed Shopping Center’ as an allowed use within the zone (Town of Queensbury Table 3,
Summary of Allowed Uses on Commercial Districts).
 Recommend that parcels adjacent to residential uses be required to have a minimum 50’ side yard
and rear yard setback with 25’ vegetated buffer.
 § 179-7-050. (A) Design Districts: remove reference to ‘large retail’ and replace with “supporting
retail”.

The Town is also considering options to establish Special Use Permit criteria for the CI-18 District, and to
establish certain uses as requiring a Special Use Permit. These requirements include provisions for
additional traffic impact analysis, requirements for consistency with the findings and recommendations
of this Exit 18 Rezone Study, and provision for the Town to utilize a Developer’s Agreement to memorialize
the conditions of approval.

12.0 IMPLEMENTATION STRATEGIES

The recent Corinth Road/Main Street reconstruction project was a publicly financed project (80% Federal,
15% State and 5% County financing) which increased capacity in the corridor through geometric
enhancements, multimodal accommodations and improved traffic system management technologies. The
planning and design of these improvements included considerations for future growth of travel in the
corridor associated with general socio-economic conditions in the region and with new development. The
analysis of traffic operations shows that current and future No-Build levels of service in the corridor are
comparable to or better than the level of service objectives established for the design of the
reconstruction project.

The preceding analyses of the traffic impacts associated with development potential in the proposed CI-
18 zone show that additional improvements will be required to the transportation system to
accommodate the additional traffic generated by that development. Some of these improvements are
directly related to providing site access to Parcel A. These improvements involve the construction of the
site access road opposite Big Bay Road, construction of an eastbound left-turn lane (for traffic entering
the site), modification/replacement of signal equipment, and other ancillary reconstruction/relocation of
roadway elements (sidewalk, drainage) as may be affected by the design detail for providing the site
access. These improvements are considered to be the responsible of that developer to fund and
implement.

The other identified transportation improvements have similar correlation to specific groups of parcels.
In identifying strategies to fund these improvements, the costs for these improvements are considered to
be private-sector funded in light of the recent public investment in the corridor, considering the limited
scope of additional improvements that are required, and the nexus of these improvements to specific
groups of parcels in the zone.

The Generic Environmental Impact Statement (GEIS) process is the broadest and most comprehensive
approach to provide a mechanism to fund the improvements and to equitably distribute these costs to all
involved parties. The GEIS process also allows the community to look at the cumulative impacts of a
variety of environmental and community issues in addition to transportation. The GEIS process is most

Exit 18 Rezone Study – Queensbury, NY Page 50

effective when it is used to study the implications of development over large land areas and where there
are issues of public/private cost-sharing for the mitigation improvements. For example, the Town of
Halfmoon’s (Saratoga County) GEIS for the northern part of the Town encompassed almost 9,000 acres,
and the Town of Colonie (Albany County) has prepared GEIS’s for three areas of the Town totaling 15,000
acres. The larger the study area the more equitable and effective the process is in terms of the allocation
of mitigation costs and the Town’s administration of the program. The timeframe to complete the GEIS
process and to implement a mitigation fee structure can take several years depending on the size of the
study area and the complexity of issues. For the CI-18 rezone area it is expected that the process would
take 9-12 months. There would also be an on-going commitment of Town resources to manage the
mitigation fee program through the full development of the CI-18 zone.

The use of the GEIS process does not guarantee that the necessary funds will be available at the time that
specific transportation improvements are needed. In these cases, or in cases where the required
improvement is greater than a developers calculated share, the Town would need to either front the
difference and be reimbursed by future mitigation fees or to negotiate with that developer to fund the
improvement so the project can move ahead, with later reimbursement of the difference to the developer
once funds are collected from other projects in the GEIS study. The risk associated with this issue is that
there is no guarantee of the timeline for recovery of these up-fronted costs (either to the Town or the
developer) because that is tied to the pace and types of development that occurs.

The GEIS may not be a cost-effective or efficient mechanism to fund the transportation improvements for
the CI-18 Rezone area because of the following considerations:

 The relatively small size of the study area (65 acres).
 The mitigation improvements identified to address the transportation impacts are
focused on two locations in the corridor.
 The mitigation improvements are primarily associated with providing site access.
 There is no expected public participation requirement in the funding of the
improvements.

Other broadly-based funding mechanisms like Tax Increment Financing (TIF) or Transportation
Improvement Districts/Transportation Development Districts (TID/TDD) are similarly not considered to be
applicable or feasible for the CI-18 rezone area due to the relatively small size of the zone and the limited
transportation improvements required. These types of funding strategies are also more commonly used
to stimulate investment for redevelopment in economically depressed areas.

In a traditional Direct Landowner Negotiation, each development undergoes a separate SEQR review as
the project is submitted. If the project results in the need for the improvement, the developer can either
pay for the improvement to address the identified impact or not receive the required approval. The
advantage of this approach is that it is the simplest to administer by the Town; however the disadvantage
is that there is not a formal mechanism to distribute the mitigation improvement costs to the involved
developers. This typically leads to a scenario where either the first or last development finances a
disproportionate share of the transportation mitigation cost relative to the traffic generated by their
project. One way to address this would be for the Town to facilitate collective negotiations with the
developers/property owners in the zone to establish a funding agreement. This strategy is most effective
if the involved owners are actively pursuing a development approval/action. If this approach is not

Exit 18 Rezone Study – Queensbury, NY Page 51

successful or feasible due to local circumstances, then the recommended approach would be to engage
the GEIS process.

13.0 CONCLUSION

The Exit 18 Rezone Study was prepared to identify the transportation impacts associated with the Town’s
proposal to rezone a 65-acre +/- area around I-87 Interchange 18 to a Commercial Intensive Exit 18 (CI-
18) District to provide for flexible development opportunities on key sites, creating economic
development while encouraging the overall improvement and appearance of these areas, including
attractive building designs and enhanced pedestrian access.

This technical study involved an inventory of existing transportation and land use conditions, and
environmental constraints; projections of future land use and transportation conditions; assessment of
transportation impacts mitigation strategies; and, a review of potential funding and implementation
strategies.

The study considered the transportation impacts associated with the projected CI-18 zone development
Build scenario and a Reduced Build scenario. The Reduced Build scenario was established from a
sensitivity analysis considering reduced retail development along Big Boom Road.

Build Scenario Improvements
The study identified that the following transportation system improvements to support the projected
traffic demand of CI-18 zone development in the Build scenario:

Big Bay Road/Corinth Road Intersection
Parcel A southbound approach: Provide new site access opposite Big Bay Road with two lanes for
existing traffic
Big Bay Road northbound approach: Provide a separate right-turn lane
Corinth Road eastbound approach: Provide a separate left-turn lane

Modify/replace the traffic signal equipment to accommodate new geometry and signal phasing
Modify/replace other ancillary roadway features as necessary to accommodate the new lane geometry

Big Boom Road/Media Drive/Main Street intersection
Big Boom Road northbound approach: Provide two left-turn lanes
Provide a separate right-turn lane
Maintain a single through lane

Media Drive southbound approach: Provide a median to align lanes with northbound approach
Provide a separate right-turn lane
Maintain a single through lane

Main Street westbound approach: Provide an additional westbound travel lane
Extend length of the left-turn lane

Exit 18 Rezone Study – Queensbury, NY Page 52

Modify/replace the traffic signal equipment to accommodate new geometry and signal phasing
Modify/replace other ancillary roadway features as necessary to accommodate the new lane geometry

I-87 Exit 18 NB Ramps/Main Street Intersection
Main Street westbound approach: Provide two through lanes for entire connecting link between this
intersection and Media Drive
Provide a separate right-turn lane

Modify/replace the traffic signal equipment to accommodate new geometry and signal phasing
Modify/replace other ancillary roadway features as necessary to accommodate the new lane geometry

Reduced Build Scenario Improvements
The study identified that the following transportation system improvements to support the projected
traffic demand of CI-18 zone development in the Reduced Build scenario:

Big Bay Road/Corinth Road Intersection
Same improvements as identified for the Build scenario

Big Boom Road/Media Drive/Main Street intersection
Big Boom Road northbound approach: Provide one separate left-turn lane
Maintain a single through/right-turn lane

Media Drive southbound approach: Convert lane-use designations
From – separate left-turn lane & shared through/right-turn lane
To- shared left-turn/through lane and separate right-turn lane

Main Street westbound approach: No changes from existing
Main Street eastbound approach: No changes from existing

Modify/replace the traffic signal equipment to accommodate new geometry and signal phasing
Modify/replace other ancillary roadway features as necessary to accommodate the new lane geometry

The increased pedestrian and bicycle activity generated by the new development within the CI-18 zone
will create new demand for infrastructure to support their mobility and access. Sidewalks and bicycle
accommodations are recommended to be provided along Big Boom Road and Big Bay Road through the
CI-18 zone to connect the active transportation infrastructure at each site to the existing pedestrian and
bike facilities along Corinth Road and Main Street.

The Town’s proposed CI-18 zoning was reviewed to identify recommended modifications to meet the
transportation and land use objectives of the zone for the Reduced Build scenario. The primary
recommendation from this review is to include a density requirement into § 179-3-040, Section 8.B(b) to
limit the size of development based on maximum densities for development that is located greater than
400 feet from the centerline of County Route 28 (Corinth Road/Main Street). The Town is also considering
options to establish Special Use Permit criteria for the CI-18 District, and to establish certain uses as
requiring a Special Use Permit. These requirements include provisions for additional traffic impact
analysis, requirements for consistency with the findings and recommendations of this Exit 18 Rezone

Exit 18 Rezone Study – Queensbury, NY Page 53

Study, and provision for the Town to utilize a Developer’s Agreement to memorialize the conditions of
approval.

The recent Corinth Road/Main Street reconstruction project was a publicly financed project which
increased capacity in the corridor through geometric enhancements, multimodal accommodations and
improved traffic system management technologies. In consideration of this public investment and the
types of improvements recommended to accommodate the future development with the CI-18 zone, the
costs for these improvements are considered to be a private-sector responsibility for funding.

To provide a means to equitably allocate the costs for funding these improvements, the Town could
facilitate collective negotiations with the developers/property owners in the zone to establish a funding
agreement. This strategy is most effective if the involved owners are actively pursuing a development
approval/action. If this approach is not successful or feasible due to local circumstances, then the
recommended approach would be to engage in a formal Generic Environmental Impact Statement (GEIS)
process.

Exit 18 Rezone Study – Queensbury, NY

Appendix A

Traffic Volume Data

File Name : Corinth-Big Bay AM
Site Code : 00000001
Start Date : 5/20/2015
Page No : 1Corinth Rd & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
Groups Printed- Passenger Cars – SU Trucks – MU Trucks
From North Corinth Rd
From East Big Bay Rd
From South Corinth Rd
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
07:00 AM 0 0 0 0 0 0 60 25 0 85 35 0 8 0 43 3 158 0 0 161 289
07:15 AM 0 0 0 0 0 0 72 35 0 107 46 0 11 0 57 4 156 0 0 160 324
07:30 AM 0 0 0 0 0 0 80 29 0 109 39 0 12 0 51 4 180 0 0 184 344
07:45 AM 0 0 0 0 0 0 97 35 0 132 28 0 7 0 35 5 172 0 0 177 344
Total 0 0 0 0 0 0 309 124 0 433 148 0 38 0 186 16 666 0 0 682 1301
08:00 AM 0 0 0 0 0 0 76 31 0 107 30 0 7 1 38 2 124 0 0 126 271
08:15 AM 0 0 0 0 0 0 73 30 0 103 50 0 10 0 60 4 125 0 0 129 292
08:30 AM 0 0 0 0 0 0 57 26 0 83 39 0 14 0 53 3 123 0 0 126 262
08:45 AM 0 0 0 0 0 0 74 23 0 97 27 0 8 0 35 3 132 0 0 135 267
Total 0 0 0 0 0 0 280 110 0 390 146 0 39 1 186 12 504 0 0 516 1092
Grand Total 0 0 0 0 0 0 589 234 0 823 294 0 77 1 372 28 1170 0 0 1198 2393
Apprch % 0 0 0 0 0 71.6 28.4 0 79 0 20.7 0.3 2.3 97.7 0 0
Total % 0 0 0 0 0 0 24.6 9.8 0 34.4 12.3 0 3.2 0 15.5 1.2 48.9 0 0 50.1
Passenger Cars 0 0 0 0 0 0 556 215 0 771 268 0 67 0 335 26 1132 0 0 1158 2264
% Passenger Cars 0 0 0 0 0 0 94.4 91.9 0 93.7 91.2 0 87 0 90.1 92.9 96.8 0 0 96.7 94.6
SU Trucks 0 0 0 0 0 0 15 14 0 29 19 0 5 1 25 2 24 0 0 26 80
% SU Trucks 0 0 0 0 0 0 2.5 6 0 3.5 6.5 0 6.5 100 6.7 7.1 2.1 0 0 2.2 3.3
MU Trucks 0 0 0 0 0 0 18 5 0 23 7 0 5 0 12 0 14 0 0 14 49
% MU Trucks 0 0 0 0 0 0 3.1 2.1 0 2.8 2.4 0 6.5 0 3.2 0 1.2 0 0 1.2 2CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Corinth-Big Bay AM
Site Code : 00000001
Start Date : 5/20/2015
Page No : 2Corinth Rd & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
Corinth Rd
Corinth Rd
Big Bay Rd Right 0
0
0
0
Thru 0
0
0
0
Left 0
0
0
0
Peds 0
0
0
0 InOut Total
0 0 0
0 0 0
0 0 0
0
0
0
Right
0 0 0 0
Thru556 15 18 589
Left215 14 5 234
Peds
0 0 0 0
Out
Total
In
1400
771
2171
43
29
72
21
23
44
1464
2287
823
Left
67
5
5
77 Thru
0
0
0
0 Right
268
19
7
294 Peds
0
1
0
1
Out TotalIn241 335 576
16 25 41
5 12 17
262 634 372
Left
0 0 0 0
Thru1132 24 14 1170
Right26 2 0 28
Peds
0 0 0 0
Total
Out
In
623
1158
1781
20
26
46
23
14
37
666
1864
1198 5/20/2015 07:00 AM
5/20/2015 08:45 AM

Passenger Cars
SU Trucks
MU Trucks NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Corinth-Big Bay AM
Site Code : 00000001
Start Date : 5/20/2015
Page No : 3Corinth Rd & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
From North Corinth Rd
From East Big Bay Rd
From South Corinth Rd
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
Peak Hour Analysis From 07:00 AM to 08:45 AM – Peak 1 of 1
Peak Hour for Entire Intersection Begins at 07:00 AM
07:00 AM 0 0 0 0 0 0 60 25 0 85 35 0 8 0 43 3 158 0 0 161 289
07:15 AM 0 0 0 0 0 0 72
35 0 107
46 0 11 0
57 4 156 0 0 160 324
07:30 AM 0 0 0 0 0 0 80 29 0 109 39 0
12 0 51 4
180 0 0
184 344
07:45 AM 0 0 0 0 0 0
97 35 0
132 28 0 7 0 35
5 172 0 0 177 344
Total Volume 0 0 0 0 0 0 309 124 0 433 148 0 38 0 186 16 666 0 0 682 1301
% App. Total 0 0 0 0 0 71.4 28.6 0 79.6 0 20.4 0 2.3 97.7 0 0
PHF .000 .000 .000 .000 .000 .000 .796 .886 .000 .820 .804 .000 .792 .000 .816 .800 .925 .000 .000 .927 .945
Passenger Cars 0 0 0 0 0 0 290 118 0 408 136 0 37 0 173 15 649 0 0 664 1245
% Passenger Cars 0 0 0 0 0 0 93.9 95.2 0 94.2 91.9 0 97.4 0 93.0 93.8 97.4 0 0 97.4 95.7
SU Trucks 0 0 0 0 0 0 8 3 0 11 12 0 0 0 12 1 12 0 0 13 36
% SU Trucks 0 0 0 0 0 0 2.6 2.4 0 2.5 8.1 0 0 0 6.5 6.3 1.8 0 0 1.9 2.8
MU Trucks 0 0 0 0 0 0 11 3 0 14 0 0 1 0 1 0 5 0 0 5 20
% MU Trucks 0 0 0 0 0 0 3.6 2.4 0 3.2 0 0 2.6 0 0.5 0 0.8 0 0 0.7 1.5CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Corinth-Big Bay AM
Site Code : 00000001
Start Date : 5/20/2015
Page No : 4Corinth Rd & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
Corinth Rd
Corinth Rd
Big Bay Rd Right 0
0
0
0
Thru 0
0
0
0
Left 0
0
0
0
Peds 0
0
0
0 InOut Total
0 0 0
0 0 0
0 0 0
0
0
0
Right
0 0 0 0
Thru290 8 11 309
Left118 3 3 124
Peds
0 0 0 0
Out
Total
In
785
408
1193
24
11
35
5
14
19
814
1247
433
Left
37
0
1
38 Thru
0
0
0
0 Right
136
12
0
148 Peds
0
0
0
0
Out TotalIn133 173 306
4 12 16
3 1 4
140 326 186
Left
0 0 0 0
Thru649 12 5 666
Right15 1 0 16
Peds
0 0 0 0
Total
Out
In
327
664
991
8
13
21
12
5
17
347
1029
682 Peak Hour Begins at 07:00 AM

Passenger Cars
SU Trucks
MU TrucksPeak Hour Data
NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Corinth-Big Bay AM
Site Code : 00000001
Start Date : 5/20/2015
Page No : 5Corinth Rd & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
From North Corinth Rd
From East Big Bay Rd
From South Corinth Rd
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
Peak Hour Analysis From 07:00 AM to 08:45 AM – Peak 1 of 1
Peak Hour for Each Approach Begins at:
07:00 AM 07:15 AM 07:00 AM 07:00 AM
+0 mins. 0 0 0 0 0 0 72
35 0 107 35 0 8 0 43 3 158 0 0 161
+15 mins. 0 0 0 0 0 0 80 29 0 109
46 0 11 0
57 4 156 0 0 160
+30 mins. 0 0 0 0 0 0
97 35 0
132 39 0
12 0 51 4
180 0 0
184
+45 mins. 0 0 0 0 0 0 76 31 0 107 28 0 7 0 35
5 172 0 0 177
Total Volume 0 0 0 0 0 0 325 130 0 455 148 0 38 0 186 16 666 0 0 682
% App. Total 0 0 0 0 0 71.4 28.6 0 79.6 0 20.4 0 2.3 97.7 0 0
PHF .000 .000 .000 .000 .000 .000 .838 .929 .000 .862 .804 .000 .792 .000 .816 .800 .925 .000 .000 .927
Passenger Cars 0 0 0 0 0 0 305 124 0 429 136 0 37 0 173 15 649 0 0 664
% Passenger Cars 0 0 0 0 0 0 93.8 95.4 0 94.3 91.9 0 97.4 0 93 93.8 97.4 0 0 97.4
SU Trucks 0 0 0 0 0 0 10 4 0 14 12 0 0 0 12 1 12 0 0 13
% SU Trucks 0 0 0 0 0 0 3.1 3.1 0 3.1 8.1 0 0 0 6.5 6.2 1.8 0 0 1.9
MU Trucks 0 0 0 0 0 0 10 2 0 12 0 0 1 0 1 0 5 0 0 5
% MU Trucks 0 0 0 0 0 0 3.1 1.5 0 2.6 0 0 2.6 0 0.5 0 0.8 0 0 0.7CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Corinth-Big Bay AM
Site Code : 00000001
Start Date : 5/20/2015
Page No : 6Corinth Rd & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
Corinth Rd
Corinth Rd
Big Bay Rd Right 0
0
0
0
Thru 0
0
0
0
Left 0
0
0
0
Peds 0
0
0
0 In – Peak Hour: 07:00 AM
0
0
0
0
Right
0 0 0 0
Thru305 10 10 325
Left124 4 2 130
Peds
0 0 0 0
In – Peak Hour: 07:15 AM
429 14 12 455
Left
37
0
1
38 Thru
0
0
0
0 Right
136
12
0
148 Peds
0
0
0
0
In – Peak Hour: 07:00 AM 173
12
1
186
Left
0 0 0 0
Thru649 12 5 666
Right15 1 0 16
Peds
0 0 0 0 In – Peak Hour: 07:00 AM
664 13 5 682 Passenger Cars
SU Trucks
MU TrucksPeak Hour Data
NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Corinth-Big Bay PM
Site Code : 00000002
Start Date : 5/20/2015
Page No : 1Corinth Road & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
Groups Printed- Passenger Cars – SU Trucks – MU Trucks
From North Corinth Road
From East Big Bay Road
From South Corinth Road
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
04:00 PM 0 0 0 0 0 0 107 24 0 131 34 0 12 0 46 6 95 0 0 101 278
04:15 PM 0 0 0 0 0 0 118 29 0 147 32 0 14 0 46 5 121 0 0 126 319
04:30 PM 0 0 0 0 0 0 101 28 0 129 35 0 9 0 44 4 139 0 0 143 316
04:45 PM 0 0 0 0 0 0 109 29 0 138 41 0 13 0 54 6 118 0 0 124 316
Total 0 0 0 0 0 0 435 110 0 545 142 0 48 0 190 21 473 0 0 494 1229
05:00 PM 0 0 0 0 0 0 111 23 0 134 34 0 9 0 43 5 121 0 0 126 303
05:15 PM 0 0 0 0 0 0 124 17 0 141 31 0 11 0 42 4 105 0 0 109 292
05:30 PM 0 0 0 0 0 0 90 26 0 116 18 0 8 0 26 5 115 0 0 120 262
05:45 PM 0 0 0 0 0 0 83 15 0 98 22 0 8 0 30 4 89 0 0 93 221
Total 0 0 0 0 0 0 408 81 0 489 105 0 36 0 141 18 430 0 0 448 1078
Grand Total 0 0 0 0 0 0 843 191 0 1034 247 0 84 0 331 39 903 0 0 942 2307
Apprch % 0 0 0 0 0 81.5 18.5 0 74.6 0 25.4 0 4.1 95.9 0 0
Total % 0 0 0 0 0 0 36.5 8.3 0 44.8 10.7 0 3.6 0 14.3 1.7 39.1 0 0 40.8
Passenger Cars 0 0 0 0 0 0 830 182 0 1012 241 0 83 0 324 35 879 0 0 914 2250
% Passenger Cars 0 0 0 0 0 0 98.5 95.3 0 97.9 97.6 0 98.8 0 97.9 89.7 97.3 0 0 97 97.5
SU Trucks 0 0 0 0 0 0 5 2 0 7 3 0 0 0 3 4 14 0 0 18 28
% SU Trucks 0 0 0 0 0 0 0.6 1 0 0.7 1.2 0 0 0 0.9 10.3 1.6 0 0 1.9 1.2
MU Trucks 0 0 0 0 0 0 8 7 0 15 3 0 1 0 4 0 10 0 0 10 29
% MU Trucks 0 0 0 0 0 0 0.9 3.7 0 1.5 1.2 0 1.2 0 1.2 0 1.1 0 0 1.1 1.3CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Corinth-Big Bay PM
Site Code : 00000002
Start Date : 5/20/2015
Page No : 2Corinth Road & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
Corinth Road
Corinth Road
Big Bay Road Right 0
0
0
0
Thru 0
0
0
0
Left 0
0
0
0
Peds 0
0
0
0 InOut Total
0 0 0
0 0 0
0 0 0
0
0
0
Right
0 0 0 0
Thru830 5 8 843
Left182 2 7 191
Peds
0 0 0 0
Out
Total
In
1120
1012
2132
17
7
24
13
15
28
1150
2184
1034
Left
83
0
1
84 Thru
0
0
0
0 Right
241
3
3
247 Peds
0
0
0
0
Out TotalIn217 324 541
6 3 9
7 4 11
230 561 331
Left
0 0 0 0
Thru879 14 10 903
Right35 4 0 39
Peds
0 0 0 0
Total
Out
In
913
914
1827
5
18
23
9
10
19
927
1869
942 5/20/2015 04:00 PM
5/20/2015 05:45 PM

Passenger Cars
SU Trucks
MU Trucks NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Corinth-Big Bay PM
Site Code : 00000002
Start Date : 5/20/2015
Page No : 3Corinth Road & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
From North Corinth Road
From East Big Bay Road
From South Corinth Road
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
Peak Hour Analysis From 04:00 PM to 05:45 PM – Peak 1 of 1
Peak Hour for Entire Intersection Begins at 04:15 PM
04:15 PM 0 0 0 0 0 0
118 29 0
147 32 0
14 0 46 5 121 0 0 126
319
04:30 PM 0 0 0 0 0 0 101 28 0 129 35 0 9 0 44 4
139 0 0
143 316
04:45 PM 0 0 0 0 0 0 109 29 0 138
41 0 13 0
54 6 118 0 0 124 316
05:00 PM 0 0 0 0 0 0 111 23 0 134 34 0 9 0 43 5 121 0 0 126 303
Total Volume 0 0 0 0 0 0 439 109 0 548 142 0 45 0 187 20 499 0 0 519 1254
% App. Total 0 0 0 0 0 80.1 19.9 0 75.9 0 24.1 0 3.9 96.1 0 0
PHF .000 .000 .000 .000 .000 .000 .930 .940 .000 .932 .866 .000 .804 .000 .866 .833 .897 .000 .000 .907 .983
Passenger Cars 0 0 0 0 0 0 433 104 0 537 136 0 45 0 181 16 483 0 0 499 1217
% Passenger Cars 0 0 0 0 0 0 98.6 95.4 0 98.0 95.8 0 100 0 96.8 80.0 96.8 0 0 96.1 97.0
SU Trucks 0 0 0 0 0 0 4 1 0 5 3 0 0 0 3 4 9 0 0 13 21
% SU Trucks 0 0 0 0 0 0 0.9 0.9 0 0.9 2.1 0 0 0 1.6 20.0 1.8 0 0 2.5 1.7
MU Trucks 0 0 0 0 0 0 2 4 0 6 3 0 0 0 3 0 7 0 0 7 16
% MU Trucks 0 0 0 0 0 0 0.5 3.7 0 1.1 2.1 0 0 0 1.6 0 1.4 0 0 1.3 1.3CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Corinth-Big Bay PM
Site Code : 00000002
Start Date : 5/20/2015
Page No : 4Corinth Road & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
Corinth Road
Corinth Road
Big Bay Road Right 0
0
0
0
Thru 0
0
0
0
Left 0
0
0
0
Peds 0
0
0
0 InOut Total
0 0 0
0 0 0
0 0 0
0
0
0
Right
0 0 0 0
Thru433 4 2 439
Left104 1 4 109
Peds
0 0 0 0
Out
Total
In
619
537
1156
12
5
17
10
6
16
641
1189
548
Left
45
0
0
45 Thru
0
0
0
0 Right
136
3
3
142 Peds
0
0
0
0
Out TotalIn120 181 301
5 3 8
4 3 7
129 316 187
Left
0 0 0 0
Thru483 9 7 499
Right16 4 0 20
Peds
0 0 0 0
Total
Out
In
478
499
977
4
13
17
2
7
9
484
1003
519 Peak Hour Begins at 04:15 PM

Passenger Cars
SU Trucks
MU TrucksPeak Hour Data
NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Corinth-Big Bay PM
Site Code : 00000002
Start Date : 5/20/2015
Page No : 5Corinth Road & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
From North Corinth Road
From East Big Bay Road
From South Corinth Road
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
Peak Hour Analysis From 04:00 PM to 05:45 PM – Peak 1 of 1
Peak Hour for Each Approach Begins at:
04:00 PM 04:15 PM 04:00 PM 04:15 PM
+0 mins. 0 0 0 0 0 0
118 29 0
147 34 0 12 0 46 5 121 0 0 126
+15 mins. 0 0 0 0 0 0 101 28 0 129 32 0
14 0 46 4
139 0 0
143
+30 mins. 0 0 0 0 0 0 109 29 0 138 35 0 9 0 44
6 118 0 0 124
+45 mins. 0 0 0 0 0 0 111 23 0 134
41 0 13 0
54 5 121 0 0 126
Total Volume 0 0 0 0 0 0 439 109 0 548 142 0 48 0 190 20 499 0 0 519
% App. Total 0 0 0 0 0 80.1 19.9 0 74.7 0 25.3 0 3.9 96.1 0 0
PHF .000 .000 .000 .000 .000 .000 .930 .940 .000 .932 .866 .000 .857 .000 .880 .833 .897 .000 .000 .907
Passenger Cars 0 0 0 0 0 0 433 104 0 537 136 0 48 0 184 16 483 0 0 499
% Passenger Cars 0 0 0 0 0 0 98.6 95.4 0 98 95.8 0 100 0 96.8 80 96.8 0 0 96.1
SU Trucks 0 0 0 0 0 0 4 1 0 5 3 0 0 0 3 4 9 0 0 13
% SU Trucks 0 0 0 0 0 0 0.9 0.9 0 0.9 2.1 0 0 0 1.6 20 1.8 0 0 2.5
MU Trucks 0 0 0 0 0 0 2 4 0 6 3 0 0 0 3 0 7 0 0 7
% MU Trucks 0 0 0 0 0 0 0.5 3.7 0 1.1 2.1 0 0 0 1.6 0 1.4 0 0 1.3CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Corinth-Big Bay PM
Site Code : 00000002
Start Date : 5/20/2015
Page No : 6Corinth Road & Big Bay Rd
Town of Queensbury, Warren County, NY
CHA File 30230
Corinth Road
Corinth Road
Big Bay Road Right 0
0
0
0
Thru 0
0
0
0
Left 0
0
0
0
Peds 0
0
0
0 In – Peak Hour: 04:00 PM
0
0
0
0
Right
0 0 0 0
Thru433 4 2 439
Left104 1 4 109
Peds
0 0 0 0
In – Peak Hour: 04:15 PM
537 5 6 548
Left
48
0
0
48 Thru
0
0
0
0 Right
136
3
3
142 Peds
0
0
0
0
In – Peak Hour: 04:00 PM 184
3
3
190
Left
0 0 0 0
Thru483 9 7 499
Right16 4 0 20
Peds
0 0 0 0 In – Peak Hour: 04:15 PM
499 13 7 519 Passenger Cars
SU Trucks
MU TrucksPeak Hour Data
NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & I87 Exit 18 SB RampsSite Code:Start Date: 05/20/2015Page No: 1
Turning Movement Data

Start Time
I87 X18 SB Off RampMain St WBI87 X18 SB On RampCorinth Rd EBSouthboundWestboundNorthboundEastboundRightThruLeftPedsApp. TotalThruLeftU-TurnPedsApp. TotalPedsApp. TotalRightThruU-TurnPedsApp. TotalInt. Total7:00 AM2403405865102001670065133001984237:15 AM3304117480109001890058142002004637:30 AM4604909581114001950066158002245147:45 AM45043088937800171004717500222481Hourly Total1480167131531940300722002366080084418818:00 AM4205811007683001590047127001744338:15 AM3904208183106001890030141001714418:30 AM300410717994001730043161002044488:45 AM330710104906800158003215500187449Hourly Total1440212135632835100679001525840073617719:00 AM000000000000000000*** BREAK ***——————Hourly Total0000000000000000004:00 PM6805121198593001780034125001594564:15 PM50046096103116002190047103001504654:30 PM6104101029099001890040141001814724:45 PM51051010210311500218104613800184504Hourly Total2300189241938142300804101675070067418975:00 PM48149098101134002350046121001675005:15 PM550510106100121002210029135001644915:30 PM4803908798119002170046109001554595:45 PM340390738510100186202611700143402Hourly Total1851178036438447500859201474820062918526:00 PM000000000000000000Grand Total707174641454141216520030643070221810028837401Approach %48.60.151.3–46.153.90.0—-24.375.70.0—Total %9.60.010.1-19.619.122.30.0-41.4-0.09.529.50.0-39.0-Lights6720706-1378132915880-2917-067720680-27457040% Lights95.00.094.6-94.894.196.1–95.2–96.494.8–95.295.1Mediums28029-5766510-117-021930-114288% Mediums4.00.03.9-3.94.73.1–3.8–3.04.3–4.03.9Articulated Trucks7111-1917130-30-04180-2271% Articulated Trucks1.0100.01.5-1.31.20.8–1.0–0.60.8–0.81.0Bicycles on Road000-0000-0-0020-22% Bicycles on Road0.00.00.0-0.00.00.0–0.0–0.00.1–0.10.0Pedestrians—4—-0-3—-0–% Pedestrians—100.0——100.0——-

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & I87 Exit 18 SB RampsSite Code:Start Date: 05/20/2015Page No: 2
Turning Movement Data Plot05/20/2015 7:00 AMEnding At05/20/2015 6:15 PMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
I87 X18 SB Off Ramp [SB]OutInTotal0137813780575701919000000014541454
67207060280290711100000000470717464RTLP

2265022657207218018000000235502355OutInTotalI87 X18 SB On Ramp [NB]
P000033

2927 0 2 29 122 2774 Out 3064 0 0 30 117 2917 In 5991 0 2 59 239 5691 Total Main St WB [WB] T 1412 0 0 17 66 1329 L 1652 0 0 13 51 1588 U 0 0 0 0 0 0 P 0 0 0 0 0 0 Corinth Rd EB [EB] Total 4746 208 46 2 0 5002 In 2745 114 22 2 0 2883 Out 2001 94 24 0 0 2119 0 0 0 0 0 0 U 2068 93 18 2 0 2181 T 677 21 4 0 0 702 R 0 0 0 0 0 0 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & I87 Exit 18 SB RampsSite Code:Start Date: 05/20/2015Page No: 3
Turning Movement Peak Hour Data (7:15 AM)

Start Time
I87 X18 SB Off RampMain St WBI87 X18 SB On RampCorinth Rd EBSouthboundWestboundNorthboundEastboundRightThruLeftPedsApp. TotalThruLeftU-TurnPedsApp. TotalPedsApp. TotalRightThruU-TurnPedsApp. TotalInt. Total7:15 AM3304117480109001890058142002004637:30 AM4604909581114001950066158002245147:45 AM450430889378001710047175002224818:00 AM420581100768300159004712700174433Total166019123573303840071400218602008201891Approach %46.50.053.5–46.253.80.0—-26.673.40.0—Total %8.80.010.1-18.917.520.30.0-37.8-0.011.531.80.0-43.4-PHF0.9020.0000.823-0.8930.8870.8420.000-0.915-0.0000.8260.8600.000-0.9150.920Lights1530183-3363023610-663-02145600-7741773% Lights92.2-95.8-94.191.594.0–92.9–98.293.0–94.493.8Mediums1006-1626220-48-04370-41105% Mediums6.0-3.1-4.57.95.7–6.7–1.86.1–5.05.6Articulated Trucks302-5210-3-0050-513% Articulated Trucks1.8-1.0-1.40.60.3–0.4–0.00.8–0.60.7Bicycles on Road000-0000-0-0000-00% Bicycles on Road0.0-0.0-0.00.00.0–0.0–0.00.0–0.00.0Pedestrians—2—-0-0—-0–% Pedestrians—100.0————–

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & I87 Exit 18 SB RampsSite Code:Start Date: 05/20/2015Page No: 4
Turning Movement Peak Hour Data Plot (7:15 AM)Peak Hour Data
05/20/2015 7:15 AMEnding At05/20/2015 8:15 AMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
I87 X18 SB Off Ramp [SB]OutInTotal0336336016160550000000357357
153018301006030200000000216601912RTLP

5750575260261010000006020602OutInTotalI87 X18 SB On Ramp [NB]
P000000

793 0 0 7 43 743 Out 714 0 0 3 48 663 In 1507 0 0 10 91 1406 Total Main St WB [WB] T 330 0 0 2 26 302 L 384 0 0 1 22 361 U 0 0 0 0 0 0 P 0 0 0 0 0 0 Corinth Rd EB [EB] Total 1229 77 10 0 0 1316 In 774 41 5 0 0 820 Out 455 36 5 0 0 496 0 0 0 0 0 0 U 560 37 5 0 0 602 T 214 4 0 0 0 218 R 0 0 0 0 0 0 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & I87 Exit 18 SB RampsSite Code:Start Date: 05/20/2015Page No: 5
Turning Movement Peak Hour Data (4:30 PM)

Start Time
I87 X18 SB Off RampMain St WBI87 X18 SB On RampCorinth Rd EBSouthboundWestboundNorthboundEastboundRightThruLeftPedsApp. TotalThruLeftU-TurnPedsApp. TotalPedsApp. TotalRightThruU-TurnPedsApp. TotalInt. Total4:30 PM6104101029099001890040141001814724:45 PM510510102103115002181046138001845045:00 PM48149098101134002350046121001675005:15 PM55051010610012100221002913500164491Total215119204083944690086310161535006961967Approach %52.70.247.1–45.754.30.0—-23.176.90.0—Total %10.90.19.8-20.720.023.80.0-43.9-0.08.227.20.0-35.4-PHF0.8810.2500.941-0.9620.9560.8750.000-0.918-0.0000.8750.9490.000-0.9460.976Lights2090180-3893824600-842-01595130-6721903% Lights97.20.093.8-95.397.098.1–97.6–98.895.9–96.696.7Mediums409-13940-13-01160-1743% Mediums1.90.04.7-3.22.30.9–1.5–0.63.0–2.42.2Articulated Trucks213-6350-8-0160-721% Articulated Trucks0.9100.01.6-1.50.81.1–0.9–0.61.1–1.01.1Bicycles on Road000-0000-0-0000-00% Bicycles on Road0.00.00.0-0.00.00.0–0.0–0.00.0–0.00.0Pedestrians—0—-0-1—-0–% Pedestrians———-100.0——-

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & I87 Exit 18 SB RampsSite Code:Start Date: 05/20/2015Page No: 6
Turning Movement Peak Hour Data Plot (4:30 PM)Peak Hour Data
05/20/2015 4:30 PMEnding At05/20/2015 5:30 PMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
I87 X18 SB Off Ramp [SB]OutInTotal0389389013130660000000408408
20901800409021300000000021511920RTLP

61906195057070000006310631OutInTotalI87 X18 SB On Ramp [NB]
P000011

727 0 0 9 25 693 Out 863 0 0 8 13 842 In 1590 0 0 17 38 1535 Total Main St WB [WB] T 394 0 0 3 9 382 L 469 0 0 5 4 460 U 0 0 0 0 0 0 P 0 0 0 0 0 0 Corinth Rd EB [EB] Total 1263 30 12 0 0 1305 In 672 17 7 0 0 696 Out 591 13 5 0 0 609 0 0 0 0 0 0 U 513 16 6 0 0 535 T 159 1 1 0 0 161 R 0 0 0 0 0 0 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & I87 Exit 18 SB RampsSite Code:Start Date: 05/20/2015Page No: 7

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main Street & I87 Exit 18 NBRampsSite Code:Start Date: 05/20/2015Page No: 1
Turning Movement Data

Start Time
I87 X18 NB On-RampMain St WBI87 X18 NB Off-RampMain St EBSouthboundWestboundNorthboundEastbound
PedsApp. TotalRightRight onRedThruU-TurnPedsApp. TotalRightRight onRedThruLeftPedsApp. TotalThruLeftU-TurnPedsApp. TotalInt. Total
7:00 AM004731490019919450200849370001634467:15 AM10515168002245839031012812052001725247:30 AM00530150002039346036017513767002045827:45 AM0048713100186916904302031407100211600Hourly Total101991559800812261199013005904902600075021528:00 AM00441123001681793030014014949001985068:15 AM00400165002052569023011711762001795018:30 AM00590151002103670020012612079001995358:45 AM005401390019320560210971715700228518Hourly Total001971578007769828809404805572470080420609:00 AM00000000000000000000*** BREAK ***——————–Hourly Total000000000000000000004:00 PM205715138002107960041018012750001775674:15 PM0054616600226866005201989253001455694:30 PM00621157002206247043015212754001815534:45 PM0061115500217884205601861186400182585Hourly Total202342361600873315209019207164642210068522745:00 PM00683195012666553045016311957001766055:15 PM00610182002434863050016113951001905945:30 PM00621195002586268039016910250001525795:45 PM0047116200210554403721361035300156502Hourly Total00238573401977230228017126294632110067422806:00 PM00000000000000000000Grand Total3086844252601343890492405872241519749390029138766Approach %–25.21.373.50.0–37.438.30.024.3–67.832.20.0—Total %-0.09.90.528.80.0-39.210.310.50.06.7-27.522.510.70.0-33.2-Lights-08194324280-32908688930555-231618898960-27858391% Lights–94.497.796.1–95.796.096.6-94.5-95.995.795.4–95.695.7Mediums-0351720-1082625026-7756390-95280% Mediums–4.02.32.9–3.12.92.7-4.4-3.22.84.2–3.33.2Articulated Trucks-0130250-3810606-222340-2787% Articulated Trucks–1.50.01.0–1.11.10.6-1.0-0.91.20.4–0.91.0Bicycles on Road-01010-20000-0600-68% Bicycles on Road–0.10.00.0–0.10.00.0-0.0-0.00.30.0–0.20.1Pedestrians3—–1—–2—-0–% Pedestrians100.0—–100.0—–100.0——-

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main Street & I87 Exit 18 NBRampsSite Code:Start Date: 05/20/2015Page No: 2
Turning Movement Data Plot05/20/2015 7:00 AMEnding At05/20/2015 6:15 PMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
I87 X18 NB On-RampOutInTotal1758017587507517017101000185101851
000033P

0231623160777702222000000024152415OutInTotalI87 X18 NB Off-Ramp
LTRP5550176102605106016000000002587018282

3802 0 6 39 107 3650 Out 3438 0 2 38 108 3290 In 7240 0 8 77 215 6940 Total Main St WB [WB] R 912 0 1 13 36 862 T 2526 0 1 25 72 2428 U 0 0 0 0 0 0 P 1 1 0 0 0 0 Main St EB [EB] Total 5768 193 58 7 0 6026 In 2785 95 27 6 0 2913 Out 2983 98 31 1 0 3113 0 0 0 0 0 0 U 896 39 4 0 0 939 L 1889 56 23 6 0 1974 T 0 0 0 0 0 0 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main Street & I87 Exit 18 NBRampsSite Code:Start Date: 05/20/2015Page No: 3
Turning Movement Peak Hour Data (7:15 AM)

Start Time
I87 X18 NB On-RampMain St WBI87 X18 NB Off-RampMain St EBSouthboundWestboundNorthboundEastbound
PedsApp. TotalRightRight onRedThruU-TurnPedsApp. TotalRightRight onRedThruLeftPedsApp. TotalThruLeftU-TurnPedsApp. TotalInt. Total
7:15 AM10515168002245839031012812052001725247:30 AM00530150002039346036017513767002045827:45 AM00487131001869169043020314071002116008:00 AM0044112300168179303001401494900198506Total10196135720078125924701400646546239007852212Approach %–25.11.773.20.0–40.138.20.021.7–69.630.40.0—Total %-0.08.90.625.90.0-35.311.711.20.06.3-29.224.710.80.0-35.5-PHF-0.0000.9250.4640.8510.000-0.8720.6960.6640.0000.814-0.7960.9160.8420.000-0.9300.922Lights-0176125440-7322472400127-6145222240-7462092% Lights–89.892.395.1–93.795.497.2-90.7-95.095.693.7–95.094.6Mediums-0161240-41106013-2917140-31101% Mediums–8.27.74.2–5.23.92.4-9.3-4.53.15.9–3.94.6Articulated Trucks-04040-82100-3510-617% Articulated Trucks–2.00.00.7–1.00.80.4-0.0-0.50.90.4–0.80.8Bicycles on Road-00000-00000-0200-22% Bicycles on Road–0.00.00.0–0.00.00.0-0.0-0.00.40.0–0.30.1Pedestrians1—–0—–0—-0–% Pedestrians100.0——————-

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main Street & I87 Exit 18 NBRampsSite Code:Start Date: 05/20/2015Page No: 4
Turning Movement Peak Hour Data Plot (7:15 AM)Peak Hour Data
05/20/2015 7:15 AMEnding At05/20/2015 8:15 AMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
I87 X18 NB On-RampOutInTotal4120412310315050000004480448
000011P

0614614029290330000000646646OutInTotalI87 X18 NB Off-Ramp
LTRP1270487013016000300000000014005060

1052 0 2 8 33 1009 Out 781 0 0 8 41 732 In 1833 0 2 16 74 1741 Total Main St WB [WB] R 209 0 0 4 17 188 T 572 0 0 4 24 544 U 0 0 0 0 0 0 P 0 0 0 0 0 0 Main St EB [EB] Total 1417 68 10 2 0 1497 In 746 31 6 2 0 785 Out 671 37 4 0 0 712 0 0 0 0 0 0 U 224 14 1 0 0 239 L 522 17 5 2 0 546 T 0 0 0 0 0 0 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main Street & I87 Exit 18 NBRampsSite Code:Start Date: 05/20/2015Page No: 5
Turning Movement Peak Hour Data (4:45 PM)

Start Time
I87 X18 NB On-RampMain St WBI87 X18 NB Off-RampMain St EBSouthboundWestboundNorthboundEastbound
PedsApp. TotalRightRight onRedThruU-TurnPedsApp. TotalRightRight onRedThruLeftPedsApp. TotalThruLeftU-TurnPedsApp. TotalInt. Total
4:45 PM00611155002178842056018611864001825855:00 PM00683195012666553045016311957001766055:15 PM00610182002434863050016113951001905945:30 PM0062119500258626803901691025000152579Total0025257270198426322601900679478222007002363Approach %–25.60.573.90.0–38.733.30.028.0–68.331.70.0—Total %-0.010.70.230.80.0-41.611.19.60.08.0-28.720.29.40.0-29.6-PHF-0.0000.9260.4170.9320.000-0.9250.7470.8310.0000.848-0.9130.8600.8670.000-0.9210.976Lights-024457160-9652542220186-6624572160-6732300% Lights–96.8100.098.5–98.196.698.2-97.9-97.595.697.3–96.197.3Mediums-05060-116302-111640-2042% Mediums–2.00.00.8–1.12.31.3-1.1-1.63.31.8–2.91.8Articulated Trucks-02050-73102-6420-619% Articulated Trucks–0.80.00.7–0.71.10.4-1.1-0.90.80.9–0.90.8Bicycles on Road-01000-10000-0100-12% Bicycles on Road–0.40.00.0–0.10.00.0-0.0-0.00.20.0–0.10.1Pedestrians0—–1—–0—-0–% Pedestrians——100.0————-

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main Street & I87 Exit 18 NBRampsSite Code:Start Date: 05/20/2015Page No: 6
Turning Movement Peak Hour Data Plot (4:45 PM)Peak Hour Data
05/20/2015 4:45 PMEnding At05/20/2015 5:45 PMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
I87 X18 NB On-RampOutInTotal46504659094041010004790479
000000P

0662662011110660000000679679OutInTotalI87 X18 NB Off-Ramp
LTRP18604760209020400000000019004890

967 0 1 8 25 933 Out 984 0 1 7 11 965 In 1951 0 2 15 36 1898 Total Main St WB [WB] R 257 0 1 2 5 249 T 727 0 0 5 6 716 U 0 0 0 0 0 0 P 1 1 0 0 0 0 Main St EB [EB] Total 1575 28 13 1 0 1617 In 673 20 6 1 0 700 Out 902 8 7 0 0 917 0 0 0 0 0 0 U 216 4 2 0 0 222 L 457 16 4 1 0 478 T 0 0 0 0 0 0 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main Street & I87 Exit 18 NBRampsSite Code:Start Date: 05/20/2015Page No: 7

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Big Boom RdSite Code:Start Date: 05/21/2015Page No: 1
Turning Movement Data

Start Time
Media Drive SBMain Street WBBig Boom Road NBMain Street EBSouthboundWestboundNorthboundEastbound
RightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalInt. Total
7:00 AM4102004311413001455160012313914001563567:15 AM511201544155110017011110013114512001583957:30 AM5735006531382001438140013220831002414627:45 AM3806004471604001716211001932215000274508Hourly Total1874150120615594200062920532005797131070082917218:00 AM3330003611376001443190013318436002234168:15 AM3513003931485001564170012619225002234308:30 AM4004004441345001436190016119126002184218:45 AM2985004261449001596010001641973600237454Hourly Total137121200161145632500602193350057147641230090117219:00 AM0000000000000000000000000*** BREAK ***————————-Hourly Total00000000000000000000000004:00 PM5666006841574001654060010116434001994424:15 PM46540155316950017791100020322528002565084:30 PM66330072316940017661100017219727002264914:45 PM5224005811659001759210002121722500199453Hourly Total22016170125311660220069328436006887581140088018945:00 PM52230057116960017651160022319435002324875:15 PM572210624155701166315039120453102594965:30 PM45460055517090018475130025120434002395035:45 PM3028014041288001401009001931963600235434Hourly Total18410191121414622300166625743037587981581096519206:00 PM0000000000000000000000000Grand Total728426313834542439970125909219146032573930335021035757256Approach %87.35.07.60.1–2.194.23.70.0–35.87.456.80.0–1.184.814.00.0—Total %10.00.60.90.0-11.50.733.61.30.0-35.71.30.32.00.0-3.50.541.86.90.0-49.3-Lights71040621-813522317860-245581181160-2153129354961-34636946% Lights97.595.298.4100.0-97.596.395.088.7–94.888.094.779.5–83.779.596.898.8100.0-96.995.7Mediums17210-20290110-103111270-3977660-89251% Mediums2.34.81.60.0-2.43.73.711.3–4.012.05.318.5–15.217.92.51.20.0-2.53.5Articulated Trucks1000-103200-320030-312100-2258% ArticulatedTrucks0.10.00.00.0-0.10.01.30.0–1.20.00.02.1–1.22.60.70.00.0-0.60.8
Bicycles on Road0000-00000-00000-00100-11% Bicycles onRoad0.00.00.00.0-0.00.00.00.0–0.00.00.00.0–0.00.00.00.00.0-0.00.0
Pedestrians—-3—–1—–3—–0–

% Pedestrians—-100.0—–100.0—–100.0——–

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Big Boom RdSite Code:Start Date: 05/21/2015Page No: 3
Turning Movement Data Plot05/21/2015 7:00 AMEnding At05/21/2015 6:15 PMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
Media Drive SB [SB]OutInTotal5678131380920290110000005768341410
710406210172100100000000000003728426313RTLUP

157215372203959134000000178257435OutInTotalBig Boom Road NB [NB]
ULTRP0116188100271110030000000000003014619923

3188 0 1 21 88 3078 Out 2590 0 0 32 103 2455 In 5778 0 1 53 191 5533 Total Main Street WB [WB] R 54 0 0 0 2 52 T 2439 0 0 32 90 2317 L 97 0 0 0 11 86 U 0 0 0 0 0 0 P 1 1 0 0 0 0 Main Street EB [EB] Total 6607 223 58 1 0 6889 In 3463 89 22 1 0 3575 Out 3144 134 36 0 0 3314 1 0 0 0 0 1 U 496 6 0 0 0 502 L 2935 76 21 1 0 3033 T 31 7 1 0 0 39 R 0 0 0 0 0 0 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Big Boom RdSite Code:Start Date: 05/21/2015Page No: 4
Turning Movement Peak Hour Data (7:30 AM)

Start Time
Media Drive SBMain Street WBBig Boom Road NBMain Street EBSouthboundWestboundNorthboundEastbound
RightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalInt. Total
7:30 AM5735006531382001438140013220831002414627:45 AM38060044716040017162110019322150002745088:00 AM3330003611376001443190013318436002234168:15 AM351300393148500156417001261922500223430Total1637140018414583170061421531005714805142009611816Approach %88.63.87.60.0–2.395.02.80.0–36.88.854.40.0–1.583.814.80.0—Total %9.00.40.80.0-10.10.832.10.90.0-33.81.20.31.70.0-3.10.844.37.80.0-52.9-PHF0.7150.5830.5830.000-0.7080.5000.9110.7080.000-0.8980.6560.6250.7050.000-0.7500.5830.9110.7100.000-0.8770.894Lights1587140-17914542150-571185230-46127811370-9301726% Lights96.9100.0100.0–97.3100.093.088.2–93.085.7100.074.2–80.785.797.096.5–96.895.0Mediums5000-503620-383060-921850-2577% Mediums3.10.00.0–2.70.06.211.8–6.214.30.019.4–15.814.32.23.5–2.64.2Articulated Trucks0000-00500-50020-20600-613% ArticulatedTrucks0.00.00.0–0.00.00.90.0–0.80.00.06.5–3.50.00.70.0–0.60.7
Bicycles on Road0000-00000-00000-00000-00% Bicycles onRoad0.00.00.0–0.00.00.00.0–0.00.00.00.0–0.00.00.00.0–0.00.0
Pedestrians—-0—–0—–0—–0–% Pedestrians————————-

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Big Boom RdSite Code:Start Date: 05/21/2015Page No: 5
Turning Movement Peak Hour Data Plot (7:30 AM)Peak Hour Data
05/21/2015 7:30 AMEnding At05/21/2015 8:30 AMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
Media Drive SB [SB]OutInTotal1561793355510000000000161184345
158714005000000000000000000016371400RTLUP

3446804913022000000385795OutInTotalBig Boom Road NB [NB]
ULTRP0235180060300200000000000000315210

840 0 0 6 21 813 Out 614 0 0 5 38 571 In 1454 0 0 11 59 1384 Total Main Street WB [WB] R 14 0 0 0 0 14 T 583 0 0 5 36 542 L 17 0 0 0 2 15 U 0 0 0 0 0 0 P 0 0 0 0 0 0 Main Street EB [EB] Total 1653 72 13 0 0 1738 In 930 25 6 0 0 961 Out 723 47 7 0 0 777 0 0 0 0 0 0 U 137 5 0 0 0 142 L 781 18 6 0 0 805 T 12 2 0 0 0 14 R 0 0 0 0 0 0 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Big Boom RdSite Code:Start Date: 05/21/2015Page No: 6
Turning Movement Peak Hour Data (4:15 PM)

Start Time
Media Drive SBMain Street WBBig Boom Road NBMain Street EBSouthboundWestboundNorthboundEastbound
RightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalInt. Total
4:15 PM46540155316950017791100020322528002565084:30 PM66330072316940017661100017219727002264914:45 PM52240058116590017592100021217225001994535:00 PM5223005711696001765116002231943500232487Total2161214012428672240070429546008010788115009131939Approach %89.35.05.80.0–1.195.53.40.0–36.36.357.50.0–1.186.312.60.0—Total %11.10.60.70.0-12.50.434.71.20.0-36.31.50.32.40.0-4.10.540.65.90.0-47.1-PHF0.8180.6000.8750.000-0.8400.6670.9940.6670.000-0.9940.8060.6250.7190.000-0.9090.8330.8760.8210.000-0.8920.954Lights21111140-2368648220-678284390-7177651140-8861871% Lights97.791.7100.0–97.5100.096.491.7–96.396.680.084.8–88.870.097.199.1–97.096.5Mediums4100-501920-211170-931810-2257% Mediums1.98.30.0–2.10.02.88.3–3.03.420.015.2–11.330.02.30.9–2.42.9Articulated Trucks1000-10500-50000-00400-410% ArticulatedTrucks0.50.00.0–0.40.00.70.0–0.70.00.00.0–0.00.00.50.0–0.40.5
Bicycles on Road0000-00000-00000-00100-11% Bicycles onRoad0.00.00.0–0.00.00.00.0–0.00.00.00.0–0.00.00.10.0–0.10.1
Pedestrians—-1—–0—–0—–0–% Pedestrians—-100.0——————–

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Big Boom RdSite Code:Start Date: 05/21/2015Page No: 7
Turning Movement Peak Hour Data Plot (4:15 PM)Peak Hour Data
05/21/2015 4:15 PMEnding At05/21/2015 5:15 PMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
Media Drive SB [SB]OutInTotal126236362257011000000128242370
21111140041000100000000000001216121401RTLUP

407111169150000000004680126OutInTotalBig Boom Road NB [NB]
ULTRP0394280071100000000000000000465290

831 0 1 4 19 807 Out 704 0 0 5 21 678 In 1535 0 1 9 40 1485 Total Main Street WB [WB] R 8 0 0 0 0 8 T 672 0 0 5 19 648 L 24 0 0 0 2 22 U 0 0 0 0 0 0 P 0 0 0 0 0 0 Main Street EB [EB] Total 1784 52 10 1 0 1847 In 886 22 4 1 0 913 Out 898 30 6 0 0 934 0 0 0 0 0 0 U 114 1 0 0 0 115 L 765 18 4 1 0 788 T 7 3 0 0 0 10 R 0 0 0 0 0 0 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Big Boom RdSite Code:Start Date: 05/21/2015Page No: 8

File Name : Main-Pine AM
Site Code : 00000003
Start Date : 5/21/2015
Page No : 1Main Street & Pine Street
Town of Queensbury, Warren County, NY
CHA File 30230
Groups Printed- Passenger Cars – SU Trucks – MU Trucks
Pine Street
From North Main Street
From East Pine Street
From South Main Street
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
07:00 AM 5 0 0 0 5 0 0 0 0 0 0 0 0 0 0 0 0 4 0 4 9
07:15 AM 10 0 2 0 12 1 0 1 0 2 0 0 0 0 0 0 0 3 0 3 17
07:30 AM 12 0 4 0 16 2 0 0 0 2 1 0 2 0 3 0 0 6 0 6 27
07:45 AM 5 0 2 0 7 4 0 0 0 4 0 0 0 0 0 0 0 11 0 11 22
Total 32 0 8 0 40 7 0 1 0 8 1 0 2 0 3 0 0 24 0 24 75
08:00 AM 5 0 1 0 6 1 0 0 0 1 0 0 1 0 1 0 0 7 0 7 15
08:15 AM 6 0 2 0 8 2 0 0 0 2 0 0 1 0 1 1 0 6 0 7 18
08:30 AM 9 0 1 0 10 1 0 0 0 1 0 0 1 0 1 0 0 7 0 7 19
08:45 AM 4 0 5 0 9 4 0 0 0 4 0 0 0 0 0 0 0 4 0 4 17
Total 24 0 9 0 33 8 0 0 0 8 0 0 3 0 3 1 0 24 0 25 69
Grand Total 56 0 17 0 73 15 0 1 0 16 1 0 5 0 6 1 0 48 0 49 144
Apprch % 76.7 0 23.3 0 93.8 0 6.2 0 16.7 0 83.3 0 2 0 98 0
Total % 38.9 0 11.8 0 50.7 10.4 0 0.7 0 11.1 0.7 0 3.5 0 4.2 0.7 0 33.3 0 34
Passenger Cars 51 0 16 0 67 14 0 1 0 15 1 0 5 0 6 1 0 44 0 45 133
% Passenger Cars 91.1 0 94.1 0 91.8 93.3 0 100 0 93.8 100 0 100 0 100 100 0 91.7 0 91.8 92.4
SU Trucks 3 0 1 0 4 1 0 0 0 1 0 0 0 0 0 0 0 2 0 2 7
% SU Trucks 5.4 0 5.9 0 5.5 6.7 0 0 0 6.2 0 0 0 0 0 0 0 4.2 0 4.1 4.9
MU Trucks 2 0 0 0 2 0 0 0 0 0 0 0 0 0 0 0 0 2 0 2 4
% MU Trucks 3.6 0 0 0 2.7 0 0 0 0 0 0 0 0 0 0 0 0 4.2 0 4.1 2.8CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Main-Pine AM
Site Code : 00000003
Start Date : 5/21/2015
Page No : 2Main Street & Pine Street
Town of Queensbury, Warren County, NY
CHA File 30230
Pine Street Main Street
Main Street
Pine Street Right 51
3
2
56
Thru 0
0
0
0
Left 16
1
0
17
Peds 0
0
0
0 InOut Total
58 67 125
3 4 7
2 2 4
63
136
73
Right14 1 0 15
Thru
0 0 0 0
Left
1 0 0 1 Peds
0 0 0 0
Out
Total
In
17
15
32
1
1
2
0
0
0
18
34
16
Left
5
0
0
5 Thru
0
0
0
0 Right
1
0
0
1 Peds
0
0
0
0
Out TotalIn2 6 8
0 0 0
0 0 0
2 8 6
Left44 2 2 48
Thru
0 0 0 0
Right
1 0 0 1
Peds
0 0 0 0
Total
Out
In
56
45
101
3
2
5
2
2
4
61
110
49 5/21/2015 07:00 AM
5/21/2015 08:45 AM

Passenger Cars
SU Trucks
MU Trucks NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Main-Pine AM
Site Code : 00000003
Start Date : 5/21/2015
Page No : 3Main Street & Pine Street
Town of Queensbury, Warren County, NY
CHA File 30230
Pine Street
From North Main Street
From East Pine Street
From South Main Street
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
Peak Hour Analysis From 07:00 AM to 08:45 AM – Peak 1 of 1
Peak Hour for Entire Intersection Begins at 07:30 AM
07:30 AM
12 0
4 0
16 2 0 0 0 2
1 0
2 0
3 0 0 6 0 6
27
07:45 AM 5 0 2 0 7
4 0 0 0
4 0 0 0 0 0 0 0
11 0
11 22
08:00 AM 5 0 1 0 6 1 0 0 0 1 0 0 1 0 1 0 0 7 0 7 15
08:15 AM 6 0 2 0 8 2 0 0 0 2 0 0 1 0 1
1 0 6 0 7 18
Total Volume 28 0 9 0 37 9 0 0 0 9 1 0 4 0 5 1 0 30 0 31 82
% App. Total 75.7 0 24.3 0 100 0 0 0 20 0 80 0 3.2 0 96.8 0
PHF .583 .000 .563 .000 .578 .563 .000 .000 .000 .563 .250 .000 .500 .000 .417 .250 .000 .682 .000 .705 .759
Passenger Cars 24 0 9 0 33 8 0 0 0 8 1 0 4 0 5 1 0 29 0 30 76
% Passenger Cars 85.7 0 100 0 89.2 88.9 0 0 0 88.9 100 0 100 0 100 100 0 96.7 0 96.8 92.7
SU Trucks 3 0 0 0 3 1 0 0 0 1 0 0 0 0 0 0 0 0 0 0 4
% SU Trucks 10.7 0 0 0 8.1 11.1 0 0 0 11.1 0 0 0 0 0 0 0 0 0 0 4.9
MU Trucks 1 0 0 0 1 0 0 0 0 0 0 0 0 0 0 0 0 1 0 1 2
% MU Trucks 3.6 0 0 0 2.7 0 0 0 0 0 0 0 0 0 0 0 0 3.3 0 3.2 2.4CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Main-Pine AM
Site Code : 00000003
Start Date : 5/21/2015
Page No : 4Main Street & Pine Street
Town of Queensbury, Warren County, NY
CHA File 30230
Pine Street Main Street
Main Street
Pine Street Right 24
3
1
28
Thru 0
0
0
0
Left 9
0
0
9
Peds 0
0
0
0 InOut Total
37 33 70
1 3 4
1 1 2
39
76
37
Right
8 1 0 9
Thru
0 0 0 0
Left
0 0 0 0 Peds
0 0 0 0
Out
Total
In
10
8
18
0
1
1
0
0
0
10
19
9
Left
4
0
0
4 Thru
0
0
0
0 Right
1
0
0
1 Peds
0
0
0
0
Out TotalIn1 5 6
0 0 0
0 0 0
1 6 5
Left29 0 1 30
Thru
0 0 0 0
Right
1 0 0 1
Peds
0 0 0 0
Total
Out
In
28
30
58
3
0
3
1
1
2
32
63
31 Peak Hour Begins at 07:30 AM

Passenger Cars
SU Trucks
MU TrucksPeak Hour Data
NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Main-Pine AM
Site Code : 00000003
Start Date : 5/21/2015
Page No : 5Main Street & Pine Street
Town of Queensbury, Warren County, NY
CHA File 30230
Pine Street
From North Main Street
From East Pine Street
From South Main Street
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
Peak Hour Analysis From 07:00 AM to 08:45 AM – Peak 1 of 1
Peak Hour for Each Approach Begins at:
07:15 AM 07:15 AM 07:30 AM 07:45 AM
+0 mins. 10 0 2 0 12 1 0
1 0 2
1 0
2 0
3 0 0
11 0
11
+15 mins.
12 0
4 0
16 2 0 0 0 2 0 0 0 0 0 0 0 7 0 7
+30 mins. 5 0 2 0 7
4 0 0 0
4 0 0 1 0 1
1 0 6 0 7
+45 mins. 5 0 1 0 6 1 0 0 0 1 0 0 1 0 1 0 0 7 0 7
Total Volume 32 0 9 0 41 8 0 1 0 9 1 0 4 0 5 1 0 31 0 32
% App. Total 78 0 22 0 88.9 0 11.1 0 20 0 80 0 3.1 0 96.9 0
PHF .667 .000 .563 .000 .641 .500 .000 .250 .000 .563 .250 .000 .500 .000 .417 .250 .000 .705 .000 .727
Passenger Cars 27 0 9 0 36 7 0 1 0 8 1 0 4 0 5 1 0 28 0 29
% Passenger Cars 84.4 0 100 0 87.8 87.5 0 100 0 88.9 100 0 100 0 100 100 0 90.3 0 90.6
SU Trucks 3 0 0 0 3 1 0 0 0 1 0 0 0 0 0 0 0 2 0 2
% SU Trucks 9.4 0 0 0 7.3 12.5 0 0 0 11.1 0 0 0 0 0 0 0 6.5 0 6.2
MU Trucks 2 0 0 0 2 0 0 0 0 0 0 0 0 0 0 0 0 1 0 1
% MU Trucks 6.2 0 0 0 4.9 0 0 0 0 0 0 0 0 0 0 0 0 3.2 0 3.1CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Main-Pine AM
Site Code : 00000003
Start Date : 5/21/2015
Page No : 6Main Street & Pine Street
Town of Queensbury, Warren County, NY
CHA File 30230
Pine Street Main Street
Main Street
Pine Street Right 27
3
2
32
Thru 0
0
0
0
Left 9
0
0
9
Peds 0
0
0
0 In – Peak Hour: 07:15 AM
36
3
2
41
Right
7 1 0 8
Thru
0 0 0 0
Left
1 0 0 1 Peds
0 0 0 0
In – Peak Hour: 07:15 AM
8 1 0 9
Left
4
0
0
4 Thru
0
0
0
0 Right
1
0
0
1 Peds
0
0
0
0
In – Peak Hour: 07:30 AM 5
0
0
5
Left28 2 1 31
Thru
0 0 0 0
Right
1 0 0 1
Peds
0 0 0 0 In – Peak Hour: 07:45 AM
29 2 1 32 Passenger Cars
SU Trucks
MU TrucksPeak Hour Data
NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Main-Pine PM
Site Code : 00000004
Start Date : 5/21/2015
Page No : 1Main Street and Pine Street
Town of Queensbury, Warren County, NY
CHA File: 30230
Groups Printed- Passenger Cars – SU Trucks – MU Trucks
Pine St
From North Main St
From East Pine St
From South Main St
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
04:30 PM 5 0 1 0 6 2 0 0 0 2 0 0 1 1 2 1 0 11 0 12 22
04:45 PM 5 0 1 0 6 3 0 0 0 3 1 0 0 0 1 0 0 11 0 11 21
Total 10 0 2 0 12 5 0 0 0 5 1 0 1 1 3 1 0 22 0 23 43
05:00 PM 4 0 3 0 7 4 0 0 0 4 1 0 1 0 2 0 0 15 0 15 28
05:15 PM 6 0 1 0 7 6 0 0 0 6 0 0 0 0 0 0 0 15 0 15 28
05:30 PM 6 0 3 0 9 4 0 0 0 4 1 1 1 0 3 3 0 12 0 15 31
05:45 PM 10 0 2 0 12 1 0 1 0 2 0 1 0 0 1 0 0 4 0 4 19
Total 26 0 9 0 35 15 0 1 0 16 2 2 2 0 6 3 0 46 0 49 106
Grand Total 36 0 11 0 47 20 0 1 0 21 3 2 3 1 9 4 0 68 0 72 149
Apprch % 76.6 0 23.4 0 95.2 0 4.8 0 33.3 22.2 33.3 11.1 5.6 0 94.4 0
Total % 24.2 0 7.4 0 31.5 13.4 0 0.7 0 14.1 2 1.3 2 0.7 6 2.7 0 45.6 0 48.3
Passenger Cars 36 0 8 0 44 19 0 1 0 20 3 2 3 1 9 4 0 66 0 70 143
% Passenger Cars 100 0 72.7 0 93.6 95 0 100 0 95.2 100 100 100 100 100 100 0 97.1 0 97.2 96
SU Trucks 0 0 3 0 3 0 0 0 0 0 0 0 0 0 0 0 0 2 0 2 5
% SU Trucks 0 0 27.3 0 6.4 0 0 0 0 0 0 0 0 0 0 0 0 2.9 0 2.8 3.4
MU Trucks 0 0 0 0 0 1 0 0 0 1 0 0 0 0 0 0 0 0 0 0 1
% MU Trucks 0 0 0 0 0 5 0 0 0 4.8 0 0 0 0 0 0 0 0 0 0 0.7CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Main-Pine PM
Site Code : 00000004
Start Date : 5/21/2015
Page No : 2Main Street and Pine Street
Town of Queensbury, Warren County, NY
CHA File: 30230
Pine St Main St
Main St
Pine St Right 36
0
0
36
Thru 0
0
0
0
Left 8
3
0
11
Peds 0
0
0
0 InOut Total
87 44 131
2 3 5
1 0 1
90
137
47
Right19 0 1 20
Thru
0 0 0 0
Left
1 0 0 1 Peds
0 0 0 0
Out
Total
In
11
20
31
3
0
3
0
1
1
14
35
21
Left
3
0
0
3 Thru
2
0
0
2 Right
3
0
0
3 Peds
1
0
0
1
Out TotalIn5 9 14
0 0 0
0 0 0
5 14 9
Left66 2 0 68
Thru
0 0 0 0
Right
4 0 0 4
Peds
0 0 0 0
Total
Out
In
39
70
109
0
2
2
0
0
0
39
111
72 5/21/2015 04:30 PM
5/21/2015 05:45 PM

Passenger Cars
SU Trucks
MU Trucks NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Main-Pine PM
Site Code : 00000004
Start Date : 5/21/2015
Page No : 3Main Street and Pine Street
Town of Queensbury, Warren County, NY
CHA File: 30230
Pine St
From North Main St
From East Pine St
From South Main St
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
Peak Hour Analysis From 04:30 PM to 05:45 PM – Peak 1 of 1
Peak Hour for Entire Intersection Begins at 04:45 PM
04:45 PM 5 0 1 0 6 3 0 0 0 3
1 0 0 0 1 0 0 11 0 11 21
05:00 PM 4 0
3 0 7 4 0 0 0 4 1 0
1 0 2 0 0
15 0
15 28
05:15 PM
6 0 1 0 7
6 0 0 0
6 0 0 0 0 0 0 0 15 0 15 28
05:30 PM 6 0 3 0
9 4 0 0 0 4 1
1 1 0
3 3 0 12 0 15
31
Total Volume 21 0 8 0 29 17 0 0 0 17 3 1 2 0 6 3 0 53 0 56 108
% App. Total 72.4 0 27.6 0 100 0 0 0 50 16.7 33.3 0 5.4 0 94.6 0
PHF .875 .000 .667 .000 .806 .708 .000 .000 .000 .708 .750 .250 .500 .000 .500 .250 .000 .883 .000 .933 .871
Passenger Cars 21 0 6 0 27 16 0 0 0 16 3 1 2 0 6 3 0 51 0 54 103
% Passenger Cars 100 0 75.0 0 93.1 94.1 0 0 0 94.1 100 100 100 0 100 100 0 96.2 0 96.4 95.4
SU Trucks 0 0 2 0 2 0 0 0 0 0 0 0 0 0 0 0 0 2 0 2 4
% SU Trucks 0 0 25.0 0 6.9 0 0 0 0 0 0 0 0 0 0 0 0 3.8 0 3.6 3.7
MU Trucks 0 0 0 0 0 1 0 0 0 1 0 0 0 0 0 0 0 0 0 0 1
% MU Trucks 0 0 0 0 0 5.9 0 0 0 5.9 0 0 0 0 0 0 0 0 0 0 0.9CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Main-Pine PM
Site Code : 00000004
Start Date : 5/21/2015
Page No : 4Main Street and Pine Street
Town of Queensbury, Warren County, NY
CHA File: 30230
Pine St Main St
Main St
Pine St Right 21
0
0
21
Thru 0
0
0
0
Left 6
2
0
8
Peds 0
0
0
0 InOut Total
68 27 95
2 2 4
1 0 1
71
100
29
Right16 0 1 17
Thru
0 0 0 0
Left
0 0 0 0 Peds
0 0 0 0
Out
Total
In
9
16
25
2
0
2
0
1
1
11
28
17
Left
2
0
0
2 Thru
1
0
0
1 Right
3
0
0
3 Peds
0
0
0
0
Out TotalIn3 6 9
0 0 0
0 0 0
3 9 6
Left51 2 0 53
Thru
0 0 0 0
Right
3 0 0 3
Peds
0 0 0 0
Total
Out
In
23
54
77
0
2
2
0
0
0
23
79
56 Peak Hour Begins at 04:45 PM

Passenger Cars
SU Trucks
MU TrucksPeak Hour Data
NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Main-Pine PM
Site Code : 00000004
Start Date : 5/21/2015
Page No : 5Main Street and Pine Street
Town of Queensbury, Warren County, NY
CHA File: 30230
Pine St
From North Main St
From East Pine St
From South Main St
From West
Start Time Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
Peak Hour Analysis From 04:30 PM to 05:45 PM – Peak 1 of 1
Peak Hour for Each Approach Begins at:
05:00 PM 04:45 PM 04:45 PM 04:45 PM
+0 mins. 4 0
3 0 7 3 0 0 0 3
1 0 0 0 1 0 0 11 0 11
+15 mins. 6 0 1 0 7 4 0 0 0 4 1 0
1 0 2 0 0
15 0
15
+30 mins. 6 0 3 0 9
6 0 0 0
6 0 0 0 0 0 0 0 15 0 15
+45 mins.
10 0 2 0
12 4 0 0 0 4 1
1 1 0
3 3 0 12 0 15
Total Volume 26 0 9 0 35 17 0 0 0 17 3 1 2 0 6 3 0 53 0 56
% App. Total 74.3 0 25.7 0 100 0 0 0 50 16.7 33.3 0 5.4 0 94.6 0
PHF .650 .000 .750 .000 .729 .708 .000 .000 .000 .708 .750 .250 .500 .000 .500 .250 .000 .883 .000 .933
Passenger Cars 26 0 7 0 33 16 0 0 0 16 3 1 2 0 6 3 0 51 0 54
% Passenger Cars 100 0 77.8 0 94.3 94.1 0 0 0 94.1 100 100 100 0 100 100 0 96.2 0 96.4
SU Trucks 0 0 2 0 2 0 0 0 0 0 0 0 0 0 0 0 0 2 0 2
% SU Trucks 0 0 22.2 0 5.7 0 0 0 0 0 0 0 0 0 0 0 0 3.8 0 3.6
MU Trucks 0 0 0 0 0 1 0 0 0 1 0 0 0 0 0 0 0 0 0 0
% MU Trucks 0 0 0 0 0 5.9 0 0 0 5.9 0 0 0 0 0 0 0 0 0 0CHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

File Name : Main-Pine PM
Site Code : 00000004
Start Date : 5/21/2015
Page No : 6Main Street and Pine Street
Town of Queensbury, Warren County, NY
CHA File: 30230
Pine St Main St
Main St
Pine St Right 26
0
0
26
Thru 0
0
0
0
Left 7
2
0
9
Peds 0
0
0
0 In – Peak Hour: 05:00 PM
33
2
0
35
Right16 0 1 17
Thru
0 0 0 0
Left
0 0 0 0 Peds
0 0 0 0
In – Peak Hour: 04:45 PM
16 0 1 17
Left
2
0
0
2 Thru
1
0
0
1 Right
3
0
0
3 Peds
0
0
0
0
In – Peak Hour: 04:45 PM 6
0
0
6
Left51 2 0 53
Thru
0 0 0 0
Right
3 0 0 3
Peds
0 0 0 0 In – Peak Hour: 04:45 PM
54 2 0 56 Passenger Cars
SU Trucks
MU TrucksPeak Hour Data
NorthCHA Consulting, Inc.
3 Winners Circle
Albany, NY 12205
(518) 453-4500
www.chacompanies.com

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Richardson StSite Code:Start Date: 05/21/2015Page No: 1
Turning Movement Data

Start Time
Richardson St SBMain St WBRichardson NBMain St EBSouthboundWestboundNorthboundEastbound
RightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalInt. Total
7:00 AM21600901010001010219002181193001302617:15 AM21501821150001170120002121301001332797:30 AM3450012111200011314300035171743001943547:45 AM128001141250001292319002425196200223387Hourly Total88240140745300046031088001015261990068012818:00 AM4570016012300012322230027101593001723388:15 AM348001521150001171315001971652001743258:30 AM11600811320001331314001881741001833428:45 AM72300121106000107101700189173400186323Hourly Total151224005144760004805869008234671100071513289:00 AM0000000000000000000100011*** BREAK ***————————-Hourly Total00000000000000000001000114:00 PM223007414710015206200026101502001623474:15 PM331017414210014702180020201805002053794:30 PM304007214520014914160021151788002013784:45 PM1620090136200138127001013157300173330Hourly Total9111001301057060058621461007758665180074114345:00 PM2750014314210014606140020141513001683485:15 PM242008414200014613190123261634001933705:30 PM6510012112920013212140117201712001933545:45 PM34501121106100108019001013179601198328Hourly Total1320130146951940053221256027073664150175214006:00 PM0000000000000000000000000Grand Total45517103167302018100020581244274023302172620520128895444Approach %26.930.542.50.0–1.598.10.50.0–3.613.383.00.0–7.590.71.80.0—Total %0.80.91.30.0-3.10.637.10.20.0-37.80.20.85.00.0-6.14.048.11.00.0-53.1-Lights4051680-159301920100-196012412670-3202112538500-27995238% Lights88.9100.095.8–95.2100.095.1100.0–95.2100.093.297.4–97.097.296.996.2–96.996.2Mediums5030-807000-700370-1066020-68156% Mediums11.10.04.2–4.80.03.50.0–3.40.06.82.6–3.02.82.33.8–2.42.9Articulated Trucks0000-002800-280000-002100-2149% ArticulatedTrucks0.00.00.0–0.00.01.40.0–1.40.00.00.0–0.00.00.80.0–0.70.9
Bicycles on Road0000-00000-00000-00100-11% Bicycles onRoad0.00.00.0–0.00.00.00.0–0.00.00.00.0–0.00.00.00.0–0.00.0
Pedestrians—-3—–0—–2—–1–

% Pedestrians—-100.0———–100.0—–100.0–

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Richardson StSite Code:Start Date: 05/21/2015Page No: 3
Turning Movement Data Plot05/21/2015 7:00 AMEnding At05/21/2015 6:15 PMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
Richardson St SB [SB]OutInTotal1211592805813000000000126167293
405168005030000000000000000345517103RTLUP

27232059261016000000000278330608OutInTotalRichardson NB [NB]
ULTRP02674112007300000000000000002027444122

2703 0 1 21 63 2618 Out 2058 0 0 28 70 1960 In 4761 0 1 49 133 4578 Total Main St WB [WB] R 30 0 0 0 0 30 T 2018 0 0 28 70 1920 L 10 0 0 0 0 10 U 0 0 0 0 0 0 P 0 0 0 0 0 0 Main St EB [EB] Total 5026 150 49 1 0 5226 In 2799 68 21 1 0 2889 Out 2227 82 28 0 0 2337 0 0 0 0 0 0 U 50 2 0 0 0 52 L 2538 60 21 1 0 2620 T 211 6 0 0 0 217 R 0 0 0 0 1 1 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Richardson StSite Code:Start Date: 05/21/2015Page No: 4
Turning Movement Peak Hour Data (7:30 AM)

Start Time
Richardson St SBMain St WBRichardson NBMain St EBSouthboundWestboundNorthboundEastbound
RightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalInt. Total
7:30 AM3450012111200011314300035171743001943547:45 AM1280011412500012923190024251962002233878:00 AM4570016012300012322230027101593001723388:15 AM34800152115000117131500197165200174325Total1115280054747500048261287001055969410007631404Approach %20.427.851.90.0–1.598.50.00.0–5.711.482.90.0–7.791.01.30.0—Total %0.81.12.00.0-3.80.533.80.00.0-34.30.40.96.20.0-7.54.249.40.70.0-54.3-PHF0.6880.7500.8750.000-0.8440.4380.9500.0000.000-0.9340.7500.7500.7250.000-0.7500.5900.8850.8330.000-0.8550.907Lights915260-50745000-457611810-985667590-7401345% Lights81.8100.092.9–92.6100.094.7—94.8100.091.793.1–93.394.997.390.0–97.095.8Mediums2020-402100-210160-731310-1749% Mediums18.20.07.1–7.40.04.4—4.40.08.36.9–6.75.11.910.0–2.23.5Articulated Trucks0000-00400-40000-00600-610% ArticulatedTrucks0.00.00.0–0.00.00.8—0.80.00.00.0–0.00.00.90.0–0.80.7
Bicycles on Road0000-00000-00000-00000-00% Bicycles onRoad0.00.00.0–0.00.00.0—0.00.00.00.0–0.00.00.00.0–0.00.0
Pedestrians—-0—–0—–0—–0–% Pedestrians————————-

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Richardson StSite Code:Start Date: 05/21/2015Page No: 5
Turning Movement Peak Hour Data Plot (7:30 AM)Peak Hour Data
05/21/2015 7:30 AMEnding At05/21/2015 8:30 AMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
Richardson St SB [SB]OutInTotal275077246000000000295483
91526002020000000000000000011152800RTLUP

7198169371000000000074105179OutInTotalRichardson NB [NB]
ULTRP0811160061000000000000000000871260

728 0 0 6 15 707 Out 482 0 0 4 21 457 In 1210 0 0 10 36 1164 Total Main St WB [WB] R 7 0 0 0 0 7 T 475 0 0 4 21 450 L 0 0 0 0 0 0 U 0 0 0 0 0 0 P 0 0 0 0 0 0 Main St EB [EB] Total 1280 46 10 0 0 1336 In 740 17 6 0 0 763 Out 540 29 4 0 0 573 0 0 0 0 0 0 U 9 1 0 0 0 10 L 675 13 6 0 0 694 T 56 3 0 0 0 59 R 0 0 0 0 0 0 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Richardson StSite Code:Start Date: 05/21/2015Page No: 6
Turning Movement Peak Hour Data (4:15 PM)

Start Time
Richardson St SBMain St WBRichardson NBMain St EBSouthboundWestboundNorthboundEastbound
RightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalRightThruLeftU-TurnPedsApp.TotalInt. Total
4:15 PM331017414210014702180020201805002053794:30 PM304007214520014914160021151788002013784:45 PM16200901362001381270010131573001733305:00 PM275001431421001460614002014151300168348Total91612013795656005802145500716266619007471435Approach %24.343.232.40.0–1.697.41.00.0–2.819.777.50.0–8.389.22.50.0—Total %0.61.10.80.0-2.60.639.40.40.0-40.40.11.03.80.0-4.94.346.41.30.0-52.1-PHF0.7500.5710.6000.000-0.6610.5630.9740.7500.000-0.9730.5000.5830.7640.000-0.8450.7750.9250.5940.000-0.9110.947Lights816120-36954360-558214550-7161650180-7291394% Lights88.9100.0100.0–97.3100.096.1100.0–96.2100.0100.0100.0–100.098.497.694.7–97.697.1Mediums1000-101600-160000-011210-1431% Mediums11.10.00.0–2.70.02.80.0–2.80.00.00.0–0.01.61.85.3–1.92.2Articulated Trucks0000-00600-60000-00300-39% ArticulatedTrucks0.00.00.0–0.00.01.10.0–1.00.00.00.0–0.00.00.50.0–0.40.6
Bicycles on Road0000-00000-00000-00100-11% Bicycles onRoad0.00.00.0–0.00.00.00.0–0.00.00.00.0–0.00.00.20.0–0.10.1
Pedestrians—-1—–0—–0—–0–% Pedestrians—-100.0——————–

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Richardson StSite Code:Start Date: 05/21/2015Page No: 7
Turning Movement Peak Hour Data Plot (4:15 PM)Peak Hour Data
05/21/2015 4:15 PMEnding At05/21/2015 5:15 PMLightsMediumsArticulated TrucksBicycles on RoadPedestrians
Richardson St SB [SB]OutInTotal413677112000000000423779
8161200100000000000000000019161201RTLUP

83711541010000000008471155OutInTotalRichardson NB [NB]
ULTRP0551420000000000000000000000551420

680 0 1 3 12 664 Out 580 0 0 6 16 558 In 1260 0 1 9 28 1222 Total Main St WB [WB] R 9 0 0 0 0 9 T 565 0 0 6 16 543 L 6 0 0 0 0 6 U 0 0 0 0 0 0 P 0 0 0 0 0 0 Main St EB [EB] Total 1335 31 9 1 0 1376 In 729 14 3 1 0 747 Out 606 17 6 0 0 629 0 0 0 0 0 0 U 18 1 0 0 0 19 L 650 12 3 1 0 666 T 61 1 0 0 0 62 R 0 0 0 0 0 0 P

CHA Consulting, Inc.3 Winners Circle P.O. Box 5269Albany, New York, United States 12205518 453 3983 dkahlbaugh@chacompanies.com
Count Name: Main St & Richardson StSite Code:Start Date: 05/21/2015Page No: 8

STATION:
173000 New York State Department of Transportation
Traffic Count Hourly Report
Page 1 of 1
ROAD #:
RAMPROAD NAME:
I-87 EXIT 18 FROM:
I-87 NB (OFF) TO:
CR28 CORINTH RD COUNTY:
Warren
DIRECTION: Northbound FACTOR GROUP: 30 REC. SERIAL #: 1115 FUNC. CLASS: 11 TOWN:
QUEENSBURY
STATE DIR CODE: 3 WK OF YR: 44 PLACEMENT: I 87 NB OFF RAMP NHS: no LION#:
DATE OF COUNT: 10/26/2009 @ REF MARKER: JURIS: NYSDOT BIN:
NOTES LANE 1: NORTH ADDL DATA: CC Stn: RR CROSSING:
COUNT TYPE: AXLE PAIRS BATCH ID: DOT-WW43 HPMS SAMPLE:
COUNT TAKEN BY: ORG CODE: DOT INITIALS: DS PROCESSED BY: ORG CODE: DOT INITIALS: jl
12
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
1212
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
12DAILY DAILY
DAILY HIGH HIGH
AMPM
DATE
DAY
TOTAL
COUNT
HOUR
1T
2F
3S
4S
5M
6T
7W
8T
9F
10 S
11 S
12 M
13 T
14 W
15 T
16 F
17 S
18 S
19 M
20 T
21 W
22 T
23 F
24 S
25 S
26 M
27 T
28 W
29 T
30 F
31 S24 22 10 46 52 188 462 421 354 298 245 329 321 392 458 583 642 440 237 180 175 114 70
47 28 12 20 26 68 181 500 465 336 318 293 298 344 379 454 603 638 414 231 220 156 132 826245 638 17
46 36 38 13 33 52 182 486 421 329 293 279 331 342 336 443 549 577 424 237 204 183 127 966057 577 17
43 26 49 14 35 68 172 511 439 331 291 304
AVERAGE WEEKDAY HOURS (Axle Factored, Mon 6AM to Fri Noon) ADT
40 26 29 14 27 55 159 430 383 297 263 246 280 295 324 397 507 543 374 206 176 150 109 73 5403
DAYS
Counted
4HOURS
Counted
83WEEKDAYS
Counted
3WEEKDAY
Hours
78AVERAGE WEEKDAY
High Hour
543% of day
10%Axle Adj.
Factor
0.878Seasonal/Weekday
Adjustment Factor
1.076ESTIMATED
AADT
5021
ROAD #:
RAMPROAD NAME:
I-87 EXIT 18 FROM:
I-87 NB (OFF) TO:
CR28 CORINTH RD COUNTY:
Warren
STATION:
173000STATE DIR CODE:
3PLACEMENT:
I 87 NB OFF RAMP DATE OF COUNT: 10/26/2009

STATION:
173001 New York State Department of Transportation
Traffic Count Hourly Report
Page 1 of 1
ROAD #:
RAMPROAD NAME:
I-87 EXIT 18 FROM:
CR28 CORINTH RD TO:
I-87 NB (ON) COUNTY:
Warren
DIRECTION: Northbound FACTOR GROUP: 30 REC. SERIAL #: 1316 FUNC. CLASS: 11 TOWN:
QUEENSBURY
STATE DIR CODE: 3 WK OF YR: 44 PLACEMENT: I 87 ON RAMP NHS: no LION#:
DATE OF COUNT: 10/26/2009 @ REF MARKER: JURIS: NYSDOT BIN:
NOTES LANE 1: NORTH ADDL DATA: CC Stn: RR CROSSING:
COUNT TYPE: AXLE PAIRS BATCH ID: DOT-WW43 HPMS SAMPLE:
COUNT TAKEN BY: ORG CODE: DOT INITIALS: DS PROCESSED BY: ORG CODE: DOT INITIALS: jl
12
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
1212
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
12DAILY DAILY
DAILY HIGH HIGH
AMPM
DATE
DAY
TOTAL
COUNT
HOUR
1T
2F
3S
4S
5M
6T
7W
8T
9F
10 S
11 S
12 M
13 T
14 W
15 T
16 F
17 S
18 S
19 M
20 T
21 W
22 T
23 F
24 S
25 S
26 M
27 T
28 W
29 T
30 F
31 S12 24 13 25 63 171 369 372 297 314 355 379 364 341 415 359 323 314 171 140 80 64 55
27 7 11 17 30 64 190 411 394 320 340 284 327 339 333 355 449 360 251 187 146 125 74 525093 449 16
18 14 10 20 28 43 187 407 411 291 316 307 345 312 337 367 392 393 292 175 121 98 73 705027 411 8
28 16 14 19 26 53 193 394 346 348 359 342 401
AVERAGE WEEKDAY HOURS (Axle Factored, Mon 6AM to Fri Noon) ADT
21 11 11 17 25 47 162 347 335 276 291 283 319 297 296 333 351 315 251 156 119 89 61 52 4465
DAYS
Counted
4HOURS
Counted
84WEEKDAYS
Counted
3WEEKDAY
Hours
79AVERAGE WEEKDAY
High Hour
351% of day
8%Axle Adj.
Factor
0.878Seasonal/Weekday
Adjustment Factor
1.076ESTIMATED
AADT
4150
ROAD #:
RAMPROAD NAME:
I-87 EXIT 18 FROM:
CR28 CORINTH RD TO:
I-87 NB (ON) COUNTY:
Warren
STATION:
173001STATE DIR CODE:
3PLACEMENT:
I 87 ON RAMP DATE OF COUNT: 10/26/2009

STATION:
173003 New York State Department of Transportation
Traffic Count Hourly Report
Page 1 of 1
ROAD #:
RAMPROAD NAME:
I-87 EXIT 18 FROM:
CR28 CORINTH RD TO:
I-87 SB (ON) COUNTY:
Warren
DIRECTION: Southbound FACTOR GROUP: 30 REC. SERIAL #: 0325 FUNC. CLASS: 11 TOWN:
QUEENSBURY
STATE DIR CODE: 3 WK OF YR: 44 PLACEMENT: I 87 ON RAMP NHS: no LION#:
DATE OF COUNT: 10/26/2009 @ REF MARKER: JURIS: NYSDOT BIN:
NOTES LANE 1: SOUTH ADDL DATA: CC Stn: RR CROSSING:
COUNT TYPE: AXLE PAIRS BATCH ID: DOT-WW43 HPMS SAMPLE:
COUNT TAKEN BY: ORG CODE: DOT INITIALS: DS PROCESSED BY: ORG CODE: DOT INITIALS: jl
12
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
1212
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
12DAILY DAILY
DAILY HIGH HIGH
AMPM
DATE
DAY
TOTAL
COUNT
HOUR
1T
2F
3S
4S
5M
6T
7W
8T
9F
10 S
11 S
12 M
13 T
14 W
15 T
16 F
17 S
18 S
19 M
20 T
21 W
22 T
23 F
24 S
25 S
26 M
27 T
28 W
29 T
30 F
31 S17 20 41 110 297 721 874 629 528 453 479 543 465 583 671 614 702 460 249 234 167 106 67
38 29 37 49 84 303 771 865 680 502 461 510 492 438 575 599 661 736 347 285 248 198 132 739113 865 7
47 28 20 39 65 277 670 779 689 505 485 504 511 492 470 517 685 650 395 266 187 134 124 728611 779 7
41 33 44 33 71 266 747 817 720 521 460 464 501
AVERAGE WEEKDAY HOURS (Axle Factored, Mon 6AM to Fri Noon) ADT
37 26 30 35 64 248 638 732 597 451 408 429 450 408 477 523 573 611 352 234 196 146 106 62 7833
DAYS
Counted
4HOURS
Counted
84WEEKDAYS
Counted
3WEEKDAY
Hours
79AVERAGE WEEKDAY
High Hour
732% of day
9%Axle Adj.
Factor
0.878Seasonal/Weekday
Adjustment Factor
1.076ESTIMATED
AADT
7280
ROAD #:
RAMPROAD NAME:
I-87 EXIT 18 FROM:
CR28 CORINTH RD TO:
I-87 SB (ON) COUNTY:
Warren
STATION:
173003STATE DIR CODE:
3PLACEMENT:
I 87 ON RAMP DATE OF COUNT: 10/26/2009

Exit 18 Rezone Study – Queensbury, NY

Appendix B

Trip Generation & Distribution

EXIT 18 REZONE STUDY
Town of Queensbury, Warren County, NY
CHA: 30230
TRIP GENERATION – NO-BUILD
July 6, 2015
Page 1 of 1
EnterExitTotalEnterExitTotalEnterExitTotal
Total54541087293710
Pass-By000000000
Primary54541087293710
Total54541087293710
Pass-By000000000
Primary54541087293710
EnterExitTotalEnterExitTotalEnterExitTotal
Total112101011
Pass-By000000000
Primary112101011
Total112101011
Pass-By000000000
Primary112101011
EnterExitTotalEnterExitTotalEnterExitTotal
Total
Pass-By (50%)EXISTINGEXISTINGEXISTING
Primary
Total55551101421631215
Pass-By000000000
Primary55551101421631215
Total2322334659514202545
Pass-By (30%)70701402247714
Primary1621633257310131831
Total28728857523730233760
Pass-By70701402247714
Primary21721843521526163046
EnterExitTotalEnterExitTotalEnterExitTotal
TRIP GENERATION SUMMARY
Total34234368531940264571
Pass-By70701402247714
Primary27227354529736193857
* PM Peak Hour trip generation for this parcel obtained from Parillo Access Feasibility Study (May 27, 2011)
Trip TypeWeekdayAM Peak HourPM Peak Hour
Total of All Parcels
Specialty Retail 826 10,000 s.f.
Total of Parcel 3
ParcelBuild UseLUCSize
WeekdayAM Peak HourPM Peak Hour *
3
Fast Food with
Drive Thru9342832 s.f.
General Office710 10,000 s.f.
Total of Parcel 2
ParcelBuild UseLUCSizeTrip Type
WeekdayAM Peak HourPM Peak Hour
2Self Storage
Unit1514 units
Total of Parcel 1
ParcelBuild UseLUCSizeTrip Type
AM Peak HourPM Peak Hour
1Expansion of
Warehouse150 30,000 s.f
ParcelBuild UseLUCSizeTrip TypeWeekday

EXIT 18 REZONE STUDY
Town of Queensbury, Warren County, NY
CHA: 30230
TRIP GENERATION
July 24, 2015
Page 1 of 4
EnterExitTotalEnterExitTotalEnterExitTotal
Total6956941,3895337905250102
Pass-By000000000
Primary6956941,3895337905250102
Total4454458901121512725121146
Pass-By000000000
Primary4454458901121512725121146
Total5195181,0374837858585170
Pass-By (30%)155156311131326252651
Primary3643627263524596059119
Total1,6591,6573,31621389302162256418
Pass-By155156311131326252651
Primary1,5041,5013,00520076276137230367
EnterExitTotalEnterExitTotalEnterExitTotal
Total000000000
Pass-By (xx%)
Primary000000000
Total000000000
Pass-By000000000
Primary000000000
EnterExitTotalEnterExitTotalEnterExitTotal
Total8568561,7122716437075145
Pass-By (50%)428428856111122363672
Primary42842885616521343973
Total8568561,7122716437075145
Pass-By428428856111122363672
Primary42842885616521343973
Trip TypeWeekdayAM Peak HourPM Peak Hour
A
Hotel310 170 rooms
ParcelBuild UseLUCSize
General Office710 60,000 s.f.
Bank w/ Drive-
Thru912 7000 s.f.
Trip TypeWeekdayAM Peak HourPM Peak Hour
B
Fast Food
Restaurant w/
Drive-Thru
assumed that
existing use will
not change
Total of Parcel A
ParcelBuild UseLUCSize
AM Peak HourPM Peak Hour
CRetail820 12,000 s.f.
Total of Parcel B
ParcelBuild UseLUCSizeTrip TypeWeekday
Total of Parcel C

EXIT 18 REZONE STUDY
Town of Queensbury, Warren County, NY
CHA: 30230
TRIP GENERATION
July 24, 2015
Page 2 of 4
EnterExitTotalEnterExitTotalEnterExitTotal
Total388387775971311023111134
Pass-By000000000
Primary388387775971311023111134
Total388387775971311023111134
Pass-By000000000
Primary388387775971311023111134
EnterExitTotalEnterExitTotalEnterExitTotal
Total205204409151126161430
Pass-By000000000
Primary205204409151126161430
Total205204409151126161430
Pass-By000000000
Primary205204409151126161430
EnterExitTotalEnterExitTotalEnterExitTotal
Total302302604241640232144
Pass-By000000000
Primary302302604241640232144
Total302302604241640232144
Pass-By000000000
Primary302302604241640232144
AM Peak HourPM Peak Hour
DGeneral Office710 50,000 s.f.
ParcelBuild UseLUCSizeTrip TypeWeekday
Total of Parcel D
ParcelBuild UseLUCSizeTrip TypeWeekday
Total of Parcel E
AM Peak HourPM Peak Hour
EHotel (Build)31050
Total of Parcel G
Trip TypeWeekdayAM Peak HourPM Peak Hour
GHotel (Build)310 74 rooms
ParcelBuild UseLUCSize

EXIT 18 REZONE STUDY
Town of Queensbury, Warren County, NY
CHA: 30230
TRIP GENERATION
July 24, 2015
Page 3 of 4
EnterExitTotalEnterExitTotalEnterExitTotal
Total61601211521731316
Pass-By000000000
Primary61601211521731316
Total61601211521731316
Pass-By000000000
Primary61601211521731316
EnterExitTotalEnterExitTotalEnterExitTotal
Total393877101112810
Pass-By000000000
Primary393877101112810
Total393877101112810
Pass-By000000000
Primary393877101112810
EnterExitTotalEnterExitTotalEnterExitTotal
Total485485970151025384280
Pass-By (50%)2422424846612202040
Primary2432434869413182240
Total9929921,98493891826863131
Pass-By (50%)496496992454691333366
Primary496496992484391353065
Total1,4771,4772,95410899207106105211
Pass-By7387381,47651521035353106
Primary7397391,47857471045352105
Trip TypeWeekdayAM Peak HourPM Peak Hour
HGeneral Office710 11,000 s.f.
ParcelBuild UseLUCSize
AM Peak HourPM Peak Hour
IGeneral Office710 7,000 s.f.
Total of Parcel H
ParcelBuild UseLUCSizeTrip TypeWeekday
Total of Parcel I
ParcelBuild UseLUCSizeTrip TypeWeekday
Fast Food
Restaurant w/
Drive-Thru
934 4,000 s.f.
Total of Parcel J
AM Peak HourPM Peak Hour
J
Retail820 5,000 s.f.

EXIT 18 REZONE STUDY
Town of Queensbury, Warren County, NY
CHA: 30230
TRIP GENERATION
July 24, 2015
Page 4 of 4
EnterExitTotalEnterExitTotalEnterExitTotal
Proposed Use
Total3,3963,3956,7919759156288311599
Pass-By (35%)1,1881,1892,377272855105105210
Primary2,2082,2064,4147031101183206389
Total3,3963,3956,7919759156288311599
Pass-By1,1881,1892,377272855105105210
Primary2,2082,2064,4147031101183206389
EnterExitTotalEnterExitTotalEnterExitTotal
Total2,9372,9375,8748452136248268516
Pass-By (35%)1,0281,0282,0562424489091181
Primary1,9091,9093,818602888158177335
Total2,9372,9375,8748452136248268516
Pass-By1,0281,0282,0562424489091181
Primary1,9091,9093,818602888158177335
Total11,320 11,31322,633690358 1,048941 1,182 2,123
Pass-By3,537 3,5397,076126128254309311620
Primary7,783 7,77415,557564230794632871 1,503
Shopping
Center820100,000
s.f.
Total of Parcel L
Trip TypeWeekdayAM Peak HourPM Peak Hour
L
ParcelBuild UseLUCSize
Trip TypeWeekdayAM Peak HourPM Peak Hour
MShopping
Center820 80,000 s.f.
ParcelBuild UseLUCSize
Total of Parcel M
Total of All Parcels

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
COMBINED ALL PARCELS
OCTOBER 27, 2015
16060↖155 [ 105 ]8743↖22 [ 77 ]26400↖0[ 0 ]500↖0[ 0 ]500↖0[ 0 ][ 56 ] [ 0 ] [ 174 ]←30 [ 100 ]←272 [ 267 ][ 52 ][ 69 ]←199 [ 229 ]←138 [ 258 ]←160 [ 335 ][ 17 ] [ 80 ] [ 0 ]←61 [ 49 ][ 3 ] [ 0 ] [ 0 ]←113 [ 151 ][ 3 ] [ 0 ] [ 0 ]←98 [ 140 ]↙↓↘↙88 [ 63 ]CORINTH RD↙14 [ 14 ]↙↘↙19 [ 74 ]↙↓↘↙57 [ 105 ]↙↓↘↙0[ 0 ]↙↓↘↙0[ 0 ]MAIN ST
45 [ 32 ]↗↖↑↗↖↗29 [ 97 ]↗↖↗↗7 [ 32 ]↗↖↑↗0 [ 11 ]↗↖↑↗0[ 7 ]↗↖↑↗
50 [ 84 ]→4020129 [ 387 ]→110115 [ 309 ]→129 [ 281 ]→8041118 [ 243 ]→327 [ 84 ]→73212855 [ 186 ]→00054 [ 169 ]→100028 [ 13 ]↘[ 38 ] [ 0 ] [ 131 ]1[ 2 ]↘[ 1 ][ 13 ]24 [ 91 ]↘[ 45 ][ 67 ]52 [ 105 ]↘[ 5 ]87 [ 132 ]↘[ 269 ] [ 89 ] [ 114 ]0[ 1 ]↘[ 0 ] [ 0 ] [ 0 ]1 [ 10 ]↘[ 8 ] [ 0 ] [ 0 ]
3 113↖18 [ 150 ][ 19 ] [ 57 ]All Parcels↓↘↙0[ 0 ]AMPM↑↗Enter564 [ 632 ]60Exit230 [ 871 ][ 19 ] [ 0 ]Total794 [ 1503 ]
BIGBAYROAD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP
MEDIADR
PINEST
BIGBOOMRD

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL A – Bank/Service Trips
OCTOBER 27, 2015
Parcel A: Bank-Service
AMPMEnter35 [ 60 ]Exit24 [ 59 ]Total59 [ 119 ]
8016↖23 [ 39 ]4↖5↖0↖0↖
[ 21 ] [ 0 ] [ 38 ]←←23 [ 39 ][ 6 ]←19 [ 33 ]←15 [ 27 ]←15 [ 27 ][ 9 ]←10 [ 18 ][ 0 ]←10 [ 18 ][ 0 ]←10 [ 18 ]↙↓↘↙CORINTH RD↙↙↘↙↙↓↘↙↙↓↘↙↙↓↘↙MAIN ST
12 [ 21 ]↗↖↑↗↖↗2[ 6 ]↗↖↗↗4[ 9 ]↗↖↑↗0[ 0 ]↗↖↑↗0↗↖↑↗→016 [ 38 ]→14 [ 32 ]→12 [ 26 ]→412 [ 26 ]→8 [ 17 ]→08 [ 17 ]→08 [ 17 ]→0↘[ 0 ]↘2[ 6 ]↘[ 6 ]↘↘[ 0 ]0[ 0 ]↘[ 0 ]0↘[ 0 ]
0↖
[ 0 ]↓↘↙
↑↗
0[ 0 ]
BIGBAYROAD
BIGBOOMRD
MEDIADR
PINEST
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL A – Office Trips
OCTOBER 27, 2015
Parcel A: Office
AMPMEnter 112 [ 25 ]Exit15 [ 121 ]Total127 [ 146 ]
4011↖84 [ 19 ]34↖8↖0↖2↖
[ 30 ] [ 0 ] [ 91 ]←←84 [ 19 ][ 8 ]←50 [ 11 ]←22[ 5 ]←22[ 5 ][ 1 ]←14[ 4 ][ 0 ]←14[ 4 ][ 0 ]←10[ 4 ]↙↓↘↙CORINTH RD↙↙↘↙↙↓↘↙↙↓↘↙↙↓↘↙MAIN ST
28[ 6 ]↗↖↑↗↖↗4 [ 36 ]↗↖↗↗1[ 6 ]↗↖↑↗0[ 2 ]↗↖↑↗0[ 2 ]↗↖↑↗→011 [ 91 ]→7 [ 61 ]→3 [ 25 ]→283 [ 25 ]→2 [ 19 ]→02 [ 17 ]→02 [ 15 ]→2↘[ 0 ]↘4 [ 30 ]↘[ 6 ]↘↘[ 0 ]0[ 0 ]↘[ 0 ]0[ 0 ]↘[ 0 ]
0↖
[ 0 ]↓↘↙
↑↗
0[ 0 ]
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL A – Hotel Trips
OCTOBER 27, 2015
Parcel A: Hotel
AMPMEnter53 [ 52 ]Exit37 [ 50 ]Total90 [ 102 ]
4033↖48 [ 47 ]21↖0↖0↖0↖
[ 5 ] [ 0 ] [ 45 ]←←48 [ 47 ][ 20 ]←27 [ 27 ]←10 [ 12 ]←10 [ 12 ][ 0 ]←10 [ 12 ][ 0 ]←10 [ 12 ][ 0 ]←10 [ 12 ]↙↓↘↙CORINTH RD↙↙↘↙↙↓↘↙↙↓↘↙↙↓↘↙MAIN ST
5[ 5 ]↗↖↑↗↖↗15 [ 20 ]↗↖↗↗0[ 0 ]↗↖↑↗0[ 0 ]↗↖↑↗0[ 0 ]↗↖↑↗→033 [ 45 ]→22 [ 30 ]→7 [ 10 ]→177 [ 10 ]→7 [ 10 ]→07 [ 10 ]→07 [ 10 ]→0↘[ 0 ]↘11 [ 15 ]↘[ 15 ]↘↘[ 0 ]0[ 0 ]↘[ 0 ]0[ 0 ]↘[ 0 ]
0↖
[ 0 ]↓↘↙
↑↗
0[ 0 ]
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL A – ALL TRIPS
OCTOBER 27, 2015
Parcel A
AMPMEnter 200 [ 137 ]Exit76 [ 230 ]Total276 [ 367 ]
16060↖155 [ 105 ]59↖13↖0↖2↖
[ 56 ] [ 0 ] [ 174 ]←←155 [ 105 ][ 34 ]←96 [ 71 ]←47 [ 44 ]←47 [ 44 ][ 10 ]←34 [ 34 ][ 0 ]←34 [ 34 ][ 0 ]←30 [ 34 ]↙↓↘↙CORINTH RD↙↙↘↙↙↓↘↙↙↓↘↙↙↓↘↙MAIN ST
45 [ 32 ]↗↖↑↗↖↗21 [ 62 ]↗↖↗↗5 [ 15 ]↗↖↑↗0[ 2 ]↗↖↑↗0[ 2 ]↗↖↑↗→060 [ 174 ]→43 [ 123 ]→22 [ 61 ]→4922 [ 61 ]→17 [ 46 ]→017 [ 44 ]→017 [ 42 ]→2↘[ 0 ]↘17 [ 51 ]↘[ 27 ]↘↘[ 0 ]0[ 0 ]↘[ 0 ]0[ 0 ]↘[ 0 ]
0↖
[ 0 ]↓↘↙
↑↗
0[ 0 ]
BIGBAYROAD
MEDIADR
PINEST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP
BIGBOOMRD
RICHARDSONST

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL C
OCTOBER 27, 2015
↖3↖3↖0↖1↖←←12 [ 26 ][ 7 ]←9 [ 19 ]←6 [ 12 ]←6 [ 12 ][ 5 ]←3[ 7 ][ 1 ]←3[ 6 ][ 1 ]←2[ 5 ]↙↓↘↙12 [ 26 ]CORINTH RD↙↙↘↙↙↓↘↙↙↓↘↙↙↓↘↙MAIN ST
↗↖↑↗↖↗1[ 7 ]↗↖↗↗1[ 6 ]↗↖↑↗0[ 0 ]↗↖↑↗0[ 1 ]↗↖↑↗→144 [ 29 ]→3 [ 21 ]→2 [ 14 ]→32 [ 14 ]→1[ 8 ]→01[ 8 ]→01[ 6 ]→04[ 8 ]↘[ 10 ][ 29 ]↘1[ 8 ]↘[ 7 ]↘↘[ 0 ]0[ 0 ]↘[ 0 ]0[ 1 ]↘[ 0 ]
016↖5 [ 39 ][ 0 ] [ 34 ]Parcel C↓↘↙0[ 0 ]AMPM↑↗Enter16 [ 34 ]00Exit5 [ 39 ][ 0 ] [ 0 ]Total21 [ 73 ]
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL D
OCTOBER 27, 2015
↖19↖10↖2↖2↖←←73 [ 18 ][ 5 ]←54 [ 13 ]←30[ 7 ]←30[ 7 ][ 2 ]←20[ 5 ][ 0 ]←18[ 5 ][ 0 ]←15[ 5 ]↙↓↘↙73 [ 18 ]CORINTH RD↙↙↘↙↙↓↘↙↙↓↘↙↙↓↘↙MAIN ST
↗↖↑↗↖↗3 [ 22 ]↗↖↗↗1 [ 11 ]↗↖↑↗0[ 2 ]↗↖↑↗0[ 2 ]↗↖↑↗→31010 [ 83 ]→7 [ 55 ]→4 [ 33 ]→244 [ 33 ]→3 [ 22 ]→03 [ 20 ]→03 [ 17 ]→124[ 5 ]↘[ 28 ][ 83 ]↘3 [ 28 ]↘[ 6 ]↘↘[ 0 ]0[ 0 ]↘[ 0 ]0[ 1 ]↘[ 0 ]
097↖13 [ 111 ][ 0 ] [ 23 ]Parcel D↓↘↙0[ 0 ]AMPM↑↗Enter97 [ 23 ]00Exit13 [ 111 ][ 0 ] [ 0 ]Total110 [ 134 ]
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL E
OCTOBER 27, 2015
↖6↖0↖0↖0↖←1[ 1 ]←[ 6 ]←8[ 8 ]←4[ 3 ]←4[ 3 ][ 0 ]←4[ 3 ][ 0 ]←4[ 3 ][ 0 ]←4[ 3 ]↙↓↘↙CORINTH RD↙14 [ 14 ]↙↘↙↙↓↘↙↙↓↘↙↙↓↘↙MAIN ST
↗↖↑↗↖↗4[ 6 ]↗↖↗↗0[ 0 ]↗↖↑↗0[ 0 ]↗↖↑↗0[ 0 ]↗↖↑↗
1[ 2 ]→0→1107[ 9 ]→3[ 3 ]→43[ 3 ]→3[ 3 ]→03[ 3 ]→03[ 3 ]→0↘[ 0 ]1[ 2 ]↘[ 1 ][ 13 ]3[ 4 ]↘[ 5 ]↘↘[ 0 ]0[ 0 ]↘[ 0 ]0[ 0 ]↘[ 0 ]
Parcel E
AMPM0↖Enter15 [ 16 ][ 0 ]Exit11 [ 14 ]↓↘↙Total26 [ 30 ]
↑↗
0[ 0 ]
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL G
OCTOBER 27, 2015
↖10↖6[ 8 ]0↖0↖0↖←2[ 2 ]←2 [ 2 ][ 9 ]←2[ 2 ]←7[ 8 ]←13 [ 16 ][ 0 ]←[ 0 ]←5[ 5 ][ 0 ]←5[ 5 ]↙↓↘↙CORINTH RD↙↙↘↙5[ 6 ]↙↓↘↙5[ 5 ]↙↓↘↙↙↓↘↙MAIN ST
↗↖↑↗↖↗↗↖↗↗0[ 0 ]↗↖↑↗0[ 0 ]↗↖↑↗0[ 0 ]↗↖↑↗
2[ 2 ]→02[ 2 ]→2[ 2 ]→12 [ 11 ]→7→33[ 5 ]→13003[ 5 ]→03[ 5 ]→0↘[ 0 ]↘↘[ 7 ]19 [ 18 ]↘[ 5 ]↘[ 16 ] [ 0 ] [ 0 ]0[ 0 ]↘[ 0 ]0[ 0 ]↘[ 0 ]

↓↘↙Parcel G
↑↗AMPM0Enter24 [ 23 ][ 0 ]Exit16 [ 21 ]Total40 [ 44 ]
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL H
OCTOBER 27, 2015
↖3↖1[ 3 ]1↖0↖0↖←0[ 3 ]←0 [ 3 ][ 1 ]←0[ 3 ]←0[ 6 ]←1[ 9 ][ 0 ]←[ 0 ]←3[ 1 ][ 0 ]←3[ 1 ]↙↓↘↙CORINTH RD↙↙↘↙0[ 3 ]↙↓↘↙3[ 1 ]↙↓↘↙↙↓↘↙MAIN ST
↗↖↑↗↖↗↗↖↗↗↗↖↑↗0[ 0 ]↗↖↑↗0[ 0 ]↗↖↑↗
4[ 1 ]→04[ 1 ]→4[ 1 ]→7[ 2 ]→411[ 2 ]→0→1011[ 3 ]→01[ 3 ]→0↘[ 0 ]↘↘[ 0 ]↘[ 0 ]11[ 2 ]↘[ 9 ] [ 1 ] [ 3 ]0[ 0 ]↘[ 0 ]0[ 0 ]↘[ 0 ]

Parcel H↓↘↙
AMPM↑↗Enter15 [ 3 ]0Exit2 [ 13 ][ 0 ]Total17 [ 16 ]
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL I
OCTOBER 27, 2015
↖2↖1[ 1 ]2↖0↖0↖←0[ 2 ]←0 [ 2 ][ 0 ]←0[ 2 ]←0[ 3 ]←1[ 4 ][ 0 ]←[ 0 ]←2[ 1 ][ 0 ]←2[ 1 ]↙↓↘↙CORINTH RD↙↙↘↙0[ 1 ]↙↓↘↙2[ 1 ]↙↓↘↙↙↓↘↙MAIN ST
↗↖↑↗↖↗↗↖↗↗↗↖↑↗0[ 0 ]↗↖↑↗0[ 0 ]↗↖↑↗
2[ 0 ]→02[ 0 ]→2[ 0 ]→4[ 0 ]→26[ 1 ]→0→1000[ 2 ]→00[ 2 ]→0↘[ 0 ]↘↘[ 1 ]↘[ 0 ]6[ 1 ]↘[ 4 ] [ 2 ] [ 2 ]0[ 0 ]↘[ 0 ]0[ 0 ]↘[ 0 ]

Parcel H↓↘↙
AMPM↑↗Enter10 [ 2 ]0Exit1 [ 8 ][ 0 ]Total11 [ 10 ]
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL J
OCTOBER 27, 2015
↖9↖7[ 8 ]11↖1↖0↖←12 [ 13 ]←12 [ 13 ][ 8 ]←12 [ 13 ]←19 [ 21 ]←26 [ 29 ][ 11 ]←[ 0 ]←13 [ 13 ][ 0 ]←11 [ 12 ]↙↓↘↙CORINTH RD↙↙↘↙7[ 8 ]↙↓↘↙14 [ 13 ]↙↓↘↙↙↓↘↙MAIN ST
↗↖↑↗↖↗↗↖↗↗↗↖↑↗0[ 1 ]↗↖↑↗0[ 0 ]↗↖↑↗
14 [ 13 ]→014 [ 13 ]→14 [ 13 ]→23 [ 21 ]→932 [ 29 ]→0→2691212 [ 12 ]→011 [ 11 ]→2↘[ 0 ]↘↘[ 8 ]↘[ 0 ]32 [ 29 ]↘[ 29 ] [ 10 ] [ 13 ]0[ 0 ]↘[ 0 ]1[ 1 ]↘[ 1 ]

Parcel J↓↘↙
AMPM↑↗Enter57 [ 53 ]0Exit47 [ 52 ][ 0 ]Total104 [ 105 ]
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL L – Retail Trips
OCTOBER 27, 2015
↖10↖5 [ 31 ]14↖1↖0↖←7 [ 42 ]←7 [ 52 ][ 27 ]←7 [ 52 ]←12 [ 82 ]←17 [ 113 ][ 37 ]←[ 1 ]←17 [ 45 ][ 1 ]←14 [ 40 ]↙↓↘↙0 [ 10 ]CORINTH RD↙↙↘↙5 [ 30 ]↙↓↘↙18 [ 46 ]↙↓↘↙↙↓↘↙MAIN ST
↗↖↑↗↖↗↗↖↗↗↗↖↑↗0[ 3 ]↗↖↑↗0[ 1 ]↗↖↑↗
15 [ 36 ]→318 [ 46 ]→18 [ 46 ]→28 [ 73 ]→1038 [ 100 ]→0→17688 [ 49 ]→08 [ 44 ]→3↘[ 10 ]↘↘[ 27 ]↘[ 0 ]38 [ 100 ]↘[ 113 ] [ 41 ] [ 52 ]0[ 0 ]↘[ 0 ]0[ 4 ]↘[ 4 ]
0↖
[ 10 ]Parcel L: Retail↓↘↙
AMPM↑↗Enter70 [ 183 ]3Exit31 [ 206 ][ 10 ]Total101 [ 389 ]
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL L – Hotel Trips
OCTOBER 27, 2015
↖0↖0[ 0 ]0↖0↖0↖←0[ 0 ]←0 [ 0 ][ 0 ]←0[ 0 ]←0[ 0 ]←0[ 0 ][ 0 ]←[ 0 ]←0[ 0 ][ 0 ]←0[ 0 ]↙↓↘↙0[ 0 ]CORINTH RD↙↙↘↙0[ 0 ]↙↓↘↙0[ 0 ]↙↓↘↙↙↓↘↙MAIN ST
↗↖↑↗↖↗↗↖↗↗↗↖↑↗0[ 0 ]↗↖↑↗0[ 0 ]↗↖↑↗
0[ 0 ]→00[ 0 ]→0[ 0 ]→0[ 0 ]→00[ 0 ]→0→0000[ 0 ]→00[ 0 ]→0↘[ 0 ]↘↘[ 0 ]↘[ 0 ]0[ 0 ]↘[ 0 ] [ 0 ] [ 0 ]0[ 0 ]↘[ 0 ]0[ 0 ]↘[ 0 ]
0↖
[ 0 ]Parcel L: Hotel↓↘↙
AMPM↑↗Enter0 [ 0 ]0Exit0 [ 0 ][ 0 ]Total0 [ 0 ]
NO HOTEL TRIPS IN COMBINATION WITH RETAIL (PARCEL L)
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL L ALL
OCTOBER 27, 2015
↖10↖5 [ 31 ]14↖1↖0↖←7 [ 42 ]←7 [ 52 ][ 27 ]←7 [ 52 ]←12 [ 82 ]←17 [ 113 ][ 37 ]←[ 1 ]←17 [ 45 ][ 1 ]←14 [ 40 ]↙↓↘↙0 [ 10 ]CORINTH RD↙↙↘↙5 [ 30 ]↙↓↘↙18 [ 46 ]↙↓↘↙↙↓↘↙MAIN ST
↗↖↑↗↖↗↗↖↗↗↗↖↑↗0[ 3 ]↗↖↑↗0[ 1 ]↗↖↑↗
15 [ 36 ]→318 [ 46 ]→18 [ 46 ]→28 [ 73 ]→1038 [ 100 ]→0→17688 [ 49 ]→08 [ 44 ]→3↘[ 10 ]↘↘[ 27 ]↘[ 0 ]38 [ 100 ]↘[ 113 ] [ 41 ] [ 52 ]0[ 0 ]↘[ 0 ]0[ 4 ]↘[ 4 ]
0↖
[ 10 ]Parcel L: Total↓↘↙
AMPM↑↗Enter70 [ 183 ]3Exit31 [ 206 ][ 10 ]Total101 [ 389 ]
BIGBAYROAD
MEDIADR
PINEST
BIGBOOMRD
RICHARDSONST
OLDBIGBOOMRD
I-87EXIT18NBRAMP
I-87EXIT18SBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NY
TRIP ROUTE ASSIGNMENT
PRIMARY TRIPS
PARCEL M
OCTOBER 27, 2015
↖9↖2 [ 26 ]12↖1↖0↖←8 [ 37 ]←11 [ 46 ][ 24 ]←11 [ 46 ]←13 [ 72 ]←15 [ 98 ][ 32 ]←[ 1 ]←14 [ 38 ][ 1 ]←12 [ 34 ]↙↓↘↙3[ 9 ]CORINTH RD↙↙↘↙2 [ 26 ]↙↓↘↙15 [ 39 ]↙↓↘↙↙↓↘↙MAIN ST
↗↖↑↗↖↗↗↖↗↗↗↖↑↗0[ 3 ]↗↖↑↗0[ 1 ]↗↖↑↗
12 [ 30 ]→315 [ 39 ]→15 [ 39 ]→24 [ 63 ]→90 [ 0 ]→0→15677 [ 40 ]→07 [ 36 ]→2↘[ 9 ]↘↘[ 24 ]33 [ 87 ]↘[ 0 ]0[ 0 ]↘[ 98 ] [ 35 ] [ 44 ]0[ 1 ]↘[ 0 ]0[ 3 ]↘[ 3 ]
3↖
[ 9 ]Parcel M↓↘↙
AMPM↑↗Enter60 [ 158 ]3Exit28 [ 177 ][ 9 ]Total88 [ 335 ]
BIGBAYROAD
I-87EXIT18SBRAMP
RICHARDSONST
MEDIADR
PINEST
BIGBOOMRD
OLDBIGBOOMRD
I-87EXIT18NBRAMP

EXIT 18 REZONE STUDY
TOWN OF QUEENSBURY, NYTRIP ROUTE ASSIGNMENT
PASS-BY TRIPS
COMBINED ALL PARCELS
OCTOBER 27. 2015
319↖4[ 11 ]00↖0[ 0 ]-10100↖0[ 0 ]000↖0[ 0 ]000↖0[ 0 ][ 11 ][ 2 ][ 13 ]←-6[ -22 ]←0[ 0 ][ 0 ][ 0 ]←0[ 0 ]←0[ 0 ]←0[ 0 ][ -27 ][ 27 ][ 0 ]←-34[ -89 ][ 0 ][ 0 ][ 0 ]←0[ 0 ][ 0 ][ 0 ][ 0 ]←0[ 0 ]↙↓↘↙2[ 11 ]CORINTH RD↙0[ 0 ]↙↘↙0[ 0 ]↙↓↘↙34[ 89 ]↙↓↘↙0[ 0 ]↙↓↘↙0[ 0 ]MAIN ST
7[ 10 ]↗↖↑↗↖↗0[ 0 ]↗↖↗↗-8[ -17 ]↗↖↑↗0[ 0 ]↗↖↑↗0[ 0 ]↗↖↑↗-13[ -24 ]→3240[ 0 ]→000[ 0 ]→0[ 0 ]→000[ 0 ]→0-50[ -115 ]→4410500[ 0 ]→0000[ 0 ]→0006[ 14 ]↘[ 12 ][ 4 ][ 11 ]0[ 0 ]↘[ 0 ][ 0 ]0[ 0 ]↘[ 0 ][ 0 ]0[ 0 ]↘[ 0 ]58[ 132 ]↘[ 116 ][ 18 ] [ 115 ]0[ 0 ]↘[ 0 ][ 0 ][ 0 ]0[ 0 ]↘[ 0 ][ 0 ][ 0 ]
-110↖10[ 32 ][ -4 ][ 31 ]All Parcels↓↘↙1[ 4 ]AMPM↑↗Enter126 [ 309 ]-11Exit128 [ 311 ][ -5 ][ 5 ]Total254 [ 620 ]
BIGBAYROAD
MEDIADR
PINESTRICHARDSONST
I-87EXIT18SBRAMP
I-87EXIT18NBRAMP
OLDBIGBOOMRD
BIGBOOMRD

Exit 18 Rezone Study – Queensbury, NY

Appendix C

Capacity Analysis Worksheets

QueuesEXISTING AM
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 1
Lane GroupEBTWBL WBTNBL
Lane Group Flow (vph)747134339204
v/c Ratio0.730.340.270.54
Control Delay19.66.34.712.4
Queue Delay0.00.00.00.0
Total Delay19.66.34.712.4
Queue Length 50th (ft)17392613
Queue Length 95th (ft)#5684511062
Internal Link Dist (ft)589656426
Turn Bay Length (ft)247
Base Capacity (vph)1025476 1380691
Starvation Cap Reductn0000
Spillback Cap Reductn0000
Storage Cap Reductn0000
Reduced v/c Ratio0.730.280.250.30
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisEXISTING AM
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 2
MovementEBTEBRWBL WBTNBLNBR
Lane Configurations
Volume (vph)6801512531540150
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900
Lane Width121211121212
Total Lost time (s)4.04.04.04.0
Lane Util. Factor1.001.001.001.00
Frpb, ped/bikes1.001.001.001.00
Flpb, ped/bikes1.001.001.001.00
Frt1.001.001.000.89
Flt Protected1.000.951.000.99
Satd. Flow (prot)18551662 1792 1571
Flt Permitted1.000.181.000.99
Satd. Flow (perm)1855315 1792 1571
Peak-hour factor, PHF0.930.930.930.930.930.93
Adj. Flow (vph)7311613433943161
RTOR Reduction (vph)10001360
Lane Group Flow (vph)7460134339680
Confl. Peds. (#/hr)555
Heavy Vehicles (%)2%6%5%6%3%8%
Turn TypeNApm+ptNAProt
Protected Phases1253
Permitted Phases5
Actuated Green, G (s)32.742.842.89.2
Effective Green, g (s)32.742.842.89.2
Actuated g/C Ratio0.550.710.710.15
Clearance Time (s)4.04.04.04.0
Vehicle Extension (s)3.03.03.03.0
Lane Grp Cap (vph)1010361 1278240
v/s Ratio Protc0.40c0.040.19 c0.04
v/s Ratio Perm0.23
v/c Ratio0.740.370.270.28
Uniform Delay, d110.46.63.022.5
Progression Factor1.001.001.001.00
Incremental Delay, d22.90.60.10.6
Delay (s)13.37.23.223.1
Level of ServiceBAAC
Approach Delay (s)13.34.323.1
Approach LOSBAC
Intersection Summary
HCM 2000 Control Delay11.7HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.61
Actuated Cycle Length (s)60.0Sum of lost time (s)12.0
Intersection Capacity Utilization65.1%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesEXISTING AM
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 3
Lane GroupEBTEBRWBL WBTSBTSBR
Lane Group Flow (vph)663245424370212185
v/c Ratio0.460.300.780.330.660.44
Control Delay18.53.725.22.942.98.6
Queue Delay0.00.00.10.00.00.0
Total Delay18.53.725.32.942.98.6
Queue Length 50th (ft)1210102441090
Queue Length 95th (ft)21846 #2537218853
Internal Link Dist (ft)656424 1060
Turn Bay Length (ft)235260
Base Capacity (vph)1686912669 1294561594
Starvation Cap Reductn009000
Spillback Cap Reductn3300000
Storage Cap Reductn000000
Reduced v/c Ratio0.400.270.640.290.380.31
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisEXISTING AM
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 4
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)061022539034000001950170
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111112101188121281212
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor0.951.001.001.001.001.00
Frpb, ped/bikes1.000.971.001.001.000.97
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.851.001.001.000.85
Flt Protected1.001.000.951.000.951.00
Satd. Flow (prot)3261 1539 1588 17011736 1454
Flt Permitted1.001.000.341.000.951.00
Satd. Flow (perm)3261 1539565 17011736 1454
Peak-hour factor, PHF0.920.920.920.920.920.920.920.920.920.920.920.92
Adj. Flow (vph)066324542437000002120185
RTOR Reduction (vph)0013600000000150
Lane Group Flow (vph)06631094243700000021235
Confl. Peds. (#/hr)555
Heavy Vehicles (%)0%7%2%6%8%0%0%0%0%4%0%8%
Turn TypeNA Perm pm+ptNAPermNA Perm
Protected Phases12 1 2 53
Permitted Phases1 1 2 533
Actuated Green, G (s)35.935.951.851.815.115.1
Effective Green, g (s)35.935.951.851.815.115.1
Actuated g/C Ratio0.450.450.640.640.190.19
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)4.04.02.02.02.0
Lane Grp Cap (vph)1452685548 1093325272
v/s Ratio Prot0.20c0.140.22
v/s Ratio Perm0.07 c0.360.120.02
v/c Ratio0.460.160.770.340.650.13
Uniform Delay, d115.613.315.06.630.327.3
Progression Factor1.001.000.920.381.001.00
Incremental Delay, d20.30.15.50.23.60.1
Delay (s)15.913.519.22.733.927.3
Level of ServiceBBBACC
Approach Delay (s)15.211.50.030.8
Approach LOSBBAC
Intersection Summary
HCM 2000 Control Delay16.8HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.76
Actuated Cycle Length (s)80.6Sum of lost time (s)15.0
Intersection Capacity Utilization63.9%ICU Level of ServiceB
Analysis Period (min)15
c Critical Lane Group

QueuesEXISTING AM
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 5
Lane GroupEBLEBTWBTNBLNBTNBR
Lane Group Flow (vph)266609870158283282
v/c Ratio0.600.500.570.510.530.53
Control Delay20.75.318.438.16.16.1
Queue Delay0.00.30.10.00.00.0
Total Delay20.75.518.638.16.16.1
Queue Length 50th (ft)53841587900
Queue Length 95th (ft)1594602841444343
Internal Link Dist (ft)424376672
Turn Bay Length (ft)290380
Base Capacity (vph)594 1358 1702535686686
Starvation Cap Reductn0239168000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.450.540.570.300.410.41
Intersection Summary

HCM Signalized Intersection Capacity AnalysisEXISTING AM
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 6
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)245560005852151450520000
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width10118812111212128128
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.000.951.000.950.95
Frpb, ped/bikes1.001.000.991.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.000.961.000.850.85
Flt Protected0.951.001.000.951.001.00
Satd. Flow (prot)1589 176632331656 1446 1446
Flt Permitted0.241.001.000.951.001.00
Satd. Flow (perm)401 176632331656 1446 1446
Peak-hour factor, PHF0.920.920.920.920.920.920.920.920.920.920.920.92
Adj. Flow (vph)266609006362341580565000
RTOR Reduction (vph)00003400230229000
Lane Group Flow (vph)2666090083601585353000
Confl. Peds. (#/hr)555
Heavy Vehicles (%)6%4%0%0%5%10%9%0%4%0%0%0%
Turn Typepm+ptNANAPermNA Perm
Protected Phases6 1 5 657
Permitted Phases1 5 677
Actuated Green, G (s)50.555.537.215.115.115.1
Effective Green, g (s)50.555.537.215.115.115.1
Actuated g/C Ratio0.630.690.460.190.190.19
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)2.04.02.02.02.0
Lane Grp Cap (vph)447 12161492310270270
v/s Ratio Prot0.10 c0.340.260.04
v/s Ratio Permc0.27c0.100.04
v/c Ratio0.600.500.560.510.200.20
Uniform Delay, d117.06.015.829.427.627.6
Progression Factor1.000.561.001.001.001.00
Incremental Delay, d21.30.40.60.50.10.1
Delay (s)18.33.716.329.927.827.8
Level of ServiceBABCCC
Approach Delay (s)8.116.328.20.0
Approach LOSABCA
Intersection Summary
HCM 2000 Control Delay16.9HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.59
Actuated Cycle Length (s)80.6Sum of lost time (s)15.0
Intersection Capacity Utilization63.9%ICU Level of ServiceB
Analysis Period (min)15
c Critical Lane Group

QueuesEXISTING AM
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 7
Lane GroupEBLEBTWBL WBTNBTSBLSBT
Lane Group Flow (vph)178 1023176846117195
v/c Ratio0.410.430.060.740.730.060.50
Control Delay15.810.410.324.674.629.410.0
Queue Delay0.00.30.00.00.00.00.0
Total Delay15.810.710.324.674.629.410.0
Queue Length 50th (ft)166032152073
Queue Length 95th (ft)8638314 #686722657
Internal Link Dist (ft)376131742425
Turn Bay Length (ft)11560100
Base Capacity (vph)533 2497471 1138196524964
Starvation Cap Reductn074600000
Spillback Cap Reductn0000000
Storage Cap Reductn0000000
Reduced v/c Ratio0.330.580.040.600.310.030.20
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisEXISTING AM
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 8
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)16090515156001530520155170
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width11121212128812812128
Total Lost time (s)5.05.05.05.05.05.05.0
Lane Util. Factor1.000.951.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.000.991.000.97
Flpb, ped/bikes1.001.001.001.001.001.001.00
Frt1.001.001.001.000.951.000.85
Flt Protected0.951.000.951.000.970.951.00
Satd. Flow (prot)1678 34881612 177114751805 1534
Flt Permitted0.211.000.221.000.380.791.00
Satd. Flow (perm)363 3488375 17715691492 1534
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)178 100617176671733622176189
RTOR Reduction (vph)010010018001560
Lane Group Flow (vph)178 10220176830043017390
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)4%3%14%12%7%0%25%0%14%0%0%3%
Turn Typepm+ptNApm+ptNAPermNApm+ptNA
Protected Phases6125347
Permitted Phases1537
Actuated Green, G (s)64.056.845.343.18.215.915.9
Effective Green, g (s)64.056.845.343.18.215.915.9
Actuated g/C Ratio0.710.630.500.480.090.180.18
Clearance Time (s)5.05.05.05.05.05.05.0
Vehicle Extension (s)2.05.02.05.02.02.02.0
Lane Grp Cap (vph)490 220321984951273271
v/s Ratio Protc0.06 c0.290.00 c0.390.00 c0.03
v/s Ratio Perm0.190.04c0.080.01
v/c Ratio0.360.460.080.810.840.060.15
Uniform Delay, d118.28.616.619.840.231.731.3
Progression Factor1.001.001.001.001.001.001.00
Incremental Delay, d20.20.30.16.466.70.00.1
Delay (s)18.48.916.726.2106.931.831.4
Level of ServiceBABCFCC
Approach Delay (s)10.326.0106.931.4
Approach LOSBCFC
Intersection Summary
HCM 2000 Control Delay20.1HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.70
Actuated Cycle Length (s)89.9Sum of lost time (s)20.0
Intersection Capacity Utilization76.8%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesEXISTING AM
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 9
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)339401667845
v/c Ratio0.070.730.000.530.030.17
Control Delay11.120.012.017.320.312.8
Queue Delay0.00.00.00.00.00.0
Total Delay11.120.012.017.320.312.8
Queue Length 50th (ft)113207323
Queue Length 95th (ft)33 #10974 #7911432
Internal Link Dist (ft)9201135476583
Turn Bay Length (ft)15050
Base Capacity (vph)534 1291313 1254802688
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.060.730.000.530.010.07
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisEXISTING AM
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 10
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)30845115901051110130
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111281112881188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.001.001.000.980.90
Flt Protected0.951.000.951.000.960.99
Satd. Flow (prot)1694 18441745 180217351453
Flt Permitted0.271.000.121.000.960.99
Satd. Flow (perm)474 1844217 180217351453
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)33939116561161111133
RTOR Reduction (vph)0000000100300
Lane Group Flow (vph)339400166700700150
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)3%3%0%0%5%11%0%0%0%0%0%14%
Turn Typepm+ptNApm+ptNASplitNASplitNA
Protected Phases61253344
Permitted Phases15
Actuated Green, G (s)35.034.134.433.82.65.5
Effective Green, g (s)35.034.134.433.82.65.5
Actuated g/C Ratio0.560.540.550.540.040.09
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)281 100113396971127
v/s Ratio Protc0.00 c0.510.000.37c0.00c0.01
v/s Ratio Perm0.060.00
v/c Ratio0.120.940.010.690.100.12
Uniform Delay, d113.313.423.910.629.026.4
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.215.70.02.00.60.4
Delay (s)13.429.023.912.729.626.8
Level of ServiceBCCBCC
Approach Delay (s)28.512.729.626.8
Approach LOSCBCC
Intersection Summary
HCM 2000 Control Delay22.2HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.77
Actuated Cycle Length (s)62.8Sum of lost time (s)20.0
Intersection Capacity Utilization59.2%ICU Level of ServiceB
Analysis Period (min)15
c Critical Lane Group

QueuesEXISTING AM
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 11
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)11856154511761
v/c Ratio0.030.950.000.610.280.13
Control Delay7.940.38.017.419.815.8
Queue Delay0.00.00.00.00.00.0
Total Delay7.940.38.017.419.815.8
Queue Length 50th (ft)230201463314
Queue Length 95th (ft)8 #68823228646
Internal Link Dist (ft)1135550599330
Turn Bay Length (ft)5065
Base Capacity (vph)702898529888415472
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.020.950.000.610.280.13
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisEXISTING AM
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 12
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)10710601485590105301510
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width1112812121281188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.99
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.991.001.000.990.98
Flt Protected0.951.000.951.000.960.97
Satd. Flow (prot)1745 18161805 180716361622
Flt Permitted0.301.000.121.000.730.84
Satd. Flow (perm)545 1816224 180712411394
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)117896715396100116331711
RTOR Reduction (vph)030010020080
Lane Group Flow (vph)11853015440011500530
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)0%3%5%0%5%0%7%8%0%7%0%18%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)35.234.135.034.023.123.1
Effective Green, g (s)35.234.135.034.023.123.1
Actuated g/C Ratio0.480.470.480.460.320.32
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)280845128839391439
v/s Ratio Protc0.00 c0.470.000.30
v/s Ratio Perm0.020.00c0.090.04
v/c Ratio0.041.010.010.650.290.12
Uniform Delay, d110.919.616.115.018.917.8
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.133.40.01.71.90.1
Delay (s)11.053.016.116.820.818.0
Level of ServiceBDBBCB
Approach Delay (s)52.416.820.818.0
Approach LOSDBCB
Intersection Summary
HCM 2000 Control Delay36.5HCM 2000 Level of ServiceD
HCM 2000 Volume to Capacity ratio0.71
Actuated Cycle Length (s)73.2Sum of lost time (s)15.0
Intersection Capacity Utilization68.5%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesEXISTING PM
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 1
Lane GroupEBTWBL WBTNBL
Lane Group Flow (vph)540112459194
v/c Ratio0.640.240.380.46
Control Delay16.65.55.910.5
Queue Delay0.00.00.00.0
Total Delay16.65.55.910.5
Queue Length 50th (ft)10383810
Queue Length 95th (ft)3073915461
Internal Link Dist (ft)589656426
Turn Bay Length (ft)247
Base Capacity (vph)1187583 1689857
Starvation Cap Reductn0000
Spillback Cap Reductn0000
Storage Cap Reductn0000
Reduced v/c Ratio0.450.190.270.23
Intersection Summary

HCM Signalized Intersection Capacity AnalysisEXISTING PM
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 2
MovementEBTEBRWBL WBTNBLNBR
Lane Configurations
Volume (vph)5102011045045145
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900
Lane Width121211121212
Total Lost time (s)4.04.04.04.0
Lane Util. Factor1.001.001.001.00
Frpb, ped/bikes1.001.001.001.00
Flpb, ped/bikes1.001.001.001.00
Frt0.991.001.000.90
Flt Protected1.000.951.000.99
Satd. Flow (prot)18231661 1881 1634
Flt Permitted1.000.261.000.99
Satd. Flow (perm)1823462 1881 1634
Peak-hour factor, PHF0.980.980.980.980.980.98
Adj. Flow (vph)5202011245946148
RTOR Reduction (vph)20001210
Lane Group Flow (vph)5380112459730
Confl. Peds. (#/hr)555
Heavy Vehicles (%)3%20%5%1%0%4%
Turn TypeNApm+ptNAProt
Protected Phases1253
Permitted Phases5
Actuated Green, G (s)22.632.332.38.9
Effective Green, g (s)22.632.332.38.9
Actuated g/C Ratio0.460.660.660.18
Clearance Time (s)4.04.04.04.0
Vehicle Extension (s)3.03.03.03.0
Lane Grp Cap (vph)837442 1234295
v/s Ratio Protc0.300.03 c0.24 c0.04
v/s Ratio Perm0.14
v/c Ratio0.640.250.370.25
Uniform Delay, d110.24.63.817.3
Progression Factor1.001.001.001.00
Incremental Delay, d21.70.30.20.4
Delay (s)11.94.94.017.7
Level of ServiceBAAB
Approach Delay (s)11.94.217.7
Approach LOSBAB
Intersection Summary
HCM 2000 Control Delay9.4HCM 2000 Level of ServiceA
HCM 2000 Volume to Capacity ratio0.52
Actuated Cycle Length (s)49.2Sum of lost time (s)12.0
Intersection Capacity Utilization55.6%ICU Level of ServiceB
Analysis Period (min)15
c Critical Lane Group

QueuesEXISTING PM
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 3
Lane GroupEBTEBRWBL WBTSBTSBR
Lane Group Flow (vph)546168500418194224
v/c Ratio0.410.240.750.350.620.48
Control Delay19.34.021.43.041.18.3
Queue Delay0.00.00.00.10.00.0
Total Delay19.34.021.43.141.18.3
Queue Length 50th (ft)99011755980
Queue Length 95th (ft)17439 #2908817357
Internal Link Dist (ft)656424 1060
Turn Bay Length (ft)235260
Base Capacity (vph)1733882723 1267549642
Starvation Cap Reductn00015900
Spillback Cap Reductn1800000
Storage Cap Reductn000000
Reduced v/c Ratio0.320.190.690.380.350.35
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisEXISTING PM
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 4
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)053516549041000001900220
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111112101188121281212
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor0.951.001.001.001.001.00
Frpb, ped/bikes1.000.971.001.001.000.97
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.851.001.001.000.85
Flt Protected1.001.000.951.000.951.00
Satd. Flow (prot)3355 1554 1650 17831703 1524
Flt Permitted1.001.000.401.000.951.00
Satd. Flow (perm)3355 1554690 17831703 1524
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)054616850041800001940224
RTOR Reduction (vph)0010100000000182
Lane Group Flow (vph)0546675004180000019442
Confl. Peds. (#/hr)555
Heavy Vehicles (%)0%4%1%2%3%0%0%0%0%6%0%3%
Turn TypeNA Perm pm+ptNAPermNA Perm
Protected Phases12 1 2 53
Permitted Phases1 1 2 533
Actuated Green, G (s)32.032.055.455.415.015.0
Effective Green, g (s)32.032.055.455.415.015.0
Actuated g/C Ratio0.400.400.690.690.190.19
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)4.04.02.02.02.0
Lane Grp Cap (vph)1335618695 1228317284
v/s Ratio Prot0.16c0.160.23
v/s Ratio Perm0.04 c0.330.110.03
v/c Ratio0.410.110.720.340.610.15
Uniform Delay, d117.415.211.85.130.027.4
Progression Factor1.001.000.900.391.001.00
Incremental Delay, d20.30.12.60.22.50.1
Delay (s)17.715.313.22.232.527.4
Level of ServiceBBBACC
Approach Delay (s)17.18.20.029.8
Approach LOSBAAC
Intersection Summary
HCM 2000 Control Delay15.7HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.73
Actuated Cycle Length (s)80.4Sum of lost time (s)15.0
Intersection Capacity Utilization67.5%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesEXISTING PM
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 5
Lane GroupEBLEBTWBTNBLNBTNBR
Lane Group Flow (vph)235505964204255255
v/c Ratio0.560.420.600.620.430.43
Control Delay22.14.719.041.02.22.2
Queue Delay0.00.20.20.00.00.0
Total Delay22.14.919.241.02.22.2
Queue Length 50th (ft)477518210300
Queue Length 95th (ft)14811832218100
Internal Link Dist (ft)424376672
Turn Bay Length (ft)290380
Base Capacity (vph)586 1393 1767571743743
Starvation Cap Reductn0271205000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.400.450.620.360.340.34
Intersection Summary

HCM Signalized Intersection Capacity AnalysisEXISTING PM
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 6
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)230495007002452000500000
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width10118812111212128128
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.000.951.000.950.95
Frpb, ped/bikes1.001.000.991.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.000.961.000.850.85
Flt Protected0.951.001.000.951.001.00
Satd. Flow (prot)1635 176633681770 1460 1460
Flt Permitted0.201.001.000.951.001.00
Satd. Flow (perm)353 176633681770 1460 1460
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)235505007142502040510000
RTOR Reduction (vph)00003100207207000
Lane Group Flow (vph)2355050093302044848000
Confl. Peds. (#/hr)555
Heavy Vehicles (%)3%4%0%0%2%3%2%0%3%0%0%0%
Turn Typepm+ptNANAPermNA Perm
Protected Phases6 1 5 657
Permitted Phases1 5 677
Actuated Green, G (s)50.455.437.815.015.015.0
Effective Green, g (s)50.455.437.815.015.015.0
Actuated g/C Ratio0.630.690.470.190.190.19
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)2.04.02.02.02.0
Lane Grp Cap (vph)422 12161583330272272
v/s Ratio Protc0.09 c0.29c0.280.03
v/s Ratio Perm0.26c0.120.03
v/c Ratio0.560.420.590.620.170.17
Uniform Delay, d117.95.415.630.127.527.5
Progression Factor1.090.571.001.001.001.00
Incremental Delay, d20.90.30.72.40.10.1
Delay (s)20.43.416.332.527.627.6
Level of ServiceCABCCC
Approach Delay (s)8.816.329.00.0
Approach LOSABCA
Intersection Summary
HCM 2000 Control Delay17.8HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.60
Actuated Cycle Length (s)80.4Sum of lost time (s)15.0
Intersection Capacity Utilization67.5%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesEXISTING PM
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 7
Lane GroupEBLEBTWBL WBTNBTSBLSBT
Lane Group Flow (vph)132916267278416243
v/c Ratio0.350.420.070.730.990.060.54
Control Delay14.514.48.623.6 127.428.19.6
Queue Delay0.00.40.00.00.00.00.0
Total Delay14.514.88.623.6 127.428.19.6
Queue Length 50th (ft)14625227~3365
Queue Length 95th (ft)6532618 #726 #1202564
Internal Link Dist (ft)376131742425
Turn Bay Length (ft)11560100
Base Capacity (vph)519 2270516 1119171518956
Starvation Cap Reductn075100000
Spillback Cap Reductn0000000
Storage Cap Reductn0000000
Reduced v/c Ratio0.250.600.050.650.490.030.25
Intersection Summary
~ Volume exceeds capacity, queue is theoretically infinite.
Queue shown is maximum after two cycles.
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisEXISTING PM
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 8
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)125860102568010455301510220
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width11121212128812812128
Total Lost time (s)5.05.05.05.05.05.05.0
Lane Util. Factor1.000.951.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.000.991.000.97
Flpb, ped/bikes1.001.001.001.001.001.001.00
Frt1.001.001.001.000.951.000.86
Flt Protected0.951.000.951.000.970.951.00
Satd. Flow (prot)1728 34861671 182315731805 1548
Flt Permitted0.201.000.251.000.320.721.00
Satd. Flow (perm)357 3486441 18235091376 1548
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)132905112671611475321611232
RTOR Reduction (vph)000000020001870
Lane Group Flow (vph)1329160267270064016560
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)1%3%30%8%4%0%15%20%3%0%8%2%
Turn Typepm+ptNApm+ptNAPermNApm+ptNA
Protected Phases6125347
Permitted Phases1537
Actuated Green, G (s)63.953.152.346.59.917.617.6
Effective Green, g (s)63.953.152.346.59.917.617.6
Actuated g/C Ratio0.700.580.570.510.110.190.19
Clearance Time (s)5.05.05.05.05.05.05.0
Vehicle Extension (s)2.05.02.05.02.02.02.0
Lane Grp Cap (vph)435 202333092655277297
v/s Ratio Protc0.04 c0.260.00 c0.400.00 c0.04
v/s Ratio Perm0.170.04c0.130.01
v/c Ratio0.300.450.080.781.170.060.19
Uniform Delay, d118.910.913.418.440.832.531.0
Progression Factor1.001.001.001.001.001.001.00
Incremental Delay, d20.10.30.05.1175.20.00.1
Delay (s)19.111.313.423.5216.032.531.1
Level of ServiceBBBCFCC
Approach Delay (s)12.223.2216.031.2
Approach LOSBCFC
Intersection Summary
HCM 2000 Control Delay26.3HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.75
Actuated Cycle Length (s)91.5Sum of lost time (s)20.0
Intersection Capacity Utilization82.8%ICU Level of ServiceE
Analysis Period (min)15
c Critical Lane Group

QueuesEXISTING PM
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 9
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)588521716733
v/c Ratio0.130.590.000.590.030.13
Control Delay13.416.413.020.916.615.1
Queue Delay0.00.00.00.00.00.0
Total Delay13.416.413.020.916.615.1
Queue Length 50th (ft)0007913
Queue Length 95th (ft)49 #9834 #8531228
Internal Link Dist (ft)9201135476583
Turn Bay Length (ft)15050
Base Capacity (vph)479 1443322 1204725681
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.120.590.000.590.010.05
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisEXISTING PM
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 10
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)55805516651511510120
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111281112881188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.001.001.000.900.91
Flt Protected0.951.000.951.000.990.98
Satd. Flow (prot)1678 18611745 181916161498
Flt Permitted0.221.000.141.000.990.98
Satd. Flow (perm)394 1861257 181916161498
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)58847517001611511121
RTOR Reduction (vph)0000000500200
Lane Group Flow (vph)588520171600200130
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)4%2%0%0%4%6%0%0%0%25%0%0%
Turn Typepm+ptNApm+ptNASplitNASplitNA
Protected Phases61253344
Permitted Phases15
Actuated Green, G (s)43.437.833.432.82.64.1
Effective Green, g (s)43.437.833.432.82.64.1
Actuated g/C Ratio0.670.580.510.500.040.06
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)373 10801459166494
v/s Ratio Protc0.01 c0.460.000.39c0.00c0.01
v/s Ratio Perm0.090.00
v/c Ratio0.160.790.010.780.030.14
Uniform Delay, d112.110.620.213.230.028.8
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.23.90.04.40.20.7
Delay (s)12.314.520.217.630.329.5
Level of ServiceBBCBCC
Approach Delay (s)14.317.630.329.5
Approach LOSBBCC
Intersection Summary
HCM 2000 Control Delay16.1HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.65
Actuated Cycle Length (s)65.1Sum of lost time (s)20.0
Intersection Capacity Utilization60.4%ICU Level of ServiceB
Analysis Period (min)15
c Critical Lane Group

QueuesEXISTING PM
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 11
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)2178456167538
v/c Ratio0.070.860.020.690.150.07
Control Delay8.228.87.819.718.314.1
Queue Delay0.00.00.00.00.00.0
Total Delay8.228.87.819.718.314.1
Queue Length 50th (ft)42551175217
Queue Length 95th (ft)13 #6045 #4275931
Internal Link Dist (ft)1135550599330
Turn Bay Length (ft)5065
Base Capacity (vph)649907529896484538
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.030.860.010.690.150.07
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisEXISTING PM
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 12
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)206806555751055151101510
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width1112812121281188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.99
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.991.001.001.000.96
Flt Protected0.951.000.951.000.960.99
Satd. Flow (prot)1662 18341805 182217641672
Flt Permitted0.231.000.121.000.790.94
Satd. Flow (perm)409 1834224 182214511591
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)217166856051158161111611
RTOR Reduction (vph)030010010080
Lane Group Flow (vph)2178105615007400300
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)5%2%2%0%4%0%0%0%0%0%0%11%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)35.434.235.034.023.123.1
Effective Green, g (s)35.434.235.034.023.123.1
Actuated g/C Ratio0.480.470.480.460.320.32
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)218855128845457501
v/s Ratio Protc0.00 c0.430.000.34
v/s Ratio Perm0.040.02c0.050.02
v/c Ratio0.100.910.040.730.160.06
Uniform Delay, d111.618.214.315.918.117.5
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.214.00.13.20.80.1
Delay (s)11.832.114.419.118.917.6
Level of ServiceBCBBBB
Approach Delay (s)31.619.018.917.6
Approach LOSCBBB
Intersection Summary
HCM 2000 Control Delay25.6HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.60
Actuated Cycle Length (s)73.3Sum of lost time (s)15.0
Intersection Capacity Utilization67.3%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build AM
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 1
Lane GroupEBTWBL WBTNBL
Lane Group Flow (vph)793142362216
v/c Ratio0.770.390.280.56
Control Delay21.57.14.812.6
Queue Delay0.00.00.00.0
Total Delay21.57.14.812.6
Queue Length 50th (ft)193102914
Queue Length 95th (ft)#6174711865
Internal Link Dist (ft)589656426
Turn Bay Length (ft)247
Base Capacity (vph)1025449 1367692
Starvation Cap Reductn0000
Spillback Cap Reductn0000
Storage Cap Reductn0000
Reduced v/c Ratio0.770.320.260.31
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisNo Build AM
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 2
MovementEBTEBRWBL WBTNBLNBR
Lane Configurations
Volume (vph)7201813233743158
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900
Lane Width121211121212
Total Lost time (s)4.04.04.04.0
Lane Util. Factor1.001.001.001.00
Frpb, ped/bikes1.001.001.001.00
Flpb, ped/bikes1.001.001.001.00
Frt1.001.001.000.89
Flt Protected1.000.951.000.99
Satd. Flow (prot)18541662 1792 1571
Flt Permitted1.000.151.000.99
Satd. Flow (perm)1854267 1792 1571
Peak-hour factor, PHF0.930.930.930.930.930.93
Adj. Flow (vph)7741914236246170
RTOR Reduction (vph)10001440
Lane Group Flow (vph)7920142362720
Confl. Peds. (#/hr)555
Heavy Vehicles (%)2%6%5%6%3%8%
Turn TypeNApm+ptNAProt
Protected Phases1253
Permitted Phases5
Actuated Green, G (s)33.043.243.29.2
Effective Green, g (s)33.043.243.29.2
Actuated g/C Ratio0.550.720.720.15
Clearance Time (s)4.04.04.04.0
Vehicle Extension (s)3.03.03.03.0
Lane Grp Cap (vph)1012334 1281239
v/s Ratio Protc0.43c0.040.20 c0.05
v/s Ratio Perm0.26
v/c Ratio0.780.430.280.30
Uniform Delay, d110.97.63.122.7
Progression Factor1.001.001.001.00
Incremental Delay, d24.00.90.10.7
Delay (s)14.98.53.223.5
Level of ServiceBAAC
Approach Delay (s)14.94.723.5
Approach LOSBAC
Intersection Summary
HCM 2000 Control Delay12.7HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.65
Actuated Cycle Length (s)60.4Sum of lost time (s)12.0
Intersection Capacity Utilization68.4%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build AM
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 3
Lane GroupEBTEBRWBL WBTSBTSBR
Lane Group Flow (vph)702258446404223202
v/c Ratio0.490.320.830.350.690.47
Control Delay19.83.730.63.045.78.5
Queue Delay0.00.00.00.30.00.0
Total Delay19.83.730.63.345.78.5
Queue Length 50th (ft)1460140521230
Queue Length 95th (ft)23348 #3087919855
Internal Link Dist (ft)656424 1060
Turn Bay Length (ft)235260
Base Capacity (vph)1593882620 1265530583
Starvation Cap Reductn00036300
Spillback Cap Reductn3500000
Storage Cap Reductn000000
Reduced v/c Ratio0.450.290.720.450.420.35
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisNo Build AM
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 4
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)064623741037200002050186
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111112101188121281212
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor0.951.001.001.001.001.00
Frpb, ped/bikes1.000.971.001.001.000.97
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.851.001.001.000.85
Flt Protected1.001.000.951.000.951.00
Satd. Flow (prot)3261 1539 1588 17011736 1453
Flt Permitted1.001.000.311.000.951.00
Satd. Flow (perm)3261 1539521 17011736 1453
Peak-hour factor, PHF0.920.920.920.920.920.920.920.920.920.920.920.92
Adj. Flow (vph)070225844640400002230202
RTOR Reduction (vph)0014400000000164
Lane Group Flow (vph)07021144464040000022338
Confl. Peds. (#/hr)555
Heavy Vehicles (%)0%7%2%6%8%0%0%0%0%4%0%8%
Turn TypeNA Perm pm+ptNAPermNA Perm
Protected Phases12 1 2 53
Permitted Phases1 1 2 533
Actuated Green, G (s)37.337.354.454.415.815.8
Effective Green, g (s)37.337.354.454.415.815.8
Actuated g/C Ratio0.440.440.640.640.190.19
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)4.04.02.02.02.0
Lane Grp Cap (vph)1439679542 1095324271
v/s Ratio Prot0.22c0.160.24
v/s Ratio Perm0.07 c0.370.130.03
v/c Ratio0.490.170.820.370.690.14
Uniform Delay, d116.814.216.57.032.128.7
Progression Factor1.001.000.960.381.001.00
Incremental Delay, d20.40.28.00.24.80.1
Delay (s)17.214.423.92.936.828.8
Level of ServiceBBCADC
Approach Delay (s)16.413.90.033.0
Approach LOSBBAC
Intersection Summary
HCM 2000 Control Delay18.6HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.80
Actuated Cycle Length (s)84.5Sum of lost time (s)15.0
Intersection Capacity Utilization66.3%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build AM
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 5
Lane GroupEBLEBTWBTNBLNBTNBR
Lane Group Flow (vph)280645924172298297
v/c Ratio0.620.530.620.560.580.58
Control Delay24.15.820.640.48.88.7
Queue Delay0.00.50.20.00.00.0
Total Delay24.16.220.840.48.88.7
Queue Length 50th (ft)83951969200
Queue Length 95th (ft)1864943091556767
Internal Link Dist (ft)424376672
Turn Bay Length (ft)290380
Base Capacity (vph)545 1329 1611505650650
Starvation Cap Reductn0286157000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.510.620.640.340.460.46
Intersection Summary

HCM Signalized Intersection Capacity AnalysisNo Build AM
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 6
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)258593006242261580547000
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width10118812111212128128
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.000.951.000.950.95
Frpb, ped/bikes1.001.000.991.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.000.961.000.850.85
Flt Protected0.951.001.000.951.001.00
Satd. Flow (prot)1589 176632351656 1446 1446
Flt Permitted0.211.001.000.951.001.00
Satd. Flow (perm)351 176632351656 1446 1446
Peak-hour factor, PHF0.920.920.920.920.920.920.920.920.920.920.920.92
Adj. Flow (vph)280645006782461720595000
RTOR Reduction (vph)00003400242241000
Lane Group Flow (vph)2806450089001725656000
Confl. Peds. (#/hr)555
Heavy Vehicles (%)6%4%0%0%5%10%9%0%4%0%0%0%
Turn Typepm+ptNANAPermNA Perm
Protected Phases6 1 5 657
Permitted Phases1 5 677
Actuated Green, G (s)53.758.738.015.815.815.8
Effective Green, g (s)53.758.738.015.815.815.8
Actuated g/C Ratio0.640.690.450.190.190.19
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)2.04.02.02.02.0
Lane Grp Cap (vph)453 12261454309270270
v/s Ratio Protc0.11 c0.370.280.04
v/s Ratio Permc0.28c0.100.04
v/c Ratio0.620.530.610.560.210.21
Uniform Delay, d118.26.217.731.229.029.0
Progression Factor1.040.591.001.001.001.00
Incremental Delay, d21.60.50.91.20.10.1
Delay (s)20.54.118.532.429.229.2
Level of ServiceCABCCC
Approach Delay (s)9.118.529.90.0
Approach LOSABCA
Intersection Summary
HCM 2000 Control Delay18.5HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.61
Actuated Cycle Length (s)84.5Sum of lost time (s)15.0
Intersection Capacity Utilization66.3%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build AM
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 7
Lane GroupEBLEBTWBL WBTNBTSBLSBT
Lane Group Flow (vph)187 1079187276518207
v/c Ratio0.440.470.050.740.870.070.52
Control Delay16.713.68.324.5 103.130.110.1
Queue Delay0.00.60.00.00.00.00.0
Total Delay16.714.38.324.5 103.130.110.1
Queue Length 50th (ft)186842472483
Queue Length 95th (ft)9141314 #757792758
Internal Link Dist (ft)376131742425
Turn Bay Length (ft)11560100
Base Capacity (vph)495 2326430996161475872
Starvation Cap Reductn079800000
Spillback Cap Reductn0000000
Storage Cap Reductn0000000
Reduced v/c Ratio0.380.710.040.730.400.040.24
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisNo Build AM
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 8
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)16895516166381632521165181
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width11121212128812812128
Total Lost time (s)5.05.05.05.05.05.05.0
Lane Util. Factor1.000.951.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.000.991.000.97
Flpb, ped/bikes1.001.001.001.001.001.001.00
Frt1.001.001.001.000.951.000.85
Flt Protected0.951.000.951.000.970.951.00
Satd. Flow (prot)1678 34881612 177114731805 1532
Flt Permitted0.201.000.201.000.350.761.00
Satd. Flow (perm)360 3488342 17715231443 1532
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)187 106118187091836623186201
RTOR Reduction (vph)010000018001670
Lane Group Flow (vph)187 10780187270047018400
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)4%3%14%12%7%0%25%0%14%0%0%3%
Turn Typepm+ptNApm+ptNAPermNApm+ptNA
Protected Phases6125347
Permitted Phases1537
Actuated Green, G (s)70.560.156.050.69.016.616.6
Effective Green, g (s)70.560.156.050.69.016.616.6
Actuated g/C Ratio0.730.620.580.520.090.170.17
Clearance Time (s)5.05.05.05.05.05.05.0
Vehicle Extension (s)2.05.02.05.02.02.02.0
Lane Grp Cap (vph)463 215826792248256261
v/s Ratio Protc0.06 c0.310.00 c0.410.00 c0.03
v/s Ratio Perm0.230.03c0.090.01
v/c Ratio0.400.500.070.790.980.070.15
Uniform Delay, d120.010.215.218.943.935.334.3
Progression Factor1.001.001.001.001.001.001.00
Incremental Delay, d20.20.40.05.2119.60.00.1
Delay (s)20.210.615.224.1163.535.334.4
Level of ServiceCBBCFDC
Approach Delay (s)12.023.9163.534.5
Approach LOSBCFC
Intersection Summary
HCM 2000 Control Delay22.3HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.73
Actuated Cycle Length (s)97.1Sum of lost time (s)20.0
Intersection Capacity Utilization80.1%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build AM
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 9
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)369921708850
v/c Ratio0.080.780.000.570.030.19
Control Delay11.622.112.017.820.012.4
Queue Delay0.00.00.00.00.00.0
Total Delay11.622.112.017.820.012.4
Queue Length 50th (ft)114808023
Queue Length 95th (ft)34 #11634 #8461434
Internal Link Dist (ft)9201135476583
Turn Bay Length (ft)15050
Base Capacity (vph)500 1280317 1242815699
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.070.780.000.570.010.07
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisNo Build AM
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 10
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)32892116261151111133
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111281112881188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.001.001.000.980.90
Flt Protected0.951.000.951.000.960.99
Satd. Flow (prot)1694 18441745 180217351451
Flt Permitted0.231.000.121.000.960.99
Satd. Flow (perm)415 1844222 180217351451
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)36991116961261112137
RTOR Reduction (vph)0000000100340
Lane Group Flow (vph)369920170800700160
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)3%3%0%0%5%11%0%0%0%0%0%14%
Turn Typepm+ptNApm+ptNASplitNASplitNA
Protected Phases61253344
Permitted Phases15
Actuated Green, G (s)34.133.333.733.12.55.6
Effective Green, g (s)34.133.333.733.12.55.6
Actuated g/C Ratio0.550.540.540.530.040.09
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)24499013596269131
v/s Ratio Protc0.00 c0.540.000.39c0.00c0.01
v/s Ratio Perm0.080.00
v/c Ratio0.151.000.010.740.100.12
Uniform Delay, d114.714.426.611.128.725.9
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.329.10.03.00.70.4
Delay (s)15.043.426.614.029.326.4
Level of ServiceBDCBCC
Approach Delay (s)42.414.129.326.4
Approach LOSDBCC
Intersection Summary
HCM 2000 Control Delay30.7HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.82
Actuated Cycle Length (s)62.0Sum of lost time (s)20.0
Intersection Capacity Utilization61.7%ICU Level of ServiceB
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build AM
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 11
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)12903157812467
v/c Ratio0.031.010.000.650.300.14
Control Delay7.952.18.018.420.215.7
Queue Delay0.00.00.00.00.00.0
Total Delay7.952.18.018.420.215.7
Queue Length 50th (ft)233501593515
Queue Length 95th (ft)9 #74123509148
Internal Link Dist (ft)1135550599330
Turn Bay Length (ft)5065
Base Capacity (vph)692898529888411468
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.021.010.000.650.300.14
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisNo Build AM
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 12
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)11750631515595115321612
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width1112812121281188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.99
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.991.001.000.990.97
Flt Protected0.951.000.951.000.960.97
Satd. Flow (prot)1745 18161805 180716371615
Flt Permitted0.271.000.121.000.720.83
Satd. Flow (perm)492 1816224 180712281378
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)128337015726106126361813
RTOR Reduction (vph)030010020090
Lane Group Flow (vph)12900015770012200580
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)0%3%5%0%5%0%7%8%0%7%0%18%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)35.234.135.034.023.123.1
Effective Green, g (s)35.234.135.034.023.123.1
Actuated g/C Ratio0.480.470.480.460.320.32
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)255845128839387434
v/s Ratio Protc0.00 c0.500.000.32
v/s Ratio Perm0.020.00c0.100.04
v/c Ratio0.051.070.010.690.320.13
Uniform Delay, d111.219.616.115.419.017.9
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.149.90.02.42.10.1
Delay (s)11.369.516.117.821.218.0
Level of ServiceBEBBCB
Approach Delay (s)68.717.821.218.0
Approach LOSEBCB
Intersection Summary
HCM 2000 Control Delay45.7HCM 2000 Level of ServiceD
HCM 2000 Volume to Capacity ratio0.75
Actuated Cycle Length (s)73.2Sum of lost time (s)15.0
Intersection Capacity Utilization70.8%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build PM
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 1
Lane GroupEBTWBL WBTNBL
Lane Group Flow (vph)578119489208
v/c Ratio0.660.260.400.49
Control Delay17.45.76.011.2
Queue Delay0.00.00.00.0
Total Delay17.45.76.011.2
Queue Length 50th (ft)11784312
Queue Length 95th (ft)#3554116765
Internal Link Dist (ft)589656426
Turn Bay Length (ft)247
Base Capacity (vph)1140564 1653834
Starvation Cap Reductn0000
Spillback Cap Reductn0000
Storage Cap Reductn0000
Reduced v/c Ratio0.510.210.300.25
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisNo Build PM
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 2
MovementEBTEBRWBL WBTNBLNBR
Lane Configurations
Volume (vph)5442311747950154
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900
Lane Width121211121212
Total Lost time (s)4.04.04.04.0
Lane Util. Factor1.001.001.001.00
Frpb, ped/bikes1.001.001.001.00
Flpb, ped/bikes1.001.001.001.00
Frt0.991.001.000.90
Flt Protected1.000.951.000.99
Satd. Flow (prot)18211661 1881 1636
Flt Permitted1.000.251.000.99
Satd. Flow (perm)1821431 1881 1636
Peak-hour factor, PHF0.980.980.980.980.980.98
Adj. Flow (vph)5552311948951157
RTOR Reduction (vph)20001290
Lane Group Flow (vph)5760119489790
Confl. Peds. (#/hr)555
Heavy Vehicles (%)3%20%5%1%0%4%
Turn TypeNApm+ptNAProt
Protected Phases1253
Permitted Phases5
Actuated Green, G (s)24.334.034.09.1
Effective Green, g (s)24.334.034.09.1
Actuated g/C Ratio0.480.670.670.18
Clearance Time (s)4.04.04.04.0
Vehicle Extension (s)3.03.03.03.0
Lane Grp Cap (vph)865423 1251291
v/s Ratio Protc0.320.03 c0.26 c0.05
v/s Ratio Perm0.16
v/c Ratio0.670.280.390.27
Uniform Delay, d110.34.93.918.1
Progression Factor1.001.001.001.00
Incremental Delay, d22.00.40.20.5
Delay (s)12.25.34.118.6
Level of ServiceBAAB
Approach Delay (s)12.24.318.6
Approach LOSBAB
Intersection Summary
HCM 2000 Control Delay9.7HCM 2000 Level of ServiceA
HCM 2000 Volume to Capacity ratio0.55
Actuated Cycle Length (s)51.1Sum of lost time (s)12.0
Intersection Capacity Utilization58.8%ICU Level of ServiceB
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build PM
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 3
Lane GroupEBTEBRWBL WBTSBTSBR
Lane Group Flow (vph)593187526445204241
v/c Ratio0.430.250.820.360.630.50
Control Delay19.83.927.73.242.18.1
Queue Delay0.00.00.00.40.00.0
Total Delay19.83.927.73.642.18.1
Queue Length 50th (ft)1190165631110
Queue Length 95th (ft)19041 #3579418259
Internal Link Dist (ft)656424 1060
Turn Bay Length (ft)235260
Base Capacity (vph)1650857685 1275523634
Starvation Cap Reductn00039700
Spillback Cap Reductn3200000
Storage Cap Reductn000000
Reduced v/c Ratio0.370.220.770.510.390.38
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisNo Build PM
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 4
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)058118351543600002000236
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111112101188121281212
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor0.951.001.001.001.001.00
Frpb, ped/bikes1.000.971.001.001.000.97
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.851.001.001.000.85
Flt Protected1.001.000.951.000.951.00
Satd. Flow (prot)3355 1554 1650 17831703 1524
Flt Permitted1.001.000.371.000.951.00
Satd. Flow (perm)3355 1554639 17831703 1524
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)059318752644500002040241
RTOR Reduction (vph)0011000000000195
Lane Group Flow (vph)0593775264450000020446
Confl. Peds. (#/hr)555
Heavy Vehicles (%)0%4%1%2%3%0%0%0%0%6%0%3%
Turn TypeNA Perm pm+ptNAPermNA Perm
Protected Phases12 1 2 53
Permitted Phases1 1 2 533
Actuated Green, G (s)34.534.556.956.916.116.1
Effective Green, g (s)34.534.556.956.916.116.1
Actuated g/C Ratio0.410.410.680.680.190.19
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)4.04.02.02.02.0
Lane Grp Cap (vph)1377638654 1207326292
v/s Ratio Prot0.18c0.180.25
v/s Ratio Perm0.05 c0.370.120.03
v/c Ratio0.430.120.800.370.630.16
Uniform Delay, d117.715.313.95.831.228.3
Progression Factor1.001.000.930.391.001.00
Incremental Delay, d20.30.15.60.22.70.1
Delay (s)18.015.518.42.533.928.4
Level of ServiceBBBACC
Approach Delay (s)17.411.10.030.9
Approach LOSBBAC
Intersection Summary
HCM 2000 Control Delay17.4HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.80
Actuated Cycle Length (s)84.0Sum of lost time (s)15.0
Intersection Capacity Utilization70.4%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build PM
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 5
Lane GroupEBLEBTWBTNBLNBTNBR
Lane Group Flow (vph)257540 1017218269268
v/c Ratio0.620.450.650.650.460.46
Control Delay27.05.121.042.43.13.1
Queue Delay0.00.30.30.00.00.0
Total Delay27.05.321.342.43.13.1
Queue Length 50th (ft)828422511900
Queue Length 95th (ft)17712234719377
Internal Link Dist (ft)424376672
Turn Bay Length (ft)290380
Base Capacity (vph)540 1346 1685544708708
Starvation Cap Reductn0285190000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.480.510.680.400.380.38
Intersection Summary

HCM Signalized Intersection Capacity AnalysisNo Build PM
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 6
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)252529007402572140526000
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width10118812111212128128
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.000.951.000.950.95
Frpb, ped/bikes1.001.000.991.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.000.961.000.850.85
Flt Protected0.951.001.000.951.001.00
Satd. Flow (prot)1635 176633691770 1460 1460
Flt Permitted0.181.001.000.951.001.00
Satd. Flow (perm)305 176633691770 1460 1460
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)257540007552622180537000
RTOR Reduction (vph)00003100217217000
Lane Group Flow (vph)2575400098602185251000
Confl. Peds. (#/hr)555
Heavy Vehicles (%)3%4%0%0%2%3%2%0%3%0%0%0%
Turn Typepm+ptNANAPermNA Perm
Protected Phases6 1 5 657
Permitted Phases1 5 677
Actuated Green, G (s)52.957.938.516.116.116.1
Effective Green, g (s)52.957.938.516.116.116.1
Actuated g/C Ratio0.630.690.460.190.190.19
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)2.04.02.02.02.0
Lane Grp Cap (vph)420 12171544339279279
v/s Ratio Protc0.10 c0.31c0.290.04
v/s Ratio Perm0.28c0.120.04
v/c Ratio0.610.440.640.640.180.18
Uniform Delay, d119.65.817.431.328.528.4
Progression Factor1.090.581.001.001.001.00
Incremental Delay, d21.80.31.03.10.10.1
Delay (s)23.23.718.434.428.628.6
Level of ServiceCABCCC
Approach Delay (s)10.018.430.30.0
Approach LOSABCA
Intersection Summary
HCM 2000 Control Delay19.3HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.65
Actuated Cycle Length (s)84.0Sum of lost time (s)15.0
Intersection Capacity Utilization70.4%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build PM
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 7
Lane GroupEBLEBTWBL WBTNBTSBLSBT
Lane Group Flow (vph)140971277688817256
v/c Ratio0.380.440.070.751.100.060.56
Control Delay16.214.38.724.5 160.428.69.8
Queue Delay0.00.50.00.00.00.00.0
Total Delay16.214.88.724.5 160.428.69.8
Queue Length 50th (ft)16715259~4276
Queue Length 95th (ft)6935619 #802 #1362667
Internal Link Dist (ft)376131742425
Turn Bay Length (ft)11560100
Base Capacity (vph)483 2285482 1028148489903
Starvation Cap Reductn077500000
Spillback Cap Reductn0000000
Storage Cap Reductn0000000
Reduced v/c Ratio0.290.640.060.750.590.030.28
Intersection Summary
~ Volume exceeds capacity, queue is theoretically infinite.
Queue shown is maximum after two cycles.
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisNo Build PM
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 8
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)133911112671811475321611232
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width11121212128812812128
Total Lost time (s)5.05.05.05.05.05.05.0
Lane Util. Factor1.000.951.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.000.991.000.97
Flpb, ped/bikes1.001.001.001.001.001.001.00
Frt1.001.001.001.000.951.000.86
Flt Protected0.951.000.951.000.970.951.00
Satd. Flow (prot)1728 34861671 182315731805 1547
Flt Permitted0.181.000.231.000.290.711.00
Satd. Flow (perm)328 3486412 18234701346 1547
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)140959122775612495341712244
RTOR Reduction (vph)000000020001980
Lane Group Flow (vph)1409710277680068017580
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)1%3%30%8%4%0%15%20%3%0%8%2%
Turn Typepm+ptNApm+ptNAPermNApm+ptNA
Protected Phases6125347
Permitted Phases1537
Actuated Green, G (s)68.858.057.051.210.718.318.3
Effective Green, g (s)68.858.057.051.210.718.318.3
Actuated g/C Ratio0.710.600.590.530.110.190.19
Clearance Time (s)5.05.05.05.05.05.05.0
Vehicle Extension (s)2.05.02.05.02.02.02.0
Lane Grp Cap (vph)414 208231796151265291
v/s Ratio Protc0.04 c0.280.01 c0.420.00 c0.04
v/s Ratio Perm0.200.04c0.140.01
v/c Ratio0.340.470.090.801.320.060.20
Uniform Delay, d121.410.913.918.743.235.233.2
Progression Factor1.001.001.001.001.001.001.00
Incremental Delay, d20.20.30.05.4235.30.00.1
Delay (s)21.611.314.024.1278.535.233.3
Level of ServiceCBBCFDC
Approach Delay (s)12.623.8278.533.5
Approach LOSBCFC
Intersection Summary
HCM 2000 Control Delay29.3HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.79
Actuated Cycle Length (s)97.1Sum of lost time (s)20.0
Intersection Capacity Utilization86.2%ICU Level of ServiceE
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build PM
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 9
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)629021756735
v/c Ratio0.150.630.000.630.030.14
Control Delay14.416.813.021.716.615.1
Queue Delay0.00.00.00.00.00.0
Total Delay14.416.813.021.716.615.1
Queue Length 50th (ft)0008613
Queue Length 95th (ft)52 #10474 #9061229
Internal Link Dist (ft)9201135476583
Turn Bay Length (ft)15050
Base Capacity (vph)448 1443304 1203726682
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.140.630.000.630.010.05
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisNo Build PM
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 10
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)59852517021611511121
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111281112881188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.001.001.000.900.92
Flt Protected0.951.000.951.000.990.98
Satd. Flow (prot)1678 18611745 181916161496
Flt Permitted0.191.000.121.000.990.98
Satd. Flow (perm)343 1861225 181916161496
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)62897517391711512122
RTOR Reduction (vph)0000000500210
Lane Group Flow (vph)629020175600200140
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)4%2%0%0%4%6%0%0%0%25%0%0%
Turn Typepm+ptNApm+ptNASplitNASplitNA
Protected Phases61253344
Permitted Phases15
Actuated Green, G (s)43.337.733.332.72.64.1
Effective Green, g (s)43.337.733.332.72.64.1
Actuated g/C Ratio0.670.580.510.500.040.06
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)343 10791299156494
v/s Ratio Protc0.02 c0.480.000.42c0.00c0.01
v/s Ratio Perm0.100.00
v/c Ratio0.180.840.010.830.030.15
Uniform Delay, d113.611.122.613.730.028.8
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.35.70.06.20.20.8
Delay (s)13.916.922.619.930.229.6
Level of ServiceBBCBCC
Approach Delay (s)16.719.930.229.6
Approach LOSBBCC
Intersection Summary
HCM 2000 Control Delay18.4HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.69
Actuated Cycle Length (s)65.0Sum of lost time (s)20.0
Intersection Capacity Utilization63.7%ICU Level of ServiceB
Analysis Period (min)15
c Critical Lane Group

QueuesNo Build PM
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 11
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)2383056507942
v/c Ratio0.080.900.020.760.170.08
Control Delay8.232.37.825.019.214.4
Queue Delay0.00.00.00.00.00.0
Total Delay8.232.37.825.019.214.4
Queue Length 50th (ft)42831189228
Queue Length 95th (ft)13 #6575 #4676132
Internal Link Dist (ft)1135550599330
Turn Bay Length (ft)5065
Base Capacity (vph)630920524851473527
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.040.900.010.760.170.08
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisNo Build PM
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 12
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)227206856061158161111612
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width1112812121281188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.99
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.991.001.001.000.96
Flt Protected0.951.000.951.000.960.99
Satd. Flow (prot)1662 18341805 182217651663
Flt Permitted0.191.000.121.000.790.94
Satd. Flow (perm)329 1834225 182214401579
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)237587256381261171121713
RTOR Reduction (vph)030010010090
Lane Group Flow (vph)2382705649007800330
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)5%2%2%0%4%0%0%0%0%0%0%11%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)37.735.234.933.823.123.1
Effective Green, g (s)37.735.234.933.823.123.1
Actuated g/C Ratio0.510.470.470.450.310.31
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)211867128827447490
v/s Ratio Protc0.00 c0.450.000.36
v/s Ratio Perm0.050.02c0.050.02
v/c Ratio0.110.950.040.790.180.07
Uniform Delay, d111.818.815.517.218.718.1
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.220.00.14.90.90.1
Delay (s)12.038.915.622.219.618.1
Level of ServiceBDBCBB
Approach Delay (s)38.122.119.618.1
Approach LOSDCBB
Intersection Summary
HCM 2000 Control Delay30.3HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.64
Actuated Cycle Length (s)74.4Sum of lost time (s)15.0
Intersection Capacity Utilization69.6%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM (Existing Cycle & Optimized Splits)
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 1
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)5687023955925295
v/c Ratio0.090.860.740.590.650.86
Control Delay11.528.233.421.318.185.2
Queue Delay0.00.00.00.00.00.0
Total Delay11.528.233.421.318.185.2
Queue Length 50th (ft)12353832293040
Queue Length 95th (ft)36 #730 #222 #462100 #109
Internal Link Dist (ft)58965642650
Turn Bay Length (ft)100247
Base Capacity (vph)720 1044371945559192
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.080.830.640.590.450.49
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity Analysis Build AM (Existing Cycle & Optimized Splits)
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 2
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)527575222236115950218269119
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111212111212121212111111
Total Lost time (s)4.04.04.04.04.04.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.000.991.000.99
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.991.000.950.900.97
Flt Protected0.951.000.951.000.990.96
Satd. Flow (prot)1711 18401678 171415861673
Flt Permitted0.451.000.131.000.920.36
Satd. Flow (perm)819 1840227 17141478631
Peak-hour factor, PHF0.930.930.930.930.930.930.930.930.930.930.930.93
Adj. Flow (vph)568145623938817154219674120
RTOR Reduction (vph)0200130015700120
Lane Group Flow (vph)568680239546009500830
Confl. Peds. (#/hr)55555
Heavy Vehicles (%)2%2%3%4%6%2%2%2%7%2%2%2%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)44.044.041.841.812.112.1
Effective Green, g (s)44.044.041.841.812.112.1
Actuated g/C Ratio0.560.560.530.530.150.15
Clearance Time (s)4.04.04.04.04.04.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)603 102731790922696
v/s Ratio Prot0.02 c0.47c0.100.32
v/s Ratio Perm0.040.300.06c0.13
v/c Ratio0.090.840.750.600.420.87
Uniform Delay, d18.214.516.412.730.232.6
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.16.59.81.11.351.0
Delay (s)8.321.126.113.931.583.5
Level of ServiceACCBCF
Approach Delay (s)20.317.531.583.5
Approach LOSCBCF
Intersection Summary
HCM 2000 Control Delay23.5HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.83
Actuated Cycle Length (s)78.8Sum of lost time (s)12.0
Intersection Capacity Utilization80.1%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM (Existing Cycle & Optimized Splits)
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 3
Lane GroupEBTEBRWBL WBTSBTSBR
Lane Group Flow (vph)827284466621270297
v/c Ratio0.720.390.800.530.740.55
Control Delay32.05.028.94.446.67.9
Queue Delay0.90.00.20.80.00.0
Total Delay32.95.029.05.246.67.9
Queue Length 50th (ft)23202161001510
Queue Length 95th (ft)33157 m# 33713624065
Internal Link Dist (ft)656424 1060
Turn Bay Length (ft)235260
Base Capacity (vph)1146720660 1265492628
Starvation Cap Reductn001233900
Spillback Cap Reductn12100000
Storage Cap Reductn000000
Reduced v/c Ratio0.810.390.720.670.550.47
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.
m Volume for 95th percentile queue is metered by upstream signal.

HCM Signalized Intersection Capacity Analysis Build AM (Existing Cycle & Optimized Splits)
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 4
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)076126142957100002480273
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111112101188121281212
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor0.951.001.001.001.001.00
Frpb, ped/bikes1.000.971.001.001.000.97
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.851.001.001.000.85
Flt Protected1.001.000.951.000.951.00
Satd. Flow (prot)3292 1538 1589 17331752 1480
Flt Permitted1.001.000.211.000.951.00
Satd. Flow (perm)3292 1538355 17331752 1480
Peak-hour factor, PHF0.920.920.920.920.920.920.920.920.920.920.920.92
Adj. Flow (vph)082728446662100002700297
RTOR Reduction (vph)0018500000000235
Lane Group Flow (vph)0827994666210000027062
Confl. Peds. (#/hr)555
Heavy Vehicles (%)0%6%2%6%6%0%0%0%0%3%0%6%
Turn TypeNA Perm pm+ptNAPermNA Perm
Protected Phases12 1 2 53
Permitted Phases1 1 2 533
Actuated Green, G (s)31.531.561.361.318.918.9
Effective Green, g (s)31.531.561.361.318.918.9
Actuated g/C Ratio0.350.350.680.680.210.21
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)4.04.02.02.02.0
Lane Grp Cap (vph)1149537580 1177367310
v/s Ratio Prot0.25c0.220.36
v/s Ratio Perm0.06 c0.320.150.04
v/c Ratio0.720.180.800.530.740.20
Uniform Delay, d125.520.418.87.233.329.4
Progression Factor1.001.000.900.391.001.00
Incremental Delay, d22.30.25.10.46.50.1
Delay (s)27.920.622.13.239.829.5
Level of ServiceCCCADC
Approach Delay (s)26.011.30.034.4
Approach LOSCBAC
Intersection Summary
HCM 2000 Control Delay22.0HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.82
Actuated Cycle Length (s)90.2Sum of lost time (s)15.0
Intersection Capacity Utilization72.1%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM (Existing Cycle & Optimized Splits)
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 5
Lane GroupEBLEBTWBTNBLNBTNBR
Lane Group Flow (vph)312785 1098259320319
v/c Ratio0.770.660.770.740.670.66
Control Delay35.99.427.646.917.917.7
Queue Delay0.05.30.80.00.00.0
Total Delay35.914.728.346.917.917.7
Queue Length 50th (ft)1474862891455050
Queue Length 95th (ft)m241665 #415232147146
Internal Link Dist (ft)424376672
Turn Bay Length (ft)290380
Base Capacity (vph)489 1289 1428473568568
Starvation Cap Reductn0432111000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.640.920.830.550.560.56
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.
m Volume for 95th percentile queue is metered by upstream signal.

HCM Signalized Intersection Capacity Analysis Build AM (Existing Cycle & Optimized Splits)
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 6
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)287722007622482380588000
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width10118812111212128128
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.000.951.000.950.95
Frpb, ped/bikes1.001.000.991.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.000.961.000.850.85
Flt Protected0.951.001.000.951.001.00
Satd. Flow (prot)1604 176632811687 1447 1447
Flt Permitted0.131.001.000.951.001.00
Satd. Flow (perm)218 176632811687 1447 1447
Peak-hour factor, PHF0.920.920.920.920.920.920.920.920.920.920.920.92
Adj. Flow (vph)312785008282702590639000
RTOR Reduction (vph)00002900178178000
Lane Group Flow (vph)31278500 10690259142141000
Confl. Peds. (#/hr)555
Heavy Vehicles (%)5%4%0%0%4%9%7%0%4%0%0%0%
Turn Typepm+ptNANAPermNA Perm
Protected Phases6 1 5 657
Permitted Phases1 5 677
Actuated Green, G (s)56.361.338.618.918.918.9
Effective Green, g (s)56.361.338.618.918.918.9
Actuated g/C Ratio0.620.680.430.210.210.21
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)2.04.02.02.02.0
Lane Grp Cap (vph)408 12001404353303303
v/s Ratio Protc0.15 c0.440.330.10
v/s Ratio Permc0.33c0.150.10
v/c Ratio0.760.650.760.730.470.47
Uniform Delay, d124.38.321.933.331.331.2
Progression Factor1.010.751.001.001.001.00
Incremental Delay, d25.51.02.66.70.40.4
Delay (s)30.17.324.540.031.731.6
Level of ServiceCACDCC
Approach Delay (s)13.824.534.00.0
Approach LOSBCCA
Intersection Summary
HCM 2000 Control Delay23.5HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.77
Actuated Cycle Length (s)90.2Sum of lost time (s)15.0
Intersection Capacity Utilization72.1%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM (Existing Cycle & Optimized Splits)
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 7
Lane GroupEBLEBTWBL WBTNBTSBLSBT
Lane Group Flow (vph)186 121511975731618280
v/c Ratio0.950.870.430.961.010.050.42
Control Delay96.041.040.557.491.825.413.9
Queue Delay0.047.70.00.00.00.00.0
Total Delay96.088.740.557.491.825.413.9
Queue Length 50th (ft)9442739542227963
Queue Length 95th (ft)#254570101 #873 #45026139
Internal Link Dist (ft)376131742425
Turn Bay Length (ft)11560100
Base Capacity (vph)196 1416274788313379705
Starvation Cap Reductn032000000
Spillback Cap Reductn0000000
Storage Cap Reductn0000000
Reduced v/c Ratio0.951.110.430.961.010.050.40
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity Analysis Build AM (Existing Cycle & Optimized Splits)
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 8
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)1679321611076651614936991655197
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width11121212128812812128
Total Lost time (s)5.05.05.05.05.05.05.0
Lane Util. Factor1.000.951.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.000.991.000.97
Flpb, ped/bikes1.001.001.001.001.001.001.00
Frt1.000.981.001.000.951.000.88
Flt Protected0.951.000.951.000.970.951.00
Satd. Flow (prot)1678 34111752 177116721805 1591
Flt Permitted0.081.000.071.000.530.551.00
Satd. Flow (perm)144 3411138 17719051054 1591
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)186 103617911973918166401101861219
RTOR Reduction (vph)0110010016001040
Lane Group Flow (vph)186 12040119756003000181760
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)4%3%3%3%7%0%6%2%4%0%2%3%
Turn Typepm+ptNApm+ptNAPermNApm+ptNA
Protected Phases6125347
Permitted Phases1537
Actuated Green, G (s)59.349.268.954.040.045.445.4
Effective Green, g (s)59.349.268.954.040.045.445.4
Actuated g/C Ratio0.480.400.550.430.320.360.36
Clearance Time (s)5.05.05.05.05.05.05.0
Vehicle Extension (s)2.05.02.05.02.02.02.0
Lane Grp Cap (vph)193 1347269768290386580
v/s Ratio Protc0.080.35c0.05 c0.430.00 c0.11
v/s Ratio Perm0.380.19c0.330.02
v/c Ratio0.960.890.440.981.040.050.30
Uniform Delay, d153.735.241.234.842.236.228.3
Progression Factor1.001.001.001.001.001.001.00
Incremental Delay, d253.68.50.428.762.40.00.1
Delay (s)107.343.741.763.5104.736.228.4
Level of ServiceFDDEFDC
Approach Delay (s)52.160.6104.728.8
Approach LOSDEFC
Intersection Summary
HCM 2000 Control Delay58.0HCM 2000 Level of ServiceE
HCM 2000 Volume to Capacity ratio0.99
Actuated Cycle Length (s)124.5Sum of lost time (s)20.0
Intersection Capacity Utilization95.2%ICU Level of ServiceF
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM (Existing Cycle & Optimized Splits)
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 9
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)36 10531833855
v/c Ratio0.100.820.000.660.030.20
Control Delay14.024.312.018.919.912.0
Queue Delay0.00.00.00.00.00.0
Total Delay14.024.312.018.919.912.0
Queue Length 50th (ft)1169010523
Queue Length 95th (ft)34 #12394 #9931435
Internal Link Dist (ft)9201135476583
Turn Bay Length (ft)15050
Base Capacity (vph)367 1277318 1257819705
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.100.820.000.660.010.08
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity Analysis Build AM (Existing Cycle & Optimized Splits)
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 10
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)32947117391151111138
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111281112881188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.001.001.000.980.90
Flt Protected0.951.000.951.000.960.99
Satd. Flow (prot)1694 18441745 182117351452
Flt Permitted0.141.000.121.000.960.99
Satd. Flow (perm)252 1844223 182117351452
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)36 1052118211261112142
RTOR Reduction (vph)0000000100380
Lane Group Flow (vph)36 10530183300700170
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)3%3%0%0%4%9%0%0%0%0%0%13%
Turn Typepm+ptNApm+ptNASplitNASplitNA
Protected Phases61253344
Permitted Phases15
Actuated Green, G (s)33.833.133.633.02.55.6
Effective Green, g (s)33.833.133.633.02.55.6
Actuated g/C Ratio0.550.540.540.530.040.09
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)15498713697270131
v/s Ratio Protc0.00 c0.570.000.46c0.00c0.01
v/s Ratio Perm0.120.00
v/c Ratio0.231.070.010.860.100.13
Uniform Delay, d119.614.326.512.428.625.9
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.848.20.07.50.60.4
Delay (s)20.462.626.519.929.226.3
Level of ServiceCECBCC
Approach Delay (s)61.219.929.226.3
Approach LOSEBCC
Intersection Summary
HCM 2000 Control Delay42.8HCM 2000 Level of ServiceD
HCM 2000 Volume to Capacity ratio0.87
Actuated Cycle Length (s)61.8Sum of lost time (s)20.0
Intersection Capacity Utilization64.6%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM (Existing Cycle & Optimized Splits)
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 11
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)12964168713573
v/c Ratio0.030.790.000.570.580.28
Control Delay5.418.25.011.337.723.0
Queue Delay0.00.00.00.00.00.0
Total Delay5.418.25.011.337.723.0
Queue Length 50th (ft)123201275220
Queue Length 95th (ft)8 #819242511759
Internal Link Dist (ft)1135550599330
Turn Bay Length (ft)5065
Base Capacity (vph)453 1216276 1208399435
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.030.790.000.570.340.17
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity Analysis Build AM (Existing Cycle & Optimized Splits)
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 12
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)118046416135105115321617
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width1112812121281188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.99
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.991.001.000.990.96
Flt Protected0.951.000.951.000.960.98
Satd. Flow (prot)1745 18181805 180716351618
Flt Permitted0.301.000.141.000.770.84
Satd. Flow (perm)550 1818257 180713101390
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)128937116816117126361819
RTOR Reduction (vph)0300000200160
Lane Group Flow (vph)12961016870013300570
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)0%3%5%0%5%0%7%9%0%6%0%12%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)51.851.051.851.013.613.6
Effective Green, g (s)51.851.051.851.013.613.6
Actuated g/C Ratio0.640.630.640.630.170.17
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)366 1153180 1146221235
v/s Ratio Protc0.00 c0.530.000.38
v/s Ratio Perm0.020.00c0.100.04
v/c Ratio0.030.830.010.600.600.24
Uniform Delay, d16.211.410.38.730.928.9
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.05.30.00.94.60.5
Delay (s)6.316.710.39.535.529.5
Level of ServiceABBADC
Approach Delay (s)16.69.535.529.5
Approach LOSBADC
Intersection Summary
HCM 2000 Control Delay15.9HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.78
Actuated Cycle Length (s)80.4Sum of lost time (s)15.0
Intersection Capacity Utilization66.9%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM (Existing Cycle & Optimized Splits)
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 1
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)43667195686408261
v/c Ratio0.130.920.640.830.700.97
Control Delay22.647.629.936.225.178.9
Queue Delay0.00.00.00.00.00.0
Total Delay22.647.629.936.225.178.9
Queue Length 50th (ft)1536578383132142
Queue Length 95th (ft)40 #655154 #686268 #329
Internal Link Dist (ft)58965642634
Turn Bay Length (ft)100247
Base Capacity (vph)494724418822581270
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.090.920.470.830.700.97
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity Analysis Build PM (Existing Cycle & Optimized Splits)
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 2
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)42604501915571161004296187267
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111212111212121212111111
Total Lost time (s)4.04.04.04.04.04.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.000.991.000.99
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.991.000.970.900.96
Flt Protected0.951.000.951.000.990.96
Satd. Flow (prot)1711 18081678 181916461662
Flt Permitted0.241.000.141.000.870.45
Satd. Flow (perm)431 1808244 18191442774
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)43616511955681181024302191268
RTOR Reduction (vph)030070010000120
Lane Group Flow (vph)43664019567900308002490
Confl. Peds. (#/hr)55555
Heavy Vehicles (%)2%3%11%4%1%2%1%2%3%2%2%2%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)38.738.741.741.731.131.1
Effective Green, g (s)38.738.741.741.731.131.1
Actuated g/C Ratio0.410.410.440.440.330.33
Clearance Time (s)4.04.04.04.04.04.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)308739301801474254
v/s Ratio Prot0.01 c0.370.09 c0.37
v/s Ratio Perm0.040.200.21c0.32
v/c Ratio0.140.900.650.850.650.98
Uniform Delay, d125.726.120.423.627.131.4
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.213.74.78.33.150.2
Delay (s)25.939.825.231.930.281.7
Level of ServiceCDCCCF
Approach Delay (s)39.030.430.281.7
Approach LOSDCCF
Intersection Summary
HCM 2000 Control Delay39.0HCM 2000 Level of ServiceD
HCM 2000 Volume to Capacity ratio0.94
Actuated Cycle Length (s)94.6Sum of lost time (s)12.0
Intersection Capacity Utilization91.4%ICU Level of ServiceF
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM (Existing Cycle & Optimized Splits)
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 3
Lane GroupEBTEBRWBL WBTSBTSBR
Lane Group Flow (vph)908280601679274294
v/c Ratio0.890.421.020.570.740.56
Control Delay41.05.552.73.643.19.9
Queue Delay3.80.00.01.20.00.0
Total Delay44.85.552.74.843.19.9
Queue Length 50th (ft)2370 ~3018113416
Queue Length 95th (ft)#39558 m# 161m9921481
Internal Link Dist (ft)656424 1060
Turn Bay Length (ft)235260
Base Capacity (vph)1023664592 1185519638
Starvation Cap Reductn00028600
Spillback Cap Reductn6500000
Storage Cap Reductn000000
Reduced v/c Ratio0.950.421.020.760.530.46
Intersection Summary
~ Volume exceeds capacity, queue is theoretically infinite.
Queue shown is maximum after two cycles.
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.
m Volume for 95th percentile queue is metered by upstream signal.

HCM Signalized Intersection Capacity Analysis Build PM (Existing Cycle & Optimized Splits)
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 4
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)089027458966500002690288
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111112101188121281212
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor0.951.001.001.001.001.00
Frpb, ped/bikes1.000.971.001.001.000.97
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.851.001.001.000.85
Flt Protected1.001.000.951.000.951.00
Satd. Flow (prot)3388 1554 1651 17831719 1524
Flt Permitted1.001.000.151.000.951.00
Satd. Flow (perm)3388 1554257 17831719 1524
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)090828060167900002740294
RTOR Reduction (vph)0019500000000201
Lane Group Flow (vph)0908856016790000027493
Confl. Peds. (#/hr)555
Heavy Vehicles (%)0%3%1%2%3%0%0%0%0%5%0%3%
Turn TypeNA Perm pm+ptNAPermNA Perm
Protected Phases12 1 2 53
Permitted Phases1 1 2 533
Actuated Green, G (s)25.125.155.255.217.817.8
Effective Green, g (s)25.125.155.255.217.817.8
Actuated g/C Ratio0.300.300.670.670.210.21
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)4.04.02.02.02.0
Lane Grp Cap (vph)1024469592 1185368326
v/s Ratio Prot0.27c0.310.38
v/s Ratio Perm0.05 c0.370.160.06
v/c Ratio0.890.181.020.570.740.28
Uniform Delay, d127.621.422.17.530.527.3
Progression Factor1.001.000.780.301.001.00
Incremental Delay, d29.60.329.30.47.00.2
Delay (s)37.221.646.52.637.527.5
Level of ServiceDCDADC
Approach Delay (s)33.523.20.032.3
Approach LOSCCAC
Intersection Summary
HCM 2000 Control Delay28.9HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.99
Actuated Cycle Length (s)83.0Sum of lost time (s)15.0
Intersection Capacity Utilization85.5%ICU Level of ServiceE
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM (Existing Cycle & Optimized Splits)
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 5
Lane GroupEBLEBTWBTNBLNBTNBR
Lane Group Flow (vph)356827 1359264303302
v/c Ratio0.890.700.960.700.660.66
Control Delay43.68.940.640.118.918.8
Queue Delay0.043.74.30.00.00.0
Total Delay43.652.644.940.118.918.8
Queue Length 50th (ft)1591093421275554
Queue Length 95th (ft)m# 251 m594 #566205143142
Internal Link Dist (ft)424376672
Turn Bay Length (ft)290380
Base Capacity (vph)398 1185 1420534571571
Starvation Cap Reductn042144000
Spillback Cap Reductn004000
Storage Cap Reductn000000
Reduced v/c Ratio0.891.080.990.490.530.53
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.
m Volume for 95th percentile queue is metered by upstream signal.

HCM Signalized Intersection Capacity Analysis Build PM (Existing Cycle & Optimized Splits)
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 6
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)349810009983342590593000
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width10118812111212128128
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.000.951.000.950.95
Frpb, ped/bikes1.001.000.991.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.000.961.000.850.85
Flt Protected0.951.001.000.951.001.00
Satd. Flow (prot)1636 178333741770 1461 1461
Flt Permitted0.121.001.000.951.001.00
Satd. Flow (perm)202 178333741770 1461 1461
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)35682700 10183412640605000
RTOR Reduction (vph)00003500145145000
Lane Group Flow (vph)35682700 13240264158157000
Confl. Peds. (#/hr)555
Heavy Vehicles (%)3%3%0%0%2%3%2%0%3%0%0%0%
Turn Typepm+ptNANAPermNA Perm
Protected Phases6 1 5 657
Permitted Phases1 5 677
Actuated Green, G (s)50.255.234.117.817.817.8
Effective Green, g (s)50.255.234.117.817.817.8
Actuated g/C Ratio0.600.670.410.210.210.21
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)2.04.02.02.02.0
Lane Grp Cap (vph)400 11851386379313313
v/s Ratio Protc0.17 c0.46c0.390.11
v/s Ratio Perm0.37c0.150.11
v/c Ratio0.890.700.960.700.500.50
Uniform Delay, d128.08.723.730.128.728.7
Progression Factor0.930.651.001.001.001.00
Incremental Delay, d213.01.114.94.50.50.5
Delay (s)39.26.838.634.629.229.1
Level of ServiceDADCCC
Approach Delay (s)16.538.630.80.0
Approach LOSBDCA
Intersection Summary
HCM 2000 Control Delay29.0HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.87
Actuated Cycle Length (s)83.0Sum of lost time (s)15.0
Intersection Capacity Utilization85.5%ICU Level of ServiceE
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM (Existing Cycle & Optimized Splits)
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 7
Lane GroupEBLEBTWBL WBTNBTSBLSBT
Lane Group Flow (vph)156 121523272684817358
v/c Ratio1.441.251.611.311.580.040.37
Control Delay286.2 162.6 340.0 190.8 296.014.713.4
Queue Delay0.00.80.00.00.00.00.0
Total Delay286.2 163.4 340.0 190.8 296.014.713.4
Queue Length 50th (ft)~160 ~778 ~277 ~921 ~11807127
Queue Length 95th (ft)#314 #920 #458 #1174 #144119196
Internal Link Dist (ft)376131742425
Turn Bay Length (ft)11560100
Base Capacity (vph)108974144556537447987
Starvation Cap Reductn013500000
Spillback Cap Reductn0000000
Storage Cap Reductn0000000
Reduced v/c Ratio1.441.451.611.311.580.040.36
Intersection Summary
~ Volume exceeds capacity, queue is theoretically infinite.
Queue shown is maximum after two cycles.
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity Analysis Build PM (Existing Cycle & Optimized Splits)
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 8
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)1488802752206781143211226116118222
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width11121212128812812128
Total Lost time (s)5.05.05.05.05.05.05.0
Lane Util. Factor1.000.951.001.001.001.001.00
Frpb, ped/bikes1.000.991.001.000.991.000.98
Flpb, ped/bikes1.001.001.001.001.001.001.00
Frt1.000.961.001.000.961.000.90
Flt Protected0.951.000.951.000.970.951.00
Satd. Flow (prot)1728 33521752 182317121805 1636
Flt Permitted0.101.000.091.000.560.411.00
Satd. Flow (perm)173 3352164 1823984783 1636
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)1569262892327141245511827517124234
RTOR Reduction (vph)020001001100460
Lane Group Flow (vph)156 11950232725008370173120
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)1%3%3%3%4%0%3%3%2%0%3%2%
Turn Typepm+ptNApm+ptNAPermNApm+ptNA
Protected Phases6125347
Permitted Phases1537
Actuated Green, G (s)47.042.053.045.079.084.684.6
Effective Green, g (s)47.042.053.045.079.084.684.6
Actuated g/C Ratio0.310.280.350.300.530.570.57
Clearance Time (s)5.05.05.05.05.05.05.0
Vehicle Extension (s)2.05.02.05.02.02.02.0
Lane Grp Cap (vph)106941143548519446925
v/s Ratio Prot0.050.36c0.090.400.00 c0.19
v/s Ratio Perm0.41c0.49c0.850.02
v/c Ratio1.471.271.621.321.610.040.34
Uniform Delay, d169.253.867.552.335.329.717.5
Progression Factor1.001.001.001.001.001.001.00
Incremental Delay, d2256.2 129.8309.7 158.0284.30.00.1
Delay (s)325.4 183.6377.3 210.3319.629.717.5
Level of ServiceFFFFFCB
Approach Delay (s)199.8250.7319.618.1
Approach LOSFFFB
Intersection Summary
HCM 2000 Control Delay222.9HCM 2000 Level of ServiceF
HCM 2000 Volume to Capacity ratio1.65
Actuated Cycle Length (s)149.6Sum of lost time (s)20.0
Intersection Capacity Utilization128.3%ICU Level of ServiceH
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM (Existing Cycle & Optimized Splits)
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 9
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)74 10991915738
v/c Ratio0.190.720.000.720.060.27
Control Delay10.415.69.020.836.731.2
Queue Delay0.00.00.00.00.00.0
Total Delay10.415.69.020.836.731.2
Queue Length 50th (ft)6195029417
Queue Length 95th (ft)51 #14743 #12091748
Internal Link Dist (ft)9201135476583
Turn Bay Length (ft)15050
Base Capacity (vph)427 1566224 1348332322
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.170.700.000.680.020.12
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity Analysis Build PM (Existing Cycle & Optimized Splits)
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 10
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)70 1038618531611511124
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111281112881188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.001.001.000.900.91
Flt Protected0.951.000.951.000.990.98
Satd. Flow (prot)1694 18611745 182016081485
Flt Permitted0.171.000.121.000.990.98
Satd. Flow (perm)297 1861213 182016081485
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)74 1093618981711512125
RTOR Reduction (vph)0000000500240
Lane Group Flow (vph)74 10990191500200140
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)3%2%0%0%4%6%0%0%0%27%0%0%
Turn Typepm+ptNApm+ptNASplitNASplitNA
Protected Phases61253344
Permitted Phases15
Actuated Green, G (s)94.789.077.676.94.46.4
Effective Green, g (s)94.789.077.676.94.46.4
Actuated g/C Ratio0.790.740.640.640.040.05
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)381 1374146 11615878
v/s Ratio Protc0.02 c0.590.000.50c0.00c0.01
v/s Ratio Perm0.130.00
v/c Ratio0.190.800.010.790.040.18
Uniform Delay, d120.610.131.715.956.054.6
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.33.40.03.60.31.1
Delay (s)20.913.431.719.556.355.7
Level of ServiceCBCBEE
Approach Delay (s)13.919.556.355.7
Approach LOSBBEE
Intersection Summary
HCM 2000 Control Delay17.2HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.73
Actuated Cycle Length (s)120.5Sum of lost time (s)20.0
Intersection Capacity Utilization73.0%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM (Existing Cycle & Optimized Splits)
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 11
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)31 101857978745
v/c Ratio0.070.740.020.610.430.19
Control Delay4.815.25.013.935.821.6
Queue Delay0.00.00.00.00.00.0
Total Delay4.815.25.013.935.821.6
Queue Length 50th (ft)321911373511
Queue Length 95th (ft)16 #8825 #6308040
Internal Link Dist (ft)1135550599330
Turn Bay Length (ft)5065
Base Capacity (vph)453 1371303 1298409476
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.070.740.020.610.210.09
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity Analysis Build PM (Existing Cycle & Optimized Splits)
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 12
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)298897857461166161111615
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width1112812121281188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.99
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.991.001.001.000.95
Flt Protected0.951.000.951.000.960.99
Satd. Flow (prot)1678 18361805 182317631666
Flt Permitted0.241.000.151.000.740.92
Satd. Flow (perm)432 1836282 182313571546
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)319368257851269171121716
RTOR Reduction (vph)0200000100140
Lane Group Flow (vph)31 101605797008600310
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)4%2%2%0%4%0%0%0%0%0%0%7%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)58.856.355.654.710.110.1
Effective Green, g (s)58.856.355.654.710.110.1
Actuated g/C Ratio0.710.680.680.660.120.12
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)346 1255207 1211166189
v/s Ratio Protc0.00 c0.550.000.44
v/s Ratio Perm0.060.02c0.060.02
v/c Ratio0.090.810.020.660.520.16
Uniform Delay, d15.69.28.98.233.832.3
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.14.00.01.32.70.4
Delay (s)5.713.28.99.536.532.7
Level of ServiceABAADC
Approach Delay (s)12.99.536.532.7
Approach LOSBADC
Intersection Summary
HCM 2000 Control Delay13.0HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.76
Actuated Cycle Length (s)82.3Sum of lost time (s)15.0
Intersection Capacity Utilization72.3%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 3A
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 1
Lane GroupEBLEBTWBL WBTNBTNBRSBLSBT
Lane Group Flow (vph)56870239559561967421
v/c Ratio0.090.840.680.250.300.380.400.09
Control Delay4.926.022.07.033.911.436.913.8
Queue Delay0.00.00.00.00.00.00.00.0
Total Delay4.926.022.07.033.911.436.913.8
Queue Length 50th (ft)632636522531330
Queue Length 95th (ft)23 #755 #15911358777319
Internal Link Dist (ft)58965642650
Turn Bay Length (ft)100247200
Base Capacity (vph)1027 1052404 2267379560370447
Starvation Cap Reductn00000000
Spillback Cap Reductn00000000
Storage Cap Reductn00000000
Reduced v/c Ratio0.050.830.590.250.150.350.200.05
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 3A
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 2
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)527575222236115950218269119
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111212111212121211111111
Total Lost time (s)5.05.05.05.05.05.05.05.0
Lane Util. Factor1.001.001.000.951.001.001.001.00
Frpb, ped/bikes1.001.001.000.991.001.001.000.98
Flpb, ped/bikes1.001.001.001.000.991.001.001.00
Frt1.000.991.000.951.000.851.000.86
Flt Protected0.951.000.951.000.951.000.951.00
Satd. Flow (prot)1711 18401678 32561768 1459 1711 1518
Flt Permitted0.441.000.121.000.721.000.721.00
Satd. Flow (perm)797 1840220 32561331 1459 1297 1518
Peak-hour factor, PHF0.930.930.930.930.930.930.930.930.930.930.930.93
Adj. Flow (vph)568145623938817154219674120
RTOR Reduction (vph)020025000800180
Lane Group Flow (vph)56868023953400561167430
Confl. Peds. (#/hr)55555
Heavy Vehicles (%)2%2%3%4%6%2%2%2%7%2%2%2%
Turn Typepm+ptNApm+ptNAPermNA pm+ov PermNA
Protected Phases6125327
Permitted Phases15337
Actuated Green, G (s)48.744.959.450.69.318.89.39.3
Effective Green, g (s)48.744.959.450.69.318.89.39.3
Actuated g/C Ratio0.620.570.750.640.120.240.120.12
Clearance Time (s)5.05.05.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.03.03.0
Lane Grp Cap (vph)537 1049342 2093157441153179
v/s Ratio Prot0.01 c0.47c0.080.160.030.00
v/s Ratio Perm0.060.440.040.05 c0.06
v/c Ratio0.100.830.700.250.360.260.480.02
Uniform Delay, d15.913.714.46.031.924.332.530.7
Progression Factor1.001.001.001.001.001.001.001.00
Incremental Delay, d20.15.56.10.11.40.32.40.0
Delay (s)6.019.220.56.133.324.634.930.7
Level of ServiceABCACCCC
Approach Delay (s)18.410.426.633.9
Approach LOSBBCC
Intersection Summary
HCM 2000 Control Delay17.0HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.76
Actuated Cycle Length (s)78.7Sum of lost time (s)15.0
Intersection Capacity Utilization79.4%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 3A
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 3
Lane GroupEBTEBRWBL WBTSBTSBR
Lane Group Flow (vph)827284466621270297
v/c Ratio0.780.410.830.290.700.55
Control Delay32.95.328.98.140.09.2
Queue Delay0.00.00.00.00.00.0
Total Delay32.95.328.98.140.09.2
Queue Length 50th (ft)2080875813112
Queue Length 95th (ft)#33757 #26213621176
Internal Link Dist (ft)656424 1060
Turn Bay Length (ft)235260
Base Capacity (vph)1063689601 2216543650
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.780.410.780.280.500.46
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 3A
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 4
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)076126142957100002480273
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111112101188121281212
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor0.951.001.000.951.001.00
Frpb, ped/bikes1.000.971.001.001.000.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.851.001.001.000.85
Flt Protected1.001.000.951.000.951.00
Satd. Flow (prot)3292 1539 1589 32921752 1498
Flt Permitted1.001.000.201.000.951.00
Satd. Flow (perm)3292 1539341 32921752 1498
Peak-hour factor, PHF0.920.920.920.920.920.920.920.920.920.920.920.92
Adj. Flow (vph)082728446662100002700297
RTOR Reduction (vph)0019200000000210
Lane Group Flow (vph)0827924666210000027087
Confl. Peds. (#/hr)555
Heavy Vehicles (%)0%6%2%6%6%0%0%0%0%3%0%6%
Turn TypeNA Perm pm+ptNAPermNA Perm
Protected Phases12 1 2 53
Permitted Phases1 1 2 533
Actuated Green, G (s)26.326.353.553.517.817.8
Effective Green, g (s)26.326.353.553.517.817.8
Actuated g/C Ratio0.320.320.660.660.220.22
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)4.04.02.02.02.0
Lane Grp Cap (vph)1064497565 2166383327
v/s Ratio Prot0.25c0.230.19
v/s Ratio Perm0.06 c0.320.150.06
v/c Ratio0.780.180.820.290.700.27
Uniform Delay, d124.919.818.15.929.326.3
Progression Factor1.001.000.721.181.001.00
Incremental Delay, d23.90.27.50.14.80.2
Delay (s)28.720.020.67.034.126.5
Level of ServiceCCCACC
Approach Delay (s)26.512.80.030.1
Approach LOSCBAC
Intersection Summary
HCM 2000 Control Delay21.9HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.83
Actuated Cycle Length (s)81.3Sum of lost time (s)15.0
Intersection Capacity Utilization72.1%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 3A
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 5
Lane GroupEBLEBTWBT WBRNBLNBTNBR
Lane Group Flow (vph)312785828270259320319
v/c Ratio0.660.360.610.380.700.700.69
Control Delay15.12.925.15.140.321.120.9
Queue Delay0.00.00.00.00.00.00.0
Total Delay15.12.925.15.140.321.120.9
Queue Length 50th (ft)475417501256564
Queue Length 95th (ft)m8474 #30856203158158
Internal Link Dist (ft)424376672
Turn Bay Length (ft)200290380
Base Capacity (vph)592 2170 1353706523577577
Starvation Cap Reductn0000000
Spillback Cap Reductn0000000
Storage Cap Reductn0000000
Reduced v/c Ratio0.530.360.610.380.500.550.55
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.
m Volume for 95th percentile queue is metered by upstream signal.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 3A
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 6
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)287722007622482380588000
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width10118812111212128128
Total Lost time (s)5.05.05.05.05.05.05.0
Lane Util. Factor1.000.950.951.001.000.950.95
Frpb, ped/bikes1.001.001.000.971.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.001.00
Frt1.001.001.000.851.000.850.85
Flt Protected0.951.001.001.000.951.001.00
Satd. Flow (prot)1604 33553471 1392 1687 1448 1448
Flt Permitted0.191.001.001.000.951.001.00
Satd. Flow (perm)327 33553471 1392 1687 1448 1448
Peak-hour factor, PHF0.920.920.920.920.920.920.920.920.920.920.920.92
Adj. Flow (vph)312785008282702590639000
RTOR Reduction (vph)000001640144144000
Lane Group Flow (vph)31278500828106259176175000
Confl. Peds. (#/hr)555
Heavy Vehicles (%)5%4%0%0%4%9%7%0%4%0%0%0%
Turn Typepm+ptNANA PermPermNA Perm
Protected Phases6 1 5 657
Permitted Phases1 5 6577
Actuated Green, G (s)53.553.531.831.817.817.817.8
Effective Green, g (s)53.553.531.831.817.817.817.8
Actuated g/C Ratio0.660.660.390.390.220.220.22
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)2.04.04.02.02.02.0
Lane Grp Cap (vph)477 22071357544369317317
v/s Ratio Protc0.130.230.240.12
v/s Ratio Permc0.300.08 c0.150.12
v/c Ratio0.650.360.610.190.700.560.55
Uniform Delay, d19.36.219.816.329.328.228.2
Progression Factor0.980.371.001.001.001.001.00
Incremental Delay, d21.70.10.90.24.91.21.2
Delay (s)10.82.420.716.534.229.429.4
Level of ServiceBACBCCC
Approach Delay (s)4.819.730.80.0
Approach LOSABCA
Intersection Summary
HCM 2000 Control Delay17.6HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.70
Actuated Cycle Length (s)81.3Sum of lost time (s)15.0
Intersection Capacity Utilization72.1%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 3A
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 7
Lane GroupEBLEBTWBL WBTNBLNBTNBRSBLSBTSBR
Lane Group Flow (vph)186 1215119757166401101861219
v/c Ratio0.520.850.490.580.380.090.200.120.240.71
Control Delay18.827.721.221.531.718.93.936.128.834.9
Queue Delay0.00.00.00.00.00.00.00.00.00.0
Total Delay18.827.721.221.531.718.93.936.128.834.9
Queue Length 50th (ft)36232221293212072476
Queue Length 95th (ft)#120 #564#95 #2807537283156140
Internal Link Dist (ft)376131742425
Turn Bay Length (ft)115200200200100100
Base Capacity (vph)356 1436245 1300888719554502720308
Starvation Cap Reductn0000000000
Spillback Cap Reductn0000000000
Storage Cap Reductn0000000000
Reduced v/c Ratio0.520.850.490.580.190.060.200.040.080.71
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 3A
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 8
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)1679321611076651614936991655197
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width11121212128111111121211
Total Lost time (s)5.05.05.05.05.05.05.05.05.05.0
Lane Util. Factor1.000.951.000.950.971.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.001.000.991.001.000.99
Flpb, ped/bikes1.001.001.001.001.001.001.001.001.001.00
Frt1.000.981.001.001.001.000.851.001.000.85
Flt Protected0.951.000.951.000.951.001.000.951.001.00
Satd. Flow (prot)1678 34141752 33653193 1801 1483 1805 1863 1503
Flt Permitted0.241.000.151.000.951.001.000.951.001.00
Satd. Flow (perm)421 3414284 33653193 1801 1483 1805 1863 1503
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)186 103617911973918166401101861219
RTOR Reduction (vph)01300100076000
Lane Group Flow (vph)186 12020119756016640341861219
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)4%3%3%3%7%0%6%2%4%0%2%3%
Turn Typepm+ptNApm+ptNAProtNA pm+ovProtNA pm+ov
Protected Phases6125832476
Permitted Phases1537
Actuated Green, G (s)35.228.031.226.09.116.521.71.08.415.6
Effective Green, g (s)35.228.031.226.09.116.521.71.08.415.6
Actuated g/C Ratio0.500.400.440.370.130.230.310.010.120.22
Clearance Time (s)5.05.05.05.05.05.05.05.05.05.0
Vehicle Extension (s)2.05.02.05.03.02.02.02.02.02.0
Lane Grp Cap (vph)337 1352233 123741042056025221437
v/s Ratio Prot0.06 c0.350.040.22c0.050.020.000.010.03 c0.05
v/s Ratio Perm0.220.190.020.09
v/c Ratio0.550.890.510.610.400.100.060.720.280.50
Uniform Delay, d111.019.914.118.228.321.217.334.728.424.1
Progression Factor1.001.001.001.001.001.001.001.001.001.00
Incremental Delay, d21.18.10.81.30.70.00.058.20.20.3
Delay (s)12.128.014.919.529.021.317.393.028.624.5
Level of ServiceBCBBCCBFCC
Approach Delay (s)25.918.923.929.5
Approach LOSCBCC
Intersection Summary
HCM 2000 Control Delay23.9HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.77
Actuated Cycle Length (s)70.7Sum of lost time (s)20.0
Intersection Capacity Utilization61.8%ICU Level of ServiceB
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 3A
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 9
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)36 10531833855
v/c Ratio0.090.750.000.650.050.30
Control Delay9.217.110.017.636.020.7
Queue Delay0.00.00.00.00.00.0
Total Delay9.217.110.017.636.020.7
Queue Length 50th (ft)3174022147
Queue Length 95th (ft)31 #13203 #9921946
Internal Link Dist (ft)9201135476583
Turn Bay Length (ft)15050
Base Capacity (vph)407 1408230 1288454409
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.090.750.000.650.020.13
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 3A
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 10
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)32947117391151111138
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111281112881188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.001.001.000.980.90
Flt Protected0.951.000.951.000.960.99
Satd. Flow (prot)1694 18441745 182117341448
Flt Permitted0.211.000.101.000.960.99
Satd. Flow (perm)376 1844185 182117341448
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)36 1052118211261112142
RTOR Reduction (vph)0000000100390
Lane Group Flow (vph)36 10530183300700160
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)3%3%0%0%4%9%0%0%0%0%0%13%
Turn Typepm+ptNApm+ptNASplitNASplitNA
Protected Phases61253344
Permitted Phases15
Actuated Green, G (s)70.665.060.860.13.27.3
Effective Green, g (s)70.665.060.860.13.27.3
Actuated g/C Ratio0.730.680.630.620.030.08
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)352 1245128 113757109
v/s Ratio Protc0.01 c0.570.000.46c0.00c0.01
v/s Ratio Perm0.070.00
v/c Ratio0.100.850.010.730.120.15
Uniform Delay, d114.711.828.812.545.141.5
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.15.50.02.51.00.6
Delay (s)14.917.328.815.046.142.2
Level of ServiceBBCBDD
Approach Delay (s)17.215.046.142.2
Approach LOSBBDD
Intersection Summary
HCM 2000 Control Delay17.1HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.72
Actuated Cycle Length (s)96.2Sum of lost time (s)20.0
Intersection Capacity Utilization64.6%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 3A
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 11
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)12964168713573
v/c Ratio0.030.790.000.570.580.28
Control Delay5.418.25.011.337.723.0
Queue Delay0.00.00.00.00.00.0
Total Delay5.418.25.011.337.723.0
Queue Length 50th (ft)123201275220
Queue Length 95th (ft)8 #819242511759
Internal Link Dist (ft)1135550599330
Turn Bay Length (ft)5065
Base Capacity (vph)453 1216276 1208399435
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.030.790.000.570.340.17
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 3A
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 12
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)118046416135105115321617
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width1112812121281188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.99
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.991.001.000.990.96
Flt Protected0.951.000.951.000.960.98
Satd. Flow (prot)1745 18181805 180716351618
Flt Permitted0.301.000.141.000.770.84
Satd. Flow (perm)550 1818257 180713101390
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)128937116816117126361819
RTOR Reduction (vph)0300000200160
Lane Group Flow (vph)12961016870013300570
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)0%3%5%0%5%0%7%9%0%6%0%12%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)51.851.051.851.013.613.6
Effective Green, g (s)51.851.051.851.013.613.6
Actuated g/C Ratio0.640.630.640.630.170.17
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)366 1153180 1146221235
v/s Ratio Protc0.00 c0.530.000.38
v/s Ratio Perm0.020.00c0.100.04
v/c Ratio0.030.830.010.600.600.24
Uniform Delay, d16.211.410.38.730.928.9
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.05.30.00.94.60.5
Delay (s)6.316.710.39.535.529.5
Level of ServiceABBADC
Approach Delay (s)16.69.535.529.5
Approach LOSBADC
Intersection Summary
HCM 2000 Control Delay15.9HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.78
Actuated Cycle Length (s)80.4Sum of lost time (s)15.0
Intersection Capacity Utilization66.9%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 3A
1: Big Bay Rd & Corinth Rd (Rte 28)/Corinth Rd (Rt 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 1
Lane GroupEBLEBTWBL WBTNBTNBRSBLSBT
Lane Group Flow (vph)4366719568610630219170
v/c Ratio0.090.870.620.380.360.420.670.18
Control Delay6.631.319.011.825.98.836.57.4
Queue Delay0.00.00.00.00.00.00.00.0
Total Delay6.631.319.011.825.98.836.57.4
Queue Length 50th (ft)623030903940751
Queue Length 95th (ft)20 #471 #117156809514029
Internal Link Dist (ft)58965642634
Turn Bay Length (ft)100247200
Base Capacity (vph)702917318 1802423725411546
Starvation Cap Reductn00000000
Spillback Cap Reductn00000000
Storage Cap Reductn00000000
Reduced v/c Ratio0.060.730.610.380.250.420.460.13
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 3A
1: Big Bay Rd & Corinth Rd (Rte 28)/Corinth Rd (Rt 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 2
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)42604501915571161004296187267
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111212111212121211111111
Total Lost time (s)5.05.05.05.05.05.05.05.0
Lane Util. Factor1.001.001.000.951.001.001.001.00
Frpb, ped/bikes1.001.001.000.991.001.001.000.98
Flpb, ped/bikes1.001.001.001.001.001.001.001.00
Frt1.000.991.000.971.000.851.000.85
Flt Protected0.951.000.951.000.951.000.951.00
Satd. Flow (prot)1711 18091678 34591787 1516 1711 1513
Flt Permitted0.391.000.161.000.681.000.691.00
Satd. Flow (perm)704 1809286 34591279 1516 1240 1513
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)43616511955681181024302191268
RTOR Reduction (vph)0400160001060530
Lane Group Flow (vph)43663019567000106196191170
Confl. Peds. (#/hr)55555
Heavy Vehicles (%)2%3%11%4%1%2%1%2%3%2%2%2%
Turn Typepm+ptNApm+ptNAPermNA pm+ov PermNA
Protected Phases6125327
Permitted Phases15337
Actuated Green, G (s)33.730.140.933.714.922.114.914.9
Effective Green, g (s)33.730.140.933.714.922.114.914.9
Actuated g/C Ratio0.500.450.610.500.220.330.220.22
Clearance Time (s)5.05.05.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.03.03.0
Lane Grp Cap (vph)406810323 1734283611274335
v/s Ratio Prot0.01 c0.37c0.060.190.030.01
v/s Ratio Perm0.050.300.080.09 c0.15
v/c Ratio0.110.820.600.390.370.320.700.05
Uniform Delay, d18.616.210.110.422.216.924.120.6
Progression Factor1.001.001.001.001.001.001.001.00
Incremental Delay, d20.16.53.20.10.80.37.50.1
Delay (s)8.722.613.210.523.017.231.620.6
Level of ServiceACBBCBCC
Approach Delay (s)21.811.118.728.6
Approach LOSCBBC
Intersection Summary
HCM 2000 Control Delay17.9HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.76
Actuated Cycle Length (s)67.2Sum of lost time (s)15.0
Intersection Capacity Utilization77.1%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 3A
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Corinth Rd (Rt 28)/Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 3
Lane GroupEBTEBRWBL WBTSBTSBR
Lane Group Flow (vph)908280601679274294
v/c Ratio0.890.421.020.300.740.55
Control Delay41.05.556.77.843.19.8
Queue Delay0.00.00.00.00.00.0
Total Delay41.05.556.77.843.19.8
Queue Length 50th (ft)2370 ~1226513416
Queue Length 95th (ft)#39558 #36513121480
Internal Link Dist (ft)656424 1060
Turn Bay Length (ft)235260
Base Capacity (vph)1023664592 2251519644
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.890.421.020.300.530.46
Intersection Summary
~ Volume exceeds capacity, queue is theoretically infinite.
Queue shown is maximum after two cycles.
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 3A
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Corinth Rd (Rt 28)/Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 4
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)089027458966500002690288
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111112101188121281212
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor0.951.001.000.951.001.00
Frpb, ped/bikes1.000.971.001.001.000.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.851.001.001.000.85
Flt Protected1.001.000.951.000.951.00
Satd. Flow (prot)3388 1554 1651 33881719 1541
Flt Permitted1.001.000.151.000.951.00
Satd. Flow (perm)3388 1554257 33881719 1541
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)090828060167900002740294
RTOR Reduction (vph)0019500000000202
Lane Group Flow (vph)0908856016790000027492
Confl. Peds. (#/hr)555
Heavy Vehicles (%)0%3%1%2%3%0%0%0%0%5%0%3%
Turn TypeNA Perm pm+ptNAPermNA Perm
Protected Phases12 1 2 53
Permitted Phases1 1 2 533
Actuated Green, G (s)25.125.155.255.217.817.8
Effective Green, g (s)25.125.155.255.217.817.8
Actuated g/C Ratio0.300.300.670.670.210.21
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)4.04.02.02.02.0
Lane Grp Cap (vph)1024469592 2253368330
v/s Ratio Prot0.27c0.310.20
v/s Ratio Perm0.05 c0.370.160.06
v/c Ratio0.890.181.020.300.740.28
Uniform Delay, d127.621.422.15.830.527.2
Progression Factor1.001.000.681.141.001.00
Incremental Delay, d29.60.335.30.17.00.2
Delay (s)37.221.650.36.737.527.4
Level of ServiceDCDADC
Approach Delay (s)33.527.20.032.3
Approach LOSCCAC
Intersection Summary
HCM 2000 Control Delay30.6HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.99
Actuated Cycle Length (s)83.0Sum of lost time (s)15.0
Intersection Capacity Utilization85.5%ICU Level of ServiceE
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 3A
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 5
Lane GroupEBLEBTWBT WBRNBLNBTNBR
Lane Group Flow (vph)356827 1018341264303302
v/c Ratio0.820.370.720.430.700.660.66
Control Delay30.32.526.84.540.118.918.8
Queue Delay0.00.00.00.00.00.00.0
Total Delay30.32.526.84.540.118.918.8
Queue Length 50th (ft)795224701275554
Queue Length 95th (ft)m128m66 #39358205143142
Internal Link Dist (ft)424376672
Turn Bay Length (ft)200290380
Base Capacity (vph)487 2251 1416793534571571
Starvation Cap Reductn0000000
Spillback Cap Reductn0000000
Storage Cap Reductn0000000
Reduced v/c Ratio0.730.370.720.430.490.530.53
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.
m Volume for 95th percentile queue is metered by upstream signal.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 3A
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 6
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)349810009983342590593000
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width10118812111212128128
Total Lost time (s)5.05.05.05.05.05.05.0
Lane Util. Factor1.000.950.951.001.000.950.95
Frpb, ped/bikes1.001.001.000.971.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.001.00
Frt1.001.001.000.851.000.850.85
Flt Protected0.951.001.001.000.951.001.00
Satd. Flow (prot)1635 33883539 1473 1770 1461 1461
Flt Permitted0.131.001.001.000.951.001.00
Satd. Flow (perm)217 33883539 1473 1770 1461 1461
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)35682700 10183412640605000
RTOR Reduction (vph)000002050145145000
Lane Group Flow (vph)35682700 1018136264158157000
Confl. Peds. (#/hr)555
Heavy Vehicles (%)3%3%0%0%2%3%2%0%3%0%0%0%
Turn Typepm+ptNANA PermPermNA Perm
Protected Phases6 1 5 657
Permitted Phases1 5 6577
Actuated Green, G (s)55.255.233.233.217.817.817.8
Effective Green, g (s)55.255.233.233.217.817.817.8
Actuated g/C Ratio0.670.670.400.400.210.210.21
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)2.04.04.02.02.02.0
Lane Grp Cap (vph)434 22531415589379313313
v/s Ratio Protc0.170.240.290.11
v/s Ratio Permc0.380.09 c0.150.11
v/c Ratio0.820.370.720.230.700.500.50
Uniform Delay, d119.16.221.016.530.128.728.7
Progression Factor1.170.311.001.001.001.001.00
Incremental Delay, d26.70.11.90.34.50.50.5
Delay (s)28.92.022.916.734.629.229.1
Level of ServiceCACBCCC
Approach Delay (s)10.121.330.80.0
Approach LOSBCCA
Intersection Summary
HCM 2000 Control Delay19.9HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.82
Actuated Cycle Length (s)83.0Sum of lost time (s)15.0
Intersection Capacity Utilization85.5%ICU Level of ServiceE
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 3A
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 7
Lane GroupEBLEBTWBL WBTNBLNBTNBRSBLSBTSBR
Lane Group Flow (vph)156 121523272645511827517124234
v/c Ratio0.420.890.850.500.900.230.360.160.530.71
Control Delay15.436.651.223.763.829.33.849.547.642.7
Queue Delay0.08.70.00.00.00.00.00.00.00.0
Total Delay15.445.351.223.763.829.33.849.547.642.7
Queue Length 50th (ft)41340871611415201073126
Queue Length 95th (ft)98 #596 #283292 #2771104735127183
Internal Link Dist (ft)376364742425
Turn Bay Length (ft)115200200200100100
Base Capacity (vph)519 1368273 1463506525769278473473
Starvation Cap Reductn013900000000
Spillback Cap Reductn0000000000
Storage Cap Reductn0000000000
Reduced v/c Ratio0.300.990.850.500.900.220.360.060.260.49
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 3A
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 8
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)1488802752206781143211226116118222
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width11121212128111111121211
Total Lost time (s)5.05.05.05.05.05.05.05.05.05.0
Lane Util. Factor1.000.951.000.950.971.001.001.001.001.00
Frpb, ped/bikes1.000.991.001.001.001.000.991.001.000.99
Flpb, ped/bikes1.001.001.001.001.001.001.001.001.001.00
Frt1.000.961.001.001.001.000.851.001.000.85
Flt Protected0.951.000.951.000.951.001.000.951.001.00
Satd. Flow (prot)1728 33561752 34633286 1783 1511 1805 1845 1513
Flt Permitted0.291.000.101.000.951.001.000.951.001.00
Satd. Flow (perm)528 3356179 34633286 1783 1511 1805 1845 1513
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)1569262892327141245511827517124234
RTOR Reduction (vph)026001000168000
Lane Group Flow (vph)156 11890232725045511810717124234
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)1%3%3%3%4%0%3%3%2%0%3%2%
Turn Typepm+ptNApm+ptNAProtNA pm+ovProtNA pm+ov
Protected Phases6125832476
Permitted Phases1537
Actuated Green, G (s)48.139.252.341.315.128.139.12.515.524.4
Effective Green, g (s)48.139.252.341.315.128.139.12.515.524.4
Actuated g/C Ratio0.480.390.520.410.150.280.390.020.150.24
Clearance Time (s)5.05.05.05.05.05.05.05.05.05.0
Vehicle Extension (s)2.05.02.05.03.02.02.02.02.02.0
Lane Grp Cap (vph)357 1305264 141849249766144283441
v/s Ratio Prot0.040.35c0.100.21c0.140.070.020.010.07 c0.05
v/s Ratio Perm0.17c0.360.050.11
v/c Ratio0.440.910.880.510.920.240.160.390.440.53
Uniform Delay, d115.729.225.622.242.328.120.148.438.733.2
Progression Factor1.001.001.001.001.001.001.001.001.001.00
Incremental Delay, d20.310.325.70.623.30.10.02.00.40.6
Delay (s)16.039.451.422.865.528.220.250.439.133.8
Level of ServiceBDDCECCDDC
Approach Delay (s)36.829.745.636.3
Approach LOSDCDD
Intersection Summary
HCM 2000 Control Delay36.9HCM 2000 Level of ServiceD
HCM 2000 Volume to Capacity ratio0.86
Actuated Cycle Length (s)100.8Sum of lost time (s)20.0
Intersection Capacity Utilization77.2%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 3A
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 9
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)74 10991915738
v/c Ratio0.240.740.010.740.040.22
Control Delay14.716.710.021.026.122.2
Queue Delay0.00.00.00.00.00.0
Total Delay14.716.710.021.026.122.2
Queue Length 50th (ft)5190026316
Queue Length 95th (ft)55 #13903 #11951540
Internal Link Dist (ft)6871135476583
Turn Bay Length (ft)15050
Base Capacity (vph)429 1476197 1239452432
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.170.740.010.740.020.09
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 3A
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 10
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)70 1038618531611511124
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111281112881188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.001.001.000.900.91
Flt Protected0.951.000.951.000.990.98
Satd. Flow (prot)1694 18611745 182016121488
Flt Permitted0.141.000.071.000.990.98
Satd. Flow (perm)249 1861134 182016121488
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)74 1093618981711512125
RTOR Reduction (vph)0000000500230
Lane Group Flow (vph)74 10990191500200150
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)3%2%0%0%4%6%0%0%0%27%0%0%
Turn Typepm+ptNApm+ptNASplitNASplitNA
Protected Phases61253344
Permitted Phases15
Actuated Green, G (s)68.662.955.454.73.06.0
Effective Green, g (s)68.662.955.454.73.06.0
Actuated g/C Ratio0.740.680.600.590.030.06
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)323 126492 10755296
v/s Ratio Protc0.02 c0.590.000.50c0.00c0.01
v/s Ratio Perm0.150.01
v/c Ratio0.230.870.010.850.040.15
Uniform Delay, d120.911.633.615.643.440.9
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.46.60.06.60.30.7
Delay (s)21.318.233.622.243.741.6
Level of ServiceCBCCDD
Approach Delay (s)18.422.243.741.6
Approach LOSBCDD
Intersection Summary
HCM 2000 Control Delay20.6HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.78
Actuated Cycle Length (s)92.6Sum of lost time (s)20.0
Intersection Capacity Utilization73.0%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 3A
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 11
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)31 101857978745
v/c Ratio0.070.740.020.610.430.19
Control Delay4.815.25.013.935.821.6
Queue Delay0.00.00.00.00.00.0
Total Delay4.815.25.013.935.821.6
Queue Length 50th (ft)321911373511
Queue Length 95th (ft)16 #8825 #6308040
Internal Link Dist (ft)1135550599330
Turn Bay Length (ft)5065
Base Capacity (vph)453 1371303 1298409476
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.070.740.020.610.210.09
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 3A
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 Report
CHAPage 12
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)298897857461166161111615
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width1112812121281188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.99
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.991.001.001.000.95
Flt Protected0.951.000.951.000.960.99
Satd. Flow (prot)1678 18361805 182317631666
Flt Permitted0.241.000.151.000.740.92
Satd. Flow (perm)432 1836282 182313571546
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)319368257851269171121716
RTOR Reduction (vph)0200000100140
Lane Group Flow (vph)31 101605797008600310
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)4%2%2%0%4%0%0%0%0%0%0%7%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)58.856.355.654.710.110.1
Effective Green, g (s)58.856.355.654.710.110.1
Actuated g/C Ratio0.710.680.680.660.120.12
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)346 1255207 1211166189
v/s Ratio Protc0.00 c0.550.000.44
v/s Ratio Perm0.060.02c0.060.02
v/c Ratio0.090.810.020.660.520.16
Uniform Delay, d15.69.28.98.233.832.3
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.14.00.01.32.70.4
Delay (s)5.713.28.99.536.532.7
Level of ServiceABAADC
Approach Delay (s)12.99.536.532.7
Approach LOSBADC
Intersection Summary
HCM 2000 Control Delay13.0HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.76
Actuated Cycle Length (s)82.3Sum of lost time (s)15.0
Intersection Capacity Utilization72.3%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 4A 60% Retail
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 1
Lane GroupEBLEBTWBL WBTNBTNBRSBLSBT
Lane Group Flow (vph)56858238553561947421
v/c Ratio0.090.840.650.460.300.370.400.09
Control Delay4.926.719.710.734.310.837.313.8
Queue Delay0.00.00.00.00.00.00.00.0
Total Delay4.926.719.710.734.310.837.313.8
Queue Length 50th (ft)6342331312629340
Queue Length 95th (ft)23 #740 #15730758737319
Internal Link Dist (ft)58965642650
Turn Bay Length (ft)100247200
Base Capacity (vph)769 1065408 1198382564374446
Starvation Cap Reductn00000000
Spillback Cap Reductn00000000
Storage Cap Reductn00000000
Reduced v/c Ratio0.070.810.580.460.150.340.200.05
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 4A 60% Retail
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 2
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)527465222135515950218069119
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111212111212121211111111
Total Lost time (s)5.05.05.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.000.991.001.001.000.97
Flpb, ped/bikes1.001.001.001.000.991.001.001.00
Frt1.000.991.000.951.000.851.000.86
Flt Protected0.951.000.951.000.951.000.951.00
Satd. Flow (prot)1711 18401678 17131759 1459 1711 1498
Flt Permitted0.451.000.121.000.721.000.721.00
Satd. Flow (perm)807 1840221 17131325 1459 1297 1498
Peak-hour factor, PHF0.930.930.930.930.930.930.930.930.930.930.930.93
Adj. Flow (vph)568025623838217154219474120
RTOR Reduction (vph)020011000820180
Lane Group Flow (vph)56856023854200561127430
Confl. Peds. (#/hr)55555
Heavy Vehicles (%)2%2%3%4%6%2%2%2%7%2%2%2%
Turn Typepm+ptNApm+ptNAPermNA pm+ov PermNA
Protected Phases6125327
Permitted Phases15337
Actuated Green, G (s)47.944.259.450.79.219.49.29.2
Effective Green, g (s)47.944.259.450.79.219.49.29.2
Actuated g/C Ratio0.610.560.760.650.120.250.120.12
Clearance Time (s)5.05.05.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.03.03.0
Lane Grp Cap (vph)534 1034356 1104155452151175
v/s Ratio Prot0.00 c0.47c0.090.320.030.00
v/s Ratio Perm0.060.420.040.04 c0.06
v/c Ratio0.100.830.670.490.360.250.490.02
Uniform Delay, d16.214.114.07.232.023.732.530.7
Progression Factor1.001.001.001.001.001.001.001.00
Incremental Delay, d20.15.64.70.31.40.32.50.0
Delay (s)6.319.618.77.633.424.035.030.8
Level of ServiceABBACCCC
Approach Delay (s)18.810.926.134.1
Approach LOSBBCC
Intersection Summary
HCM 2000 Control Delay17.4HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.76
Actuated Cycle Length (s)78.6Sum of lost time (s)15.0
Intersection Capacity Utilization78.4%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 4A 60% Retail
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 3
Lane GroupEBTEBRWBL WBTSBTSBR
Lane Group Flow (vph)813284463613261297
v/c Ratio0.710.390.990.620.650.57
Control Delay25.54.652.35.632.411.0
Queue Delay0.20.00.00.00.00.0
Total Delay25.74.652.35.632.411.0
Queue Length 50th (ft)16101657410524
Queue Length 95th (ft)26352 m# 312 m10117488
Internal Link Dist (ft)656424 1060
Turn Bay Length (ft)235260
Base Capacity (vph)1150722466993612666
Starvation Cap Reductn000000
Spillback Cap Reductn4800000
Storage Cap Reductn000000
Reduced v/c Ratio0.740.390.990.620.430.45
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.
m Volume for 95th percentile queue is metered by upstream signal.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 4A 60% Retail
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 4
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)074826142656400002400273
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111112101188121281212
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor0.951.001.001.001.001.00
Frpb, ped/bikes1.000.971.001.001.000.97
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.851.001.001.000.85
Flt Protected1.001.000.951.000.951.00
Satd. Flow (prot)3292 1541 1589 17331752 1482
Flt Permitted1.001.000.221.000.951.00
Satd. Flow (perm)3292 1541366 17331752 1482
Peak-hour factor, PHF0.920.920.920.920.920.920.920.920.920.920.920.92
Adj. Flow (vph)081328446361300002610297
RTOR Reduction (vph)0018400000000176
Lane Group Flow (vph)081310046361300000261121
Confl. Peds. (#/hr)555
Heavy Vehicles (%)0%6%2%6%6%0%0%0%0%3%0%6%
Turn TypeNA Perm pm+ptNAPermNA Perm
Protected Phases12 1 2 53
Permitted Phases1 1 2 533
Actuated Green, G (s)25.225.241.341.316.616.6
Effective Green, g (s)25.225.241.341.316.616.6
Actuated g/C Ratio0.350.350.570.570.230.23
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)4.04.02.02.02.0
Lane Grp Cap (vph)1153540467995404342
v/s Ratio Prot0.25c0.210.35
v/s Ratio Perm0.06 c0.360.150.08
v/c Ratio0.710.180.990.620.650.35
Uniform Delay, d120.116.219.710.125.023.2
Progression Factor1.001.000.730.401.001.00
Incremental Delay, d22.10.230.00.82.70.2
Delay (s)22.316.444.34.827.623.4
Level of ServiceCBDACC
Approach Delay (s)20.821.80.025.4
Approach LOSCCAC
Intersection Summary
HCM 2000 Control Delay22.1HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.91
Actuated Cycle Length (s)71.9Sum of lost time (s)15.0
Intersection Capacity Utilization71.3%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 4A 60% Retail
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 5
Lane GroupEBLEBTWBTNBLNBTNBR
Lane Group Flow (vph)312762 1083259315315
v/c Ratio0.770.690.880.670.660.66
Control Delay28.77.932.033.517.317.3
Queue Delay0.03.00.30.00.00.0
Total Delay28.710.932.333.517.317.3
Queue Length 50th (ft)109882211045151
Queue Length 95th (ft)m# 244534 #407175132132
Internal Link Dist (ft)424376672
Turn Bay Length (ft)290380
Base Capacity (vph)407 1111 1229589627627
Starvation Cap Reductn02410000
Spillback Cap Reductn0012000
Storage Cap Reductn000000
Reduced v/c Ratio0.770.880.890.440.500.50
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.
m Volume for 95th percentile queue is metered by upstream signal.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 4A 60% Retail
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 6
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)287701007522452380580000
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width10118812111212128128
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.000.951.000.950.95
Frpb, ped/bikes1.001.000.991.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.000.961.000.850.85
Flt Protected0.951.001.000.951.001.00
Satd. Flow (prot)1604 176632821687 1448 1448
Flt Permitted0.151.001.000.951.001.00
Satd. Flow (perm)258 176632821687 1448 1448
Peak-hour factor, PHF0.920.920.920.920.920.920.920.920.920.920.920.92
Adj. Flow (vph)312762008172662590630000
RTOR Reduction (vph)00003700142142000
Lane Group Flow (vph)31276200 10460259173173000
Confl. Peds. (#/hr)555
Heavy Vehicles (%)5%4%0%0%4%9%7%0%4%0%0%0%
Turn Typepm+ptNANAPermNA Perm
Protected Phases6 1 5 657
Permitted Phases1 5 677
Actuated Green, G (s)40.345.326.216.616.616.6
Effective Green, g (s)40.345.326.216.616.616.6
Actuated g/C Ratio0.560.630.360.230.230.23
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)2.04.02.02.02.0
Lane Grp Cap (vph)408 11121195389334334
v/s Ratio Prot0.15 c0.43c0.320.12
v/s Ratio Perm0.28c0.150.12
v/c Ratio0.760.690.880.670.520.52
Uniform Delay, d121.58.721.325.124.124.1
Progression Factor0.750.471.001.001.001.00
Incremental Delay, d25.81.57.63.30.60.6
Delay (s)21.95.628.928.424.724.7
Level of ServiceCACCCC
Approach Delay (s)10.328.925.80.0
Approach LOSBCCA
Intersection Summary
HCM 2000 Control Delay21.5HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.81
Actuated Cycle Length (s)71.9Sum of lost time (s)15.0
Intersection Capacity Utilization71.3%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 4A 60% Retail
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 7
Lane GroupEBLEBTWBL WBTNBLNBTSBTSBR
Lane Group Flow (vph)188 11969776514112465221
v/c Ratio0.670.630.360.860.450.270.400.49
Control Delay26.721.913.936.834.710.752.68.6
Queue Delay0.01.10.00.00.00.00.00.0
Total Delay26.723.013.936.834.710.752.68.6
Queue Length 50th (ft)46285224357616433
Queue Length 95th (ft)#20155466 #911126578659
Internal Link Dist (ft)376131742425
Turn Bay Length (ft)11560200100
Base Capacity (vph)282 1907353891369772392451
Starvation Cap Reductn0439000000
Spillback Cap Reductn00000000
Storage Cap Reductn00000000
Reduced v/c Ratio0.670.810.270.860.380.160.170.49
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 4A 60% Retail
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 8
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)169942134876721612729831642199
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width11121212128111111121211
Total Lost time (s)5.05.05.05.05.05.05.05.0
Lane Util. Factor1.000.951.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.991.000.99
Flpb, ped/bikes1.001.001.001.001.001.001.001.00
Frt1.000.981.001.001.000.891.000.85
Flt Protected0.951.000.951.000.951.000.991.00
Satd. Flow (prot)1678 34261752 17711646 15561847 1494
Flt Permitted0.131.000.161.000.461.000.871.00
Satd. Flow (perm)226 3426297 1771802 15561622 1494
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)188 1047149977471814132921847221
RTOR Reduction (vph)070000068000177
Lane Group Flow (vph)188 1189097765014156006544
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)4%3%3%3%7%0%6%2%4%0%2%3%
Turn Typepm+ptNApm+ptNApm+ptNAPermNA pm+ov
Protected Phases61258376
Permitted Phases15377
Actuated Green, G (s)68.458.260.054.027.827.89.219.4
Effective Green, g (s)68.458.260.054.027.827.89.219.4
Actuated g/C Ratio0.640.540.560.500.260.260.090.18
Clearance Time (s)5.05.05.05.05.05.05.05.0
Vehicle Extension (s)2.05.02.05.03.02.02.02.0
Lane Grp Cap (vph)282 1863248893315404139340
v/s Ratio Protc0.060.350.02 c0.43c0.060.040.01
v/s Ratio Perm0.360.20c0.060.040.02
v/c Ratio0.670.640.390.860.450.140.470.13
Uniform Delay, d117.417.012.723.132.230.446.636.7
Progression Factor1.001.001.001.001.001.001.001.00
Incremental Delay, d24.61.00.48.91.00.10.90.1
Delay (s)22.018.113.032.033.230.547.536.8
Level of ServiceCBBCCCDD
Approach Delay (s)18.629.831.939.2
Approach LOSBCCD
Intersection Summary
HCM 2000 Control Delay25.4HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.75
Actuated Cycle Length (s)107.0Sum of lost time (s)20.0
Intersection Capacity Utilization73.0%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 4A 60% Retail
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 9
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)36 10471819855
v/c Ratio0.090.740.000.630.050.30
Control Delay9.217.010.016.836.020.6
Queue Delay0.00.00.00.00.00.0
Total Delay9.217.010.016.836.020.6
Queue Length 50th (ft)3173020936
Queue Length 95th (ft)31 #13103 #9431946
Internal Link Dist (ft)9201135476583
Turn Bay Length (ft)15050
Base Capacity (vph)380 1406236 1296456411
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.090.740.000.630.020.13
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 4A 60% Retail
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 10
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)32941117261151111138
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111281112881188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.001.001.000.980.90
Flt Protected0.951.000.951.000.960.99
Satd. Flow (prot)1694 18441745 182117341448
Flt Permitted0.221.000.101.000.960.99
Satd. Flow (perm)394 1844192 182117341448
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)36 1046118071261112142
RTOR Reduction (vph)0000000100390
Lane Group Flow (vph)36 10470181900700160
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)3%3%0%0%4%9%0%0%0%0%0%13%
Turn Typepm+ptNApm+ptNASplitNASplitNA
Protected Phases61253344
Permitted Phases15
Actuated Green, G (s)69.664.661.060.33.27.3
Effective Green, g (s)69.664.661.060.33.27.3
Actuated g/C Ratio0.730.670.640.630.030.08
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)354 1243133 114657110
v/s Ratio Protc0.01 c0.570.000.45c0.00c0.01
v/s Ratio Perm0.070.00
v/c Ratio0.100.840.010.710.120.15
Uniform Delay, d114.311.828.012.044.941.3
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.15.40.02.11.00.6
Delay (s)14.417.128.014.145.942.0
Level of ServiceBBCBDD
Approach Delay (s)17.014.145.942.0
Approach LOSBBDD
Intersection Summary
HCM 2000 Control Delay16.6HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.72
Actuated Cycle Length (s)95.8Sum of lost time (s)20.0
Intersection Capacity Utilization64.3%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild AM: Improvements 4A 60% Retail
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 11
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)12958167513273
v/c Ratio0.030.790.000.560.560.28
Control Delay5.417.95.011.136.923.1
Queue Delay0.00.00.00.00.00.0
Total Delay5.417.95.011.136.923.1
Queue Length 50th (ft)122601225120
Queue Length 95th (ft)8 #811241311559
Internal Link Dist (ft)1135550599330
Turn Bay Length (ft)5065
Base Capacity (vph)463 1216282 1208405439
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.030.790.000.560.330.17
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild AM: Improvements 4A 60% Retail
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 12
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)117986416025103115321617
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width1112812121281188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.99
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.991.001.000.990.96
Flt Protected0.951.000.951.000.960.98
Satd. Flow (prot)1745 18171805 180716351618
Flt Permitted0.311.000.141.000.770.84
Satd. Flow (perm)565 1817264 180713131389
Peak-hour factor, PHF0.900.900.900.900.900.900.900.900.900.900.900.90
Adj. Flow (vph)128877116696114126361819
RTOR Reduction (vph)0300000200160
Lane Group Flow (vph)12955016750013000570
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)0%3%5%0%5%0%7%9%0%6%0%12%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)51.350.551.350.513.313.3
Effective Green, g (s)51.350.551.350.513.313.3
Actuated g/C Ratio0.640.630.640.630.170.17
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)375 1152185 1146219232
v/s Ratio Protc0.00 c0.530.000.37
v/s Ratio Perm0.020.00c0.100.04
v/c Ratio0.030.830.010.590.590.25
Uniform Delay, d16.111.210.08.530.628.8
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.05.10.00.84.20.6
Delay (s)6.116.310.09.334.929.4
Level of ServiceABBACC
Approach Delay (s)16.29.334.929.4
Approach LOSBACC
Intersection Summary
HCM 2000 Control Delay15.5HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.77
Actuated Cycle Length (s)79.6Sum of lost time (s)15.0
Intersection Capacity Utilization66.4%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 4A 60% Retail
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 1
Lane GroupEBLEBTWBL WBTNBTNBRSBLSBT
Lane Group Flow (vph)4364118765410629419170
v/c Ratio0.110.830.510.660.370.390.690.18
Control Delay6.930.011.017.630.47.741.78.9
Queue Delay0.00.00.00.00.00.00.00.0
Total Delay6.930.011.017.630.47.741.78.9
Queue Length 50th (ft)6238312224029781
Queue Length 95th (ft)19 #45865396979117233
Internal Link Dist (ft)58965642634
Turn Bay Length (ft)100247200
Base Capacity (vph)459 1072456 1196414838404532
Starvation Cap Reductn00000000
Spillback Cap Reductn00000000
Storage Cap Reductn00000000
Reduced v/c Ratio0.090.600.410.550.260.350.470.13
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 4A 60% Retail
1: Big Bay Rd & Corinth Rd (Rte 28)12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 2
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)42578501835251161004288187267
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111212111212121211111111
Total Lost time (s)5.05.05.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.000.991.001.001.000.97
Flpb, ped/bikes1.001.001.001.000.991.001.001.00
Frt1.000.991.000.971.000.851.000.85
Flt Protected0.951.000.951.000.951.000.951.00
Satd. Flow (prot)1711 18071678 18171780 1516 1711 1496
Flt Permitted0.301.000.171.000.681.000.691.00
Satd. Flow (perm)548 1807308 18171275 1516 1240 1496
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)43590511875361181024294191268
RTOR Reduction (vph)030080001220530
Lane Group Flow (vph)43638018764600106172191170
Confl. Peds. (#/hr)55555
Heavy Vehicles (%)2%3%11%4%1%2%1%2%3%2%2%2%
Turn Typepm+ptNApm+ptNAPermNA pm+ov PermNA
Protected Phases6125327
Permitted Phases15337
Actuated Green, G (s)36.533.047.338.816.025.316.016.0
Effective Green, g (s)36.533.047.338.816.025.316.016.0
Actuated g/C Ratio0.500.450.650.530.220.350.220.22
Clearance Time (s)5.05.05.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.03.03.0
Lane Grp Cap (vph)328813372961278626270326
v/s Ratio Prot0.01 c0.35c0.06 c0.360.030.01
v/s Ratio Perm0.060.260.080.08 c0.15
v/c Ratio0.130.780.500.670.380.280.710.05
Uniform Delay, d110.017.19.712.624.417.426.522.7
Progression Factor1.001.001.001.001.001.001.001.00
Incremental Delay, d20.25.01.11.90.90.28.20.1
Delay (s)10.222.110.814.525.317.634.722.7
Level of ServiceBCBBCBCC
Approach Delay (s)21.413.719.631.5
Approach LOSCBBC
Intersection Summary
HCM 2000 Control Delay19.3HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.73
Actuated Cycle Length (s)73.3Sum of lost time (s)15.0
Intersection Capacity Utilization75.3%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 4A 60% Retail
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 3
Lane GroupEBTEBRWBL WBTSBTSBR
Lane Group Flow (vph)873280579638253294
v/c Ratio0.850.420.960.540.690.54
Control Delay38.05.541.33.640.18.1
Queue Delay1.70.00.01.00.00.0
Total Delay39.75.541.34.640.18.1
Queue Length 50th (ft)2240274801226
Queue Length 95th (ft)#37258 m# 157 m10119766
Internal Link Dist (ft)656424 1060
Turn Bay Length (ft)235260
Base Capacity (vph)1025665603 1186519656
Starvation Cap Reductn00030300
Spillback Cap Reductn5700000
Storage Cap Reductn000000
Reduced v/c Ratio0.900.420.960.720.490.45
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.
m Volume for 95th percentile queue is metered by upstream signal.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 4A 60% Retail
2: Exit 18-SB ON Ramp/Exit 18-SB OFF Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 4
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)085627456762500002480288
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111112101188121281212
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor0.951.001.001.001.001.00
Frpb, ped/bikes1.000.971.001.001.000.97
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.000.851.001.001.000.85
Flt Protected1.001.000.951.000.951.00
Satd. Flow (prot)3388 1554 1651 17831719 1524
Flt Permitted1.001.000.171.000.951.00
Satd. Flow (perm)3388 1554287 17831719 1524
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)087328057963800002530294
RTOR Reduction (vph)0019500000000220
Lane Group Flow (vph)0873855796380000025374
Confl. Peds. (#/hr)555
Heavy Vehicles (%)0%3%1%2%3%0%0%0%0%5%0%3%
Turn TypeNA Perm pm+ptNAPermNA Perm
Protected Phases12 1 2 53
Permitted Phases1 1 2 533
Actuated Green, G (s)25.125.155.255.217.717.7
Effective Green, g (s)25.125.155.255.217.717.7
Actuated g/C Ratio0.300.300.670.670.210.21
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)4.04.02.02.02.0
Lane Grp Cap (vph)1025470604 1187367325
v/s Ratio Prot0.26c0.290.36
v/s Ratio Perm0.05 c0.350.150.05
v/c Ratio0.850.180.960.540.690.23
Uniform Delay, d127.221.320.97.230.126.9
Progression Factor1.001.000.800.311.001.00
Incremental Delay, d27.20.317.20.34.30.1
Delay (s)34.321.633.92.534.327.1
Level of ServiceCCCACC
Approach Delay (s)31.217.50.030.4
Approach LOSCBAC
Intersection Summary
HCM 2000 Control Delay25.3HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.93
Actuated Cycle Length (s)82.9Sum of lost time (s)15.0
Intersection Capacity Utilization82.4%ICU Level of ServiceE
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 4A 60% Retail
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 5
Lane GroupEBLEBTWBTNBLNBTNBR
Lane Group Flow (vph)356770 1273264292292
v/c Ratio0.850.650.920.700.610.61
Control Delay38.87.736.240.314.714.7
Queue Delay0.018.60.90.00.00.0
Total Delay38.826.237.140.314.714.7
Queue Length 50th (ft)159973141273737
Queue Length 95th (ft)m# 256 m570 #521205115115
Internal Link Dist (ft)424376672
Turn Bay Length (ft)290380
Base Capacity (vph)419 1186 1382535589589
Starvation Cap Reductn042123000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.851.010.940.490.500.50
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.
m Volume for 95th percentile queue is metered by upstream signal.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 4A 60% Retail
3: Exit 18-NB OFF Ramp/Exit 18-NB ON Ramp & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 6
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)349755009363122590572000
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width10118812111212128128
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.000.951.000.950.95
Frpb, ped/bikes1.001.000.991.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.000.961.000.850.85
Flt Protected0.951.001.000.951.001.00
Satd. Flow (prot)1636 178333741770 1461 1461
Flt Permitted0.121.001.000.951.001.00
Satd. Flow (perm)208 178333741770 1461 1461
Peak-hour factor, PHF0.980.980.980.980.980.980.980.980.980.980.980.98
Adj. Flow (vph)356770009553182640584000
RTOR Reduction (vph)00003400165165000
Lane Group Flow (vph)35677000 12390264127127000
Confl. Peds. (#/hr)555
Heavy Vehicles (%)3%3%0%0%2%3%2%0%3%0%0%0%
Turn Typepm+ptNANAPermNA Perm
Protected Phases6 1 5 657
Permitted Phases1 5 677
Actuated Green, G (s)50.255.233.117.717.717.7
Effective Green, g (s)50.255.233.117.717.717.7
Actuated g/C Ratio0.610.670.400.210.210.21
Clearance Time (s)5.05.05.05.05.0
Vehicle Extension (s)2.04.02.02.02.0
Lane Grp Cap (vph)420 11871347377311311
v/s Ratio Protc0.17 c0.43c0.370.09
v/s Ratio Perm0.34c0.150.09
v/c Ratio0.850.650.920.700.410.41
Uniform Delay, d126.48.123.630.128.128.1
Progression Factor0.930.601.001.001.001.00
Incremental Delay, d29.10.810.44.70.30.3
Delay (s)33.75.834.034.928.428.4
Level of ServiceCACCCC
Approach Delay (s)14.634.030.40.0
Approach LOSBCCA
Intersection Summary
HCM 2000 Control Delay26.3HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.85
Actuated Cycle Length (s)82.9Sum of lost time (s)15.0
Intersection Capacity Utilization82.4%ICU Level of ServiceE
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 4A 60% Retail
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 7
Lane GroupEBLEBTWBL WBTNBLNBTSBTSBR
Lane Group Flow (vph)161 1168167755287278102243
v/c Ratio0.750.830.610.940.880.480.430.65
Control Delay37.928.522.745.349.410.834.621.4
Queue Delay0.00.00.00.00.00.00.00.0
Total Delay37.928.522.745.349.410.834.621.4
Queue Length 50th (ft)3224433319111374553
Queue Length 95th (ft)#166 #510 #133 #7391779286112
Internal Link Dist (ft)376131742425
Turn Bay Length (ft)11560200100
Base Capacity (vph)216 1401291799328906564374
Starvation Cap Reductn00000000
Spillback Cap Reductn00000000
Storage Cap Reductn00000000
Reduced v/c Ratio0.750.830.570.940.880.310.180.65
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 4A 60% Retail
4: Big Boom Rd/Media Dr & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 8
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)15391619415970611273761881681231
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width11121212128111111121211
Total Lost time (s)5.05.05.05.05.05.05.05.0
Lane Util. Factor1.000.951.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.001.000.991.000.98
Flpb, ped/bikes1.001.001.001.001.001.001.001.00
Frt1.000.971.001.001.000.891.000.85
Flt Protected0.951.000.951.000.951.000.991.00
Satd. Flow (prot)1728 33971752 18231694 15851838 1503
Flt Permitted0.131.000.121.000.451.000.891.00
Satd. Flow (perm)241 3397227 1823804 15851650 1503
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)16196420416774312287801981785243
RTOR Reduction (vph)0170010012000082
Lane Group Flow (vph)161 11510167754028715800102161
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)1%3%3%3%4%0%3%3%2%0%3%2%
Turn Typepm+ptNApm+ptNApm+ptNAPermNA pm+ov
Protected Phases61258376
Permitted Phases15377
Actuated Green, G (s)35.330.239.932.522.522.59.414.5
Effective Green, g (s)35.330.239.932.522.522.59.414.5
Actuated g/C Ratio0.470.400.530.430.300.300.130.19
Clearance Time (s)5.05.05.05.05.05.05.05.0
Vehicle Extension (s)2.05.02.05.03.02.02.02.0
Lane Grp Cap (vph)214 1366270788336474206390
v/s Ratio Prot0.050.34c0.06 c0.41c0.090.100.03
v/s Ratio Perm0.300.27c0.160.060.08
v/c Ratio0.750.840.620.960.850.330.500.41
Uniform Delay, d115.920.313.020.623.620.530.626.6
Progression Factor1.001.001.001.001.001.001.001.00
Incremental Delay, d212.45.43.022.518.60.20.70.3
Delay (s)28.425.715.943.142.220.631.326.8
Level of ServiceCCBDDCCC
Approach Delay (s)26.038.231.628.2
Approach LOSCDCC
Intersection Summary
HCM 2000 Control Delay30.8HCM 2000 Level of ServiceC
HCM 2000 Volume to Capacity ratio0.97
Actuated Cycle Length (s)75.1Sum of lost time (s)20.0
Intersection Capacity Utilization81.9%ICU Level of ServiceD
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 4A 60% Retail
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 9
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)72 10611880738
v/c Ratio0.210.720.000.710.040.21
Control Delay13.116.110.020.526.022.2
Queue Delay0.00.00.00.00.00.0
Total Delay13.116.110.020.526.022.2
Queue Length 50th (ft)5174024415
Queue Length 95th (ft)53 #13273 #11471540
Internal Link Dist (ft)9201135476583
Turn Bay Length (ft)15050
Base Capacity (vph)475 1474214 1232456435
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.150.720.000.710.020.09
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 4A 60% Retail
5: Pine St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 10
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)68 1003518201611511124
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width111281112881188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frpb, ped/bikes1.001.001.001.000.980.98
Flpb, ped/bikes1.001.001.001.001.001.00
Frt1.001.001.001.000.900.91
Flt Protected0.951.000.951.000.990.98
Satd. Flow (prot)1694 18611745 182016121488
Flt Permitted0.161.000.091.000.990.98
Satd. Flow (perm)283 1861159 182016121488
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)72 1056518631711512125
RTOR Reduction (vph)0000000500230
Lane Group Flow (vph)72 10610188000200150
Confl. Peds. (#/hr)5555
Heavy Vehicles (%)3%2%0%0%4%6%0%0%0%27%0%0%
Turn Typepm+ptNApm+ptNASplitNASplitNA
Protected Phases61253344
Permitted Phases15
Actuated Green, G (s)68.062.354.854.13.06.0
Effective Green, g (s)68.062.354.854.13.06.0
Actuated g/C Ratio0.740.680.600.590.030.07
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)345 1260106 10705297
v/s Ratio Protc0.02 c0.570.000.48c0.00c0.01
v/s Ratio Perm0.130.01
v/c Ratio0.210.840.010.820.040.15
Uniform Delay, d118.811.230.515.143.140.6
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.35.30.05.20.30.7
Delay (s)19.216.430.520.343.441.3
Level of ServiceBBCCDD
Approach Delay (s)16.620.343.441.3
Approach LOSBCDD
Intersection Summary
HCM 2000 Control Delay18.7HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.75
Actuated Cycle Length (s)92.0Sum of lost time (s)20.0
Intersection Capacity Utilization71.3%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

QueuesBuild PM: Improvements 4A 60% Retail
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 11
Lane GroupEBLEBTWBL WBTNBTSBT
Lane Group Flow (vph)3198157668445
v/c Ratio0.070.720.020.590.410.18
Control Delay4.814.45.213.434.821.3
Queue Delay0.00.00.00.00.00.0
Total Delay4.814.45.213.434.821.3
Queue Length 50th (ft)319811263411
Queue Length 95th (ft)16 #8335 #5907740
Internal Link Dist (ft)1135550599330
Turn Bay Length (ft)5065
Base Capacity (vph)457 1372328 1311426497
Starvation Cap Reductn000000
Spillback Cap Reductn000000
Storage Cap Reductn000000
Reduced v/c Ratio0.070.720.020.580.200.09
Intersection Summary
# 95th percentile volume exceeds capacity, queue may be longer.
Queue shown is maximum after two cycles.

HCM Signalized Intersection Capacity AnalysisBuild PM: Improvements 4A 60% Retail
6: Richardson St & Main St12/29/2015
30230-Exit 18 Rezone StudySynchro 8 – Report
CHAPage 12
MovementEBLEBTEBRWBL WBT WBRNBLNBTNBRSBLSBTSBR
Lane Configurations
Volume (vph)298577557161163161111615
Ideal Flow (vphpl)1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900 1900
Lane Width1112812121281188118
Total Lost time (s)5.05.05.05.05.05.0
Lane Util. Factor1.001.001.001.001.001.00
Frt1.000.991.001.001.000.95
Flt Protected0.951.000.951.000.960.99
Satd. Flow (prot)1678 18401805 182417641684
Flt Permitted0.261.000.171.000.740.91
Satd. Flow (perm)459 1840318 182413601553
Peak-hour factor, PHF0.950.950.950.950.950.950.950.950.950.950.950.95
Adj. Flow (vph)319027957541266171121716
RTOR Reduction (vph)0200000100140
Lane Group Flow (vph)3197905766008300310
Heavy Vehicles (%)4%2%2%0%4%0%0%0%0%0%0%7%
Turn Typepm+ptNApm+ptNAPermNAPermNA
Protected Phases612537
Permitted Phases1537
Actuated Green, G (s)56.954.553.752.99.89.8
Effective Green, g (s)56.954.553.752.99.89.8
Actuated g/C Ratio0.710.680.670.660.120.12
Clearance Time (s)5.05.05.05.05.05.0
Vehicle Extension (s)3.03.03.03.03.03.0
Lane Grp Cap (vph)362 1251228 1204166190
v/s Ratio Protc0.00 c0.530.000.42
v/s Ratio Perm0.060.01c0.060.02
v/c Ratio0.090.780.020.640.500.16
Uniform Delay, d15.38.78.08.032.931.5
Progression Factor1.001.001.001.001.001.00
Incremental Delay, d20.13.30.01.12.40.4
Delay (s)5.412.08.09.135.231.9
Level of ServiceABAADC
Approach Delay (s)11.89.135.231.9
Approach LOSBADC
Intersection Summary
HCM 2000 Control Delay12.2HCM 2000 Level of ServiceB
HCM 2000 Volume to Capacity ratio0.73
Actuated Cycle Length (s)80.1Sum of lost time (s)15.0
Intersection Capacity Utilization69.0%ICU Level of ServiceC
Analysis Period (min)15
c Critical Lane Group

Exit 18 Rezone Study – Queensbury, NY
Appendix D

Mitigation Improvement Cost Estimates

Exit 18 Rezone Study
Town of Queensbury, New York
Mitigation Improvements
Planning-level Cost Estimate
Big Bay Rd/Corinth Rd
Figure 12 Improvement Concept
ITEMCOST
pavement120,000.00$
sidewalk7,700.00$
excavation23,000.00$
curb10,500.00$
traffic signal upgrades/ modifications100,000.00$
drainage170,000.00$
431,200.00$
Contingency:40%172,500.00$
Total:603,700.00$
Say:605,000.00$
Concept 1 subtotal:
CHA File: 30230

Exit 18 Rezone Study
Town of Queensbury, New York
Mitigation Improvements
Planning-level Cost Estimate
Big Boom Rd/Main St
Figure 13 Improvement Concept
ITEMCOST
pavement232,000.00$
sidewalk43,000.00$
excavation45,000.00$
curb35,000.00$
traffic signal upgrades/ modifications(at Big Boom Rd and at I87 NB)225,000.00$
drainage250,000.00$
basin at Big Boom Road10,000.00$
840,000.00$
Contingency:40%336,000.00$
Total:1,176,000.00$
Say:1,200,000.00$
Figure 14 Improvement Concept
ITEMCOST
pavement96,000.00$
sidewalk7,000.00$
excavation18,000.00$
curb7,000.00$
traffic signal upgrades/ modifications(Big Boom)175,000.00$
drainage86,000.00$
basin at Big Boom Road5,000.00$
394,000.00$
Contingency:40%157,600.00$
Total:551,600.00$
Say:555,000.00$
Concept 1 subtotal:
Concept 2 subtotal:
CHA File: 30230

River Street Streetscape Revitalization Plan

TOWN OF WARRENSBURG
River Street Streetscape Revitalization Plan
WHERE HISTORY & WATER MEET
APRIL 2015
THE CHAZEN COMPANIES

TABLE OF CONTENTS

INTRODUCTION …………………………………………………………. 1
HISTORICAL CONTEXT …………………………………………………. 3
VISION & OBJECTIVES …………………………………………………. 5
RIVER STREET CONCEPT PLAN ………………………………………… 7
PRELIMINARY COST ESTIMATES & IMPLEMENTATION STRATEGY … 18

APPENDICES:
A: EXISTING CONDITIONS ANALYSIS

RIVER STREET STREETSCAPE REVITALIZATION PLAN

1
INTRODUCTION
Classified as a “Rural Minor Collector” roadway, River Street in
the Town of Warrensburg (NYS Route 418 and County Route
14) may not seem like it is a significant transportation
corridor.
1 However, as an Adirondack gateway community,
Warrensburg’s roadway s serve as a vital link to a sizable
portion of the Adirondack Park, particularly for northern and
western portions of Warren County . River Street is no
excep tion. As one of the p rimary connection s to the Town of
Thurman (including Thurman’s recently redeveloped railroad
station ), River Street has long been conduit for locals,
recreationists , visitors , and business alike.
Approximately 2.3 miles in length , River Street runs parallel to
the Schroon River ’s southern bank, providing important
1 NYS Department of Transportation (NYSDOT) functional classification
waterfront access. Between Judd Bridge and Richards Avenue,
River Street is owned by Warren County and designated as
County Route 14. West of Richards Avenue, the roadway is
owned by New York State and designated as NYS Route 418.
The western portion of the corridor is the principal collector
road to the Town’s Adirond ack Park Agency (APA) southern
Hamlet Area. It also serves as an important link to Main Street
(NYS Route 9, via Richards Ave and Judd Street bridges) as well
as to Warrensburg Elementary School and the Town’s
Recreation Field (via Milton Street Bridge and Library Avenue)
for residents that live south of the Schroon River.
Approximately 0.25 miles beyond the Milton S treet
intersection (near the National Grid Substation) the corridor
becomes increasingly rural in nature, offering splendid views
of the Schroon River and nearby forested mountain landscape
( see Study Area Map located at the end of this section).
Adjoining land uses include a concentration of residential
neighborhoods along Alden, Commercial, Mill, Ridge, and
Burdick Avenues. There are also a variety of recreation and
commercial uses: the proposed Paper Mill Park (former
Warrensburg Board & Paper Mill site), the Town’s Historic
Mills District Park and Riverfront Farmer’s Market , Grist Mill
Restaurant, River Street Plaza, Curtis Lumber, and Hickory Ski
Cen ter. This mix of land use supports a small but vibrant and
revitalizing community center.
Residents and visitors enjoying the bustling local farmers market
located along Rivers Street

RIVER STREET STREETSCAPE REVITALIZATION PLAN

2
The Town desire s to enhance the River Street corridor. A
handful of pocket parks, a disconnected network of sidewalks,
variable road way conditions, and a number of impediments
within the right of way result in a streetscape that is visually
unappealing and may contribute to a number safety related
concerns among residents .
2 Among the greatest concerns is
the number of vehicular accidents involving utility poles as
well as the lack of pedestrian accommodations in select areas.
The River Street Existing Conditions Analysis ( see Appendix A )
provides a summary of these conditions.
In light of these issues, the Town of Warrensburg, with
funding and technical support from the Adirondack/Glens Falls
Transportation Council (A/ GFTC), has developed the River
Street Streetscape Revitalization Plan to address these issues.
The River Street Streetscape Revitalization Plan is also
intended to create a strategy that will help further revitalize
the corridor by attract ing funding opportunities for
improvements , pro mote new private investments, encourage
new visitors, and provide facilities that meet the needs of
existing and future residents. This plan does not obligate
Warren County or the New York State Department of
Transportation to any specific improvements. Although the
Town does not directly contr ol the roadway, it is hoped that
the collaborative process which was used to create this plan

Note that further technical analysis may be require d in order to verify 2
saf ety concerns that were i dentified by the Town and/or community .
will be carried forward as projects are completed in the
future.
Developed by a committee that consisted of local staff and
elected officials , as well as A/GFTC , Warren County, and NYS
Department of Transportation representatives , the River
Street Streetscape Revitalization Plan was prepared following
an extensive inventory and analysis process, walking tours of
the corridor, Farmers Market visits, stakeholder i nput, and a
Town Board workshop that was held April 8, 2015. This
participatory planning approach has resulted in a plan that is
based on a shared community vision . Further more, the plan
acknowledges that there are a limited local, state, and federal
f unding opportunities . Therefore , the plan is intended to be
both practical in design and implementable through strategic
partnerships and with diverse range of grant support.
From local commuting to recreationist, anecdotal evidence suggest
that cycling has increased in popularity along the River Street corridor

RIVER STREET STREETSCAPE REVITALIZATION PLAN

3
HISTORICAL CONTEXT
Rivers Street’s close proximity to the Schroon River (and
confluence with the Hudson River ) has had a strong influence
on the Town’s industrial heritage . According to th e Historical
Park and Riverfront Farmer’s Market plaque (located along
River Street) , “timber, water, location…this winning
combination sparked development and fortunes of early
Warrensburg.”
3 This convergence of natural resources led to
the growth of sawmills, gristmills, plan ing mills, and tanneries
along the Schroon River in early ninet eenth century,
supporting job growth and development of working -class
residential neighborhoods . During this time period River
Street evolved to accommodate the demands of these
industrial land uses.
In 1870, Thomas C. Durant brought the ‘Adirondac ’ railroad to
nearby Thurman.
4 In 1909 a dam along th e Schroon River was
constructed, formi ng a large impoundment (Schroon River
Pond) and providing hyd ropower to the nearby Schroon River
Pulp Company (eventually renamed Warrensburg Wood &
Paper Corporation ).
5 This, coupled with roadway
reconstruction in 1912 by the NYS Department of Highways
3 The eastern portion of River Street is located within the Warrensburg
Hamlet Historic District (01NRO1752 )
4 Lake to Locks Passage (www.lakestolocks.org) 5 Warren County Historical Society
(www.warrencountyhistoricalsociety.org)
(now NYSDOT), buoyed the production and shipment of goods
and services, as well as visitors to the region.
However, according to the National Park Service (NPS), much
of this industrial base quickly “succumbe d to the economic
pressures of expanding national markets …,” throughout the
early part of twentieth century. While a handful of operations
(particularly milling) continued through the middle twentieth
century, a precipitous decline in local manufacture resulted in
the shuttering of many business along the River Street
corridor (including the end of passenger and freight service at

RIVER STREET STREETSCAPE REVITALIZATION PLAN

4
Thurman Station) . In the absence of manufacturing, recreation
and tourism emerged as the region’s economic base industry.
Throughout the latter part of the twentieth century this
economic shift resulted in the adaptive reuse of several
buildings , which were turned into locally owned shops and
r estaurants. For example, in 1976 the Grist Mill was sold and
converted into a restaurant and museum. Later, t he Empire
Sh irt Factory was converted into the River Street Plaza, a mix
of commercial uses that include office, retail, and dining
space . In addition to these conversions several site s were
redeveloped into open space resources . For example, t he
Town’s Historic Mills District Park was once home to the J.R.
Foster’ s Shoe Peg Factory and the proposed Paper Mill Park
was once the Warrensburg Wood & Paper Corporation. These
changes have resulted in a River Street corridor that is
significantly different from its industrial past. From its
charming commercial district and quaint residential
neighborhoods to its open space and outdoor recreation resourc
es, the River Street corridor is now a place where
residents and visitors can enjoy shopping, dining out, riding
their bike , paddling, fishing, picnicking, or just watching the
Schroon River float on by .
As interest in heritage tourism, cycling, and water -based
recreation continue s to grow , coupled with an increasing
desire among Baby Boomers and Millennials to live, work, and
play in more walkable mixed use communities, there are many
new opportunities to capitalize on when it comes to the
continued revitalization of the River Street Corridor (as well as
the entire Town of Warrensburg ). These opportunities i nclude
new and improved waterfront access , expanded cultural and
recreational resources, improved pedestrian access and
amenities, historic interpretation design features, wayfinding
signage, aesthetic enhancements, and inc reased multimodal
opportunities (e.g., cycling, leveraging the reopening of
Thurman Station passenger service, etc.).

RIVER STREET STREETSCAPE REVITALIZATION PLAN

5
VISION & OBJECTIVES
Today River Street is an important transportation, residential,
commercial, recreation, waterfront, and historical access
corridor. On any given day you will find resident s going about
their daily lives, walking, shopping, and traveling to school and
work. You may also find outdoor and recreation enthusiasts
fishing, kayaking, canoeing, jogging, or cycling up and down
the roadway and along the Schroon River. Local shops and
restaurants are often filled with patrons , particularly during
the warm months when seasonal residents and tourists fill the
area. In order to su pport the continued revitalization of the
River Street corridor, the future vision for its streetscape is
multifaceted and needs to address the following:
• Improved vehicular, multimodal, and pedestrian access
and safety for existing users and to support future
demands, taking into consideration new businesses,
cultural and recreational opportunities .
• Improved physical and visual access to existing and
new recreation and waterfront facilities.
• Improved interpretation of the corridor’s historic
resources and industrial legacy .
• Improved aesthetic quality of the corridor in order to
encourage new private investment and increased
visitation .
• Encourage d use of the Thurman Station by improving
physical and informational (e.g., signage, web based, etc.)
connectivity to River Street business and the
Town’s hamlet center .
• Acknowledgment that the corridor is not homogenous
when it comes nearby land uses and/o r physical
settings and that pedestrian related improvements
need to be context sensitive .
Ultimately the design objective for the River Street c orridor is
to create a more “complete street.” While traditional roadway
design s use a classification system ba sed on increasing
volumes and speeds , a more “complete street” in tegrates
various design features to control access and speed, thereby
making for a safer, convenient, and comfortable travel and
access experience for users of all ages and abilities regardless
of their mode of transportation. This integrated design
approach helps to reduce vehicle miles traveled and promotes
pedestrian mobility. Formally recognized by the NYS Complete
Streets Act in 2011 and by the Warrensburg’s Complete
Streets policy in 2012 and Complete Streets ordinance in
2013, a complete streets approach often includes a variety of
design features that make streets and communities more
livable .
According to the National Complete Streets Coalition (NCSC),
“a complete street may include: sidewalks, bike lanes (or wide
paved shoulders), special bus lanes, comfortable and

RIVER STREET STREETSCAPE REVITALIZATION PLAN

6
accessible public transportation stops, frequent and safe
crossing opportunities , median islands, accessible pedestrian
signals, curb extensions, narrower travel lanes, roundabouts,
and more .”
6 The NCSC further states, “ A complete street in a
rural area will look quite different from a complete street in a
highly urban area, but both are designed to balance safety and
convenience for everyone using the road.”
T he Ri ver Street corridor consists of two (2) distinct land use
patterns, a more developed eastern portion and a rural
western portion. Therefore, a complet e streets design
approach that recognizes these differences is appropriate.
More specifically, it is recommended that the area between
the Judd Bridge and just beyond the Milton Street bridge
neighborhood include more robust streetscape
improvements . In turn, it is recommended that the western
portion (towards Thurman ) incorporate more subtle
improvements , including additional safety signage and wider
road shoulders wherever practicable.
Although complete streets enhancements can at times be cost
prohibitive , the River Street Streetscape Revitalization Plan
acknowledges this and advances a new vision for the corridor
by using practical and cost -effec tive design solutions.
Furthermore, future improvements are intended to be done
iteratively, thus spreading the potential costs over a longer
6 http://www.smartgrowthamerica.org/complete- streets/complete-
streets -fundamentals/complete -streets- faq
period of time or as part of series of interrela ted public and
private projects .

Western portions of the River Street corridor is predominantly defined
by a more rural characteristic (courtesy Google Street View)
Residence and adaptively reused buildings line the eastern portion of
the River Street corridor (courtesy Google Street View)

RIVER STREET STREETSCAPE REVITALIZATION PLAN

7
RIVER STREET CONCEPT PLAN
The River Street Streetscape Revitalization Concept Plan
(located at the end of this section) is divided into four (4)
sections: Judd Bridge to west of Mill Avenue (Figure 1); west
of Mill Avenue to Alden Avenue (Figure 2); Alden Avenue to
the National Grid Substation (Figure 3); and the National Grid
Substation to the Thurman Bridge (Figure 4). Figures 1 -3
provide a detailed rendering of the proposed corridor
improvements. Given the more rural character of the
corridor’s western portion, Figure 4 provide s a general
overview of the proposed improvements.
While the River Street Streetscape Revitalization Concept Plan
illustrates site -specific improvements , it is important to note
that the proposed design elements are conceptual in nature
and do not commit the Town of Warrensburg, Warren Cou nty,
AGFTC, or NYSDOT to fund any of these improvements .
Furthermore, additional analysis of the proposed design
elements is necessary (e.g., traffic safety analysis, warrant
analysis, etc.) during future design phases and/or before any
financial commitments can be made. Finally, it will also be
important to work with willing land owners in order to
implement select features. This includes any design elements that
extend s beyond the right of way limits and onto privately
owned lands.
7
As part of the Town’s 2012 Comprehensive Plan ’s hamlet
sustainability and complete streets goals, i t is important to
recognize that the revitalization of the River Street corridor is
a priority initiative for Warrensburg . As part of this effort,
Warren County recently repaved their portion of the roadway
and is in the process of install ing select improvements to the
Judd Bridge intersection .
Currently the repaving of the NYS -owned portion of the
roadway is not scheduled until 2017 at the earliest . This is a
case where the New York State Region 1 paving schedule is
asynchronous to the local priorities. The Town could work
w ith NYSDOT to determine if the S tate schedule has flexibility
for the paving to move forward sooner. However, given that
the Town also desires additional improvements , which would
not be part of a strict pavement preservation project, it may
be beneficial for the local agencies to pursue funding for the
no n-preservation elements (such as lighting, signage, etc.) in
7 Note the River Street right of way (ROW) is approximately 50 feet. Based
on real property data, approximately five (5) or six (6) parcels may be
impacted by the proposed improvements. Please note this estimate does
not include in -kind replacement of existing sidewalks or the relocation
select utility poles onto adjoining parcels. Furthermore, expanded road

shoulders may result in additional encroachments.

RIVER STREET STREETSCAPE REVITALIZATION PLAN

8
the meantime. This may allow the Town to coordinate with
the State to complete these additional improvements in
tandem with the scheduled pavement preservation projects,
resulting in less disruption to the roadway. This is particularly
true where/if full depth reconstruction is required. However, if
NYSDOT is going to invest in roadway improvements, even for
preservation purposes, elements of the River Street
Streetscape plan should be taken into consideration in order
to support future growth and economic development
opportunities.
For organizational purposes the River Street Streetscape
Revitalization Plan recommendations (next page) have been
divided into the following categories: pe destrian safety and
amenities; multimodal access and safety; vehicle access and
safety; waterfront access and recreation; and interpretation,
wayfinding, and visual enhancements .
Recently repaved section of River Street near the Judd Bridge
Intersection. Note Warren County plans to install new crosswalks and
stop signs.

RIVER STREET STREETSCAPE REVITALIZATION PLAN

9
Pedestrian Access & Amenities:
P roposed pedestrian enhancements to
the River Street corridor include
sidewalk replacements f rom the Judd
Bridge to the National Grid Substation. It
also includes new sidewalks that are
intended to enhance safety and improve
connectivity between existing sidewalk segments and
adjoin ing places of interest. This includes the Richards Avenue
Bridge Park , the southern side of River Street between
Richard s Avenue and Mill Avenue , and between the Historical
Park and Riverfront Farmer’s Market (hereafter ‘Farmers
Market Park’) and National Grid Substation . Please note that
some these improvements may require minor realignment of
the roadway and/or intersection and guiderail
reconfiguration.
Sidewalks must comply with ADA accessibility requirements
and be maintained during winter months . Wherever sidewalks
are impracticable due to existing infrastructure, site access , or
parking configurations (e.g., Judd Bridge, Grist Mill, Curtis
Lumber, etc.), pedestrian spaces may be defined using striping
or textured/contrasting surfaces (e.g., at grade concre te, etc.).
The plan also calls for improved crosswalks and new crossing
opportunities throughout the corridor. At a minimum it is
recommended that all existing crosswalks should be restriped.
Existing , relocated, modified, and proposed c rosswalks at Judd Bridge
, Veterans Park, Richard s Avenue, Mill Avenue,
Commercial Avenu e and Farmers Market, Alden Avenue, and
Milton Avenue should be well-connected to the pedestrian
access and/or intersection improvements. For example, the
proposed Veterans Park midblock crosswalk should link with
the re spective pedestrian walkway improvements.
These
improvements may also include modification to the existing
guiderails as well.
In addition to the above physical improvements, enhanced
pedestrian signage should be used to alert drivers. This not
only includes crosswalk signage but flashing beacons as well. If
warranted , flashing beacons in advance of the Veterans Park
midblock crosswalk as well as the crosswalks at Mill and
Commercial avenues (Farmers Market) should be considered .
In effort slow vehicle traffic approaching the Milton Avenue
Bridge neighborhood, a variable speed sign west of the
National Grid Substation should be conside red.
In the absence of crosswalks pedestrians are more likely to cross at
unsafe or illegal locations (courtesy Google Street View)

RIVER STREET STREETSCAPE REVITALIZATION PLAN

10
Multimodal Access & Amenities : C ycling
continues to increase in popularity as a
mode of transportation, a method of
ex ercise, and as a recreational activity .
In response , the River Street Streetscape
Plan calls for a number of cycling related
improvements. While narrow travel
lanes , slower travel speeds , relocation of problematic utility
poles, and the installation of more bicycle friendly stormwater
grates will (and already do ) encourage and support cycling
between Judd Bridge and the National Grid Substation,
expanded road shoulders from t he substation to the Thurman
Bridge, coupled with shared roadway signage , are
recommended in order to enhance the cyclist’s experience
throughout the remainder of the River Street corridor.
Ongoing maintenance (e.g., street cleaning, snow removal,
etc.) of these improvements will further encourage safe
cycling as well. Additionally, bicycle racks at Veterans Park,
Richard s Avenue Park , Farmers Market Park , and the proposed
Paper Mill Park will help facilitate cycling.
The redevelopment and expanded use of Thurman Station
presents additional multimodal opportunities for the River
Street corridor and Town of Warrensburg. With increased
ridership, the Town, Warrensburg Chamber of Commerce, or
an alternative entity may consider providing scheduled shuttle
service from the Thurman Station to points along River Street and downto
wn Warrensburg. Improvements to River Street
should take into consideration possible transit service stops.
Narrow and poor road shoulder conditions along River Street can deter
cycling and can be contribute to a number of safety related concerns
Passenger train service at the Thurman Station continues to increase in
popularity (courtesy of flickr user Ironmike9)

RIVER STREET STREETSCAPE REVITALIZATION PLAN

11
Vehicle Access , Travel & Safety: While
the primary focus of the River Street
Streetscape Revitalization Plan is to
improve pedestrian access and
aesthetic quality of the corridor, several
vehicular related improvements were
identified through the planning process .
(I t is important to reiterate that traffic related improvement
will require further traffic safety and warrant analysis during
subsequent design and/or funding phases .)
Proposed v ehicle related improvements include the
installation of stop signs at each approach to the Jud d Bridge
intersection . The current configuration, which currently has a
single yield sign at the Judd Street approach, can be confusing
to drivers, conducive to fast turning speeds, and does not
provide an opportunity for pedestrians to cross. R educed
turning radii using restriping and guiderails , coupled with new
signage, stop lines, crosswalks, and walkway and sidewalk
segments is believed to make a safer intersection for all users.
The Town and County are already collaborating to make some
of these improvements, especially con cerning the installation
of stop signs.
Similar improvements to the Richards Avenue intersection are
proposed . According to the existing conditions analysis there a
number of vehicle accidents at this intersection. Based on
community input and a review of crash data, limited line of sight
and the current two -way stop configuration may play a
role. The lack of a crosswalk is a cause for concern among
residents. As such, the installation of four- way stop, the
narrowing of turning radii, and the moving of stop lines in
order to improve line of sight is suggested . Turning radii need
to accommodate truck traffic . Further traffic analysis is
needed to ensure that these improvements will have a
positive impact. An alternate, more subtle approach , may
include simple restriping to accommodate truck traffic or a
mountable curb, and clearly defined stop lines and crosswalk s.
Th e Alden Avenue intersection may be improved by slightly
realigning (to make a T -intersection) and narrowing the
Poor striping, no stop lines, lack of crosswalks, wide turning radii, and
an awkward stopping configuration make for seemingly unsafe
intersection (courtesy of Google Street View)

RIVER STREET STREETSCAPE REVITALIZATION PLAN

12
intersection in order to reduce turning speeds and limit the
distance pedestrians must cross .
Finally, the plan calls for a number of vehicle related access ,
travel, and safe ty enhancements . This includes resurfacing or
reconstruction of the roadway, traffic calming measures (e.g.,
additional speed limit signage, variable speed signs, etc.), and
select access management improv ements. Perhaps one of the
most important improvements is the relocation of utility poles
that are located within close proximity to travel lanes.
According to the existing conditions report there are a number
accidents that have involved problematic utility poles, some of
which have resulted personal injury. It also appears that a
handful of utility poles have also been struck by snow plows ,
which may impact the structural integrity of the poles.

Evidence of vehicle and/or snow plow impacts can be seen on several
utility poles within the corridor. Other utility poles are considerably
closer to the travel lane.

RIVER STREET STREETSCAPE REVITALIZATION PLAN

13
Wa terfront Access & Recreation: There
are several formal and informal points of
a ccess to the Schroon River within the
River Street corridor. This includes
Veterans and the Farmers Market parks ,
as well as small pocket parks at Richard s
and Milton Avenues . Each offer s
opportunities for both active (primarily
fishing) and passive recreation . The Town
is also currently in the process of
developing a new waterfront park at the
former Warrensburg Board & Paper Mill
Company site, which was recently named
Paper Mill Park. In additio n to these park facilities are a
number of informal locations where outdoor enthusiasts can
access the waterfront via the River Street right of way.
However, these locations tend to be overgrown with
vegetation , located along steep embankments , and/or have
limited parking opportunities.
While canoe and kayak enthusiasts may take advantage of
these waterfront opportunities, the only formal boat launch is
located directly above the Schroon River hydroelectric dam.
The site is owned by Boralex and the boat launch is required
as part of their Federal Energy Regulatory Commission (FERC)
license . This access point allows paddlers to enjoy the Schroon
River Pond impoundment, which extends from the dam to the
Milton Avenue Bridge . There are no formal access opportunities below the dam or above the
Richards Avenue
Bridge.
T he plan identifies several fishing and canoe and kayak access
improvements in order to enhance recreational opportunities
within the Schroon River corridor. T his includes enhancements
to Richards Avenue pocket park (a popular fishing location) as
well as the pocket park opposite Alden Avenue . More
specifically, improved sidewalk connectivity and small
riverfront trails at both locations should help increase
accessibility and usage . It also includes a more well- defined
parking area at Richards Avenue pocket park. The plan also
includes a new waterfront park at the National Grid
With no sidewalks and only small gap in the guiderail, the small pocket
park located opposite the Alden Avenue intersection has limited
accessibly (courtesy of Google Street View)

RIVER STREET STREETSCAPE REVITALIZATION PLAN

14
s ubstation. The proposed park includes a parking area and a
cartop boat launch, which would provide access to the upper
reaches of the Schroon River Pond impoundment.
Finally, the plan supports the Town of Warrensburg’s effort to
develop Paper Mill Park at the site of the former Warrensburg
Board and Paper Mill Company. The proposed park is currently
in the design phase and the Town is now identifying elements
of the project that can be done using local labor forces. Once
complete , the park will include a portage from the existing
boat launch located above the dam to a cartop boat launch
that will be located below the dam. This will not only improve
accessibility for users of the park, it may also support through
paddlers and perhaps be part of a future Hudson River and
Schroon River blueway trail. A concept plan for the proposed
Paper Mill Park is included as the end of this section (see
Figure 5 ).
The Town’s proposed Paper Mill Park will provide enhanced waterfront
access below the Schroon River Dam. The park will also include a host of
other passive and active recreation opportunities

RIVER STREET STREETSCAPE REVITALIZATION PLAN

15
Interpretation, Wayfinding , and Visual
Enhancements : Two of the Town of
Warrensburg’s greatest resources are
the Hamlet of Warrensburg and
Warrensburg Mills Historic Districts. As
previously noted a significant portion of
the study area is within the se historic
district boundaries. Signage identifying
the hamlet and historic district is
generally lacking. The River Street
corridor should include informational
signs that better identify the limits of the
historical districts and help interpret its
historical resources . Additional signage t hat helps visitors
navigate points of interest and local business should also be
included.
T he River Street Streetscape Revitalization Concept Plan
identifies several locations where wayfinding signage is
recommended (note c ertain wayfinding is subjec t to Manual
on Uniform Traffic Control Device s standards ). T his includes:
town -wide, historic district, and River Street gateway signage
at the T hurman Bridge, National Grid s ubstation, and Judd
Bridge, respectively; natural resource signage at select River
Street pull offs; a comprehensive wayfinding signage syste m
at the proposed Paper Mill Park; and historical interpretive
and waterfront access signage at the Farmers Market,
Richards Avenue, and Veterans parks, and proposed Schroon River Overlook (see below for more information).
It is
important to note that such signage should be at tractive,
include uniform and comple mentary design elements,
appropriately
scaled for the
intended user (e.g.,
vehicular traffic
verse pedestrians),
and highlight
landmarks, points
of interest and
access, and local
businesses. The
Town should
consider a
preferred signage
design strategy to
ensure visual continuity. It may consider using the signage
design scheme that is currently being developed for the Paper
Mill Park (see image left ).
Finally, the Town should explore additional ways to improve
visual access to the Schroon River waterfront and enhance the
aesthetic quality of corridor . For example, a unique design
feature that was identified during the planning process was
the Schroon River overlook near the Grist Mill Restaurant. The
c oncept includes a proposed walkway along the existing Grist
Mill parking lot that connects to an observation deck situated

RIVER STREET STREETSCAPE REVITALIZATION PLAN

16
along the Schroon River riverbank. The walkway and overlook
could incorporate a number historical interpretive signs and or
features (e.g., historical industrial equipment that is currently
located on the property). While located on private property, a
public private partnership c ould bring this unique opportunity
to fruition.
As for the aesthetic quality of the corridor, a host of
l andscaping improvements, reconfiguration of select parking
areas, and pedestrian scale design features and amenities can
be employed to beautify the River Street streetscape and its
adjoining public spaces. Often referred to as corridor
beautification, the use of attractive period lighting (that
compliments the historic district), banner, pavers or pressed
asphalt, street furniture , planters, street trees, flowerbeds , as
well as public art displays not only instill a sense of local pride
and foster a greater sense of place, it ca n help attract new
investments and promote tourism. A rendering that illustrates
these design elements along the River Street is provided
below ( see Figure 6 next page).

Streetscape elements that are designed to complement one another
provide for an attractive and unique user experiences. These features,
coupled with landscaping and other enhancements, will help improve
the visual quality of the River Street corridor

RIVER STREET STREETSCAPE REVITALIZATION PLAN

17

New sidewalks and striping can
be used to reduce curb cuts,
improve access management,
and enhance safety
Wayfinding signage should be used to
help residents and visitors navigate
the corridor and to identify local
business and points of interests
Encourage local property owners to
reinvest in properties along the corridor.
Provide support through funding
opportunities and/or technical assistance Attractive streetscape features such
as period lighting, bollards, benches,
banners, plantings and landscaping
are important design elements
Narrower travel lanes (wherever practicable)
along with thoughtfully planned and designed
crosswalks are important pedestrian safety
and traffic calming features
New or improved sidewalks, wider shoulders
and/or on-street parking, as appropriate,, and
relocated utility poles, coupled with additional
pedestrian and bicycle signage, will make for a safer

Figure 6: River Street Revitalization Rendering

RIVER STREET STREETSCAPE REVITALIZATION PLAN

18
PRELIMINARY COST ES TIMATE & IMPLEMENTATION STRATEGY
There are several potential funding sources that may be used
to implement River Street Streetscape Revitalization Plan .
However, no one source will likely fund the project in its
entirety. As such, it is important to explore and leverage all
funding opportunities. Given the variety of funding sources
and strategies, it is important to continually examine priorities, possible alternatives, and implementation strategies
to champion the projects that are identified with this plan.
The estimated
2015 project cost for the River Street
Streetscape Revitalization Plan is approximately $4.0 to $5.9
million. Below is a summary of this estimate:
RIVER STREET STREETSCAPE REVITALIZATION PRELIMINARY COST ESTIMATE
River Street Roadway (resurface vs. reconstruction) $865,000-$4,100,0001
Sidewalk Improvements (new segments only vs. new segments and replacement of existing) $236,400-$1,004,0002
Intersection Improvements (Judd Bridge, Ridge Avenue, Alden Avenue) $63,0003
Other Pedestrian Safety Improvements (e.g., bike safe stormwater drainage grates) $11,00
Other Streetscape Improvements (trees, lighting, utility pole relocation, gateway signage) $454,00
Select Park Improvements (Veterans, Richards Ave Bridge, Proposed Grist Mill Overlook , Historic
Mills District, Alden Ave Riverfront , Proposed Schroon River Waterfront Access )
$274,000
Total $1,903,400 – $5,906,0004
1Estimate does not include Warren County Portion of River Street 2From Judd Bridge to National Grid Substation 3Includes full depth reconstruction, paving striping, and select signage and guide rail improvements 4Estimate does not include Paper Mill Park project cost estimates

RIVER STREET STREETSCAPE REVITALIZATION PLAN

19
IMPLEMENTATION STRATEGY
While NYSDOT may be responsible for roadway repairs and/or
improvements , many projects (particularly improvement s that
fall outside the limits of the right of way or along adjoining
properties) are the responsibility of the Town , and will
therefore require strong local leadership. The portion of River
Street between Judd Bridge and Richards Avenue Bridge will
also require strong support from Warren County. Because of
this the To wn will need to partner with NYSDOT, Warren
County , and adjoining landowners in order to implement the
River Street Streetscape Revitalization Concept Plan. Given the
scale of the project i t is suggest ed that the T own conside r
dividing it into phases or priorities in ord er to make it more
attainable and attractive to a variety of funding programs . This
may include: 1) roadway improvements; 2 ) sidewalks and
pedestrian connections; 3) wayfinding and gateway signage;
and , 4) recreation and waterfront access .

• Roadway improvements: It is assumed that the
NYSDOT will complete a majority of the roadway
reconstruction and/or resurfacing as a component of
ongoing maintenance and preservation efforts. As
such, early engagement with the NYSDOT is
recommended in order to he lp foster a positive and
proactive partnersh ip with the Town. According to the
NYSDOT, other routes within the region have a higher
priorit y (e.g., NYS Route 9L, Route 28N , and Route 8) and
repaving of River Str eet will not occur until 2017 at
the earliest. As such, the Town should have ongoing
discussions regarding scheduling with AGFTC, NYSDOT ,
and elected officials in order to establish a
clearer/more predictable timeframe.
• Sidewalk, pedestrian connections , and amenities:
Many pedestrian improvements could be incorporated
into a NYSDOT funded work plan . Alternatively , with
grant funding and through a Betterment Agreement
with NYSDOT, the Town could construct select
pedestrian improvements (in conjunction with
repaving/reconstruction efforts) that are considered a
local priority . The Town could also construct select
streetscape amenities (e.g., lighting, wayfinding
signage, etc.) , park improvements , and waterfront
access opportunities (e.g ., the proposed Grist Mill
Overlook and Schroon River waterfront access area ) as
well . This would also include any improvements that
are not within the NYSDOT right -of -way.
• Wayfinding and gateway signage : Certain wayfinding
s ignage could be installed (in accord ance with the
Manual on Uniform Traffic Control Device s standard)
throughout the corridor as part of a standalone
initiative or as a compliment to site specific (e.g.,
parks) imp rovements . T he timing and layout of future
improvements must be considered to avoid

RIVER STREET STREETSCAPE REVITALIZATION PLAN

20
subsequent impact, removal, or replacement when
making other physical improvements. B ecause
wayfinding and gateway signage often require more in-
depth design or branding consideration s, it is
recommended that the Town develop a wayfinding
strategy (e.g., logos, signal art elements, etc.) for the
corridor in the near- term in order to achieve the
desired results (i.e., a visually appealing , uniform , and
well -coordinated user experience). The Town may
consider expanding the wayfinding strategy that is
currently being developed for the Paper Mill Park for
the entire River Street corridor.
• Site- specific enhancements: The Town may choose to
design and construct other site -specific projects
identified in the River Street Streetscape Revitalization
Plan ( i.e., Veterans, Richards Ave Bridge, Proposed
Grist Mill Overlook, Historic Mills District, Alden Ave
Riverfront , Proposed S chroon River Waterfront Access ,
Paper Mill P ark). T he Town could select a single si te to
focus their initial efforts and manage costs . On a
large r-scale the Town could choose to pursue funding
for all the site -specific projects. This latter strategy
would likely be more successful if the individual
projects were woven together by a single theme (e.g.,
as one single waterfront and/or historic resource
access initiative). Finally, absent NYSDOT support, the Town may choose to advance select
streetscape
improvements .
POTENTIAL FUNDING SOURCES
Given the overall cost to revitaliz e the River Street corridor,
responsibility cannot solely be borne by the Town of
Warrensburg. As such, funding assistance and material
support is essential in order f or the project to be successful.
Because of limited federal and state funding, NYSDOT is
primarily focused on “p reservation” of roadways and is less
likely to take on more elaborate reconstruction initiatives. Th e
Town of Warrensburg will have to take a greater leadership
role when it comes to advo cating for redevelopment of the
corridor.
With the exception of Urban Local, Rural Minor Collector, and
Rural Local classified roadways , all state road are eligible for
federal funding .
8 As noted in the Existing Conditions Analysis
(Attachment A), River Street is classified as a Rural Minor
Collector and is therefore not a “Federal Aid ” eligible roadway .
However, there is some precedent for using Federal Surface
Transportation Program (STP) Funds for safety and
bicycle/pedestrian -related priority projects, regardless of
location on or off the federal -aid system. The River Street
corridor is noted as a priority in the A/GFTC Bicycle Priority
8 https://www.dot.ny.gov/divisi ons/engineering/technical-
services/highway -data -services/functional -class -maps

RIVER STREET STREETSCAPE REVITALIZATION PLAN

21
Network. In addition, the River Street bicycle -pedestrian
improvements may soon be listed as an “Illustrative Project”
in the regional Transportation Improvement Program. An
“Illustrative Project” is one in which current funding is not
available; if funding becomes available in the future, the
project may be considered for inclusion in the TIP. I n order to
determine the availability of funds and/or project eligibility
the Town should meet with NYSDOT and A /GFTC
representa tives to discuss next steps in this process .
T he Town should also work with the representatives from the
Capital Region Economic Development Council (CREDC) in
order to identify priority project or Consolidated Funding
Application (CFA) opportunities.
9 So me of these opportunities
are identified below while others are standalone funding
initiatives and programs:
• A/GFTC Make the Connection Program is intended to
assist with small- scale projects that “will improve the
region’s bicycle and pedestrian travel network.”
Announced on annual basis, the Make the Connection
Program requires a 20 percent local match and can be
used for a variety of small projects. However, it is
important to note that funding is limited and project
administration can be technically difficult in relation to
award amount due to administrative guidelines and/or
requirements. Nevertheless, the program may help
9 http://regionalcouncils.ny.gov/content/capital -region
implement a critical piece of the River Street
Streetscape Revitalization Plan.
• NYSDOT Transportation Alternative Program (TAP)
provides funding for transportation alternatives
including “on- and off-road pedestrian and bicycle
facilities, infrastructure projects for improving non –
driver access to public transportation and enhanced
mobility, community improvement activities, and
en vironmental mitigation.” Because the proposed
improvements are primarily focused on transportation
alternatives, several aspects of the project may be
eligible for funding through TAP program. It is also
important to note that River Street provides access to
the Warrensburg Eleme ntary School for nearby
students. As such, certain aspects of the project may
be eligible for TAP funding, specifically the Safe Routes
to School funding category.
• New York State Department of State (NYSDOS) Local
Waterfront Revitalization Program (LWRP) funds are
available through the State’s Consolidated Funding
Application (CFA) process. As a Hudson River
community, and with the Schroon River recently being
identified asa designated inland waterway, monies
from the State’s Environmental Protection Fund (EPF)
may be used to prepare a wide variety of community
planning initiatives and projects. Because the Town has
already developed a partnership with the NYSDOS

RIVER STREET STREETSCAPE REVITALIZATION PLAN

22
through its LWRP funded Comprehensive Plan, there is
a greater likelihood of being awarded funding support.
When pursu ing LWRP funding for the River Street
Streetscape Revitalization Plan the Town should focus
on Schroon River access and waterfront revitalization.
LWRP Grant requirements include a 50 percent local
match .
• Also available through the State’s CFA process are New
York State O ffice of Parks, Recreation, and Historic
Preservation Parks (OPRHP) funded programs. This
includes its Parks and Historic Preservation programs.
These individuals programs could be used to advance a
number of the plan recommendations. This includes
proposed park improvements, building preservation,
and select pedestrian improvements (if pitched as a
transportation alternative or historic trail experience).
If the Town does choose to pursue OPRHP funding it
should levera ge River Street’s historic district
designations.
• The NYS Environmental Facility Corporation (EFC)
Green Innovation Grant Program is a highly
competitive grant program that uses funding from the
US Environmental Protect Agency (EPA) and is
administere d under the Cl ean Water State Revolving
Fund. The Green Innovation Grant Program will
provide seed money for projects which spur green
innovation, build green capacity, and facilitate technology transfer throughout th
e State. Eligible
projects should be designed to water quality and
demonstrate sustainable wastewater infrastructure in
communities across the State . The Town could use this
funding source to design and construct stormwater
management features that are part of the proposed
River Street Streetscape Revitalization Plan.
Particularly for any d esign features that would focus on
improvement s Schroon River water quality .
• Through the NYS Department of Environmental
Conservation (NYSDEC) Adirondack Park Smart
Growth Implementation Grants , municipalities and
not -for -profits may request up to $75,000 (with no
required match) for “smart growth” related projects
that are wholly within the Adirondack Park. This
includes “capital projects and community development
initiatives that link environmental protection,
economic development and community livability
within the special conditions of the Adirondack Park.”
Given the flexibility of this program, funding could be
used for a number of recommended River Street
improvements.
• NYSDEC Urban and Community Forestry Grants
Funding seeks to encourage and assist municipalities
as they develop and implement sustainable local urban
forestry programs. Grants are designed to encourage
communities to actively enhance tree cover along their

RIVER STREET STREETSCAPE REVITALIZATION PLAN

23
streets and in their parks, to properly care for and
maintain their community trees, to develop tree
inventories and management plans, and to inform
their residents of the value and benefits of urban trees.
The Town should consider pursuing this funding for
street trees along River Street.
• Glens Falls Hospital ’s Creating Healthy Places to Live,
Work & Play program provides monies for projects,
after the adoption of a local complete streets
resolution or through its grant program, that meet its
programs goals. This may include monies for signage
and small site -specific improvements. The Town of
Warrensburg has adopted a complete streets
resolution and worked with Glens Falls Hospital on a
number of complete streets initiatives. The Town
should continue to work with Glens Falls Hospital in
order to identify new funding and partnership
opportunities.

RIVER STREET STREETSCAPE REVITALIZATION PLAN

APPENDIX A: EXISTING CONDITIONS ANALYSIS

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1

MEMORANDUM

To: Project Advisory Committee
From: Paul Cummings, AICP, LEED AP
Date: March 9, 2015
Re: Warrensburg River Street Streetscape Revitalization Plan t
Job #: 91418.00
This Existing Conditions Analysis has been prepared by gathering information through field visits, review
of existing resources, research, and Computer Aided Design (CAD) and Geographic Information Systems
(GIS) mapping.
Introduction
The focus of this streetscape project is River Street within the Town of Warrensburg (Warren County)
from the Judd Street Bridge west to the bridge across the Hudson the Town of Thurman (see Figure 1 in
A ttachment A) . Warren County owns the portion of roadway between Judd Street and Richards Avenue
(County Route 14) and NYS Department of Transportation (NYSDOT) controls from Richards Ave to
Thurman Station (NYS Route 418). River Street is functionally classified as a Rural Minor Collector, and
as such are generally not Federal Aid eligible. Consistent with the US Federal Highway Administration,
NYSDOT states that a Rural Minor Collector should have the following characteristics:
• Be spaced at intervals to collect traffic from local roads and bring all developed areas within a
reasonable distance of a collector road.
• Provide service to the remaining smaller communities.
• Link the locally important traffic generators with their rural areas.
The overall length of this roadway is approximately 2.3 ± miles. Over the length of this roadway a total of
three bridges span the Schroon River at Judd Street, Richards Avenue, and Milton Street. At the western
end of the Study Area a bridge crosses the Hudson River to Thurman Station. Land use along this section
of River Street is predominantly a mix of uses including residential, vacant, commercial, and community
services. The Warrensburg Mills Historic District is a national historic district and was added to the
National Register of Historic Places in 1975 from the Woolen Mill Bridge to the Osborne Bridge . It
encompasses a number of mill complexes and homes related to the de velopment of Warrensburg (see
Photo Log in A ttachment B).
The River Street right of way in this area is approximately 50 feet (three rods). However, this may be less
due to existing land uses and p hysical restrictions that may have limited the overall width of the road in
sections. Acquisitions along this roadway occurred in : 1916, 1933, 1936 and 1939 (2 each), 1941 and
1994 (see historic mapping in A ttachment C). Portions of River Street run adjacent to the Schroon River,
re sulting in narrow shoulders and steep banks along the river in in various locations .

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2

River Street serves as a link to Warrensburg’s “downtown” via the three bridges that cross the Schroon
River and provides a link to Thurman across the Hudson River . Traffic speeds along this section of
roadway are posted 30 mph and 55 mph , with numerous advisory speed limit signs due to geometrics .
The two lane roadway (one lane each direction ) travels in an eastbound/westbound direction along the
Schroon River. Roadway width varies throughout and is generally between 25 – 30 feet in width.
Parking along this roadway is prohibited near the intersection with Commercial Avenue at the site of the
farmer’s market .
Road Conditions
One of the tools that NYSDOT uses to identify where pavement work is needed (and what type of work
should be done ) is based on a Surface Rating that describes the severity and extent of pavement surface
distress for each segment of highway. The measurement of ride quality is also considered. While a
rating of 1 -10 is used, t he following four generalized surface conditions are used by NYSDOT to classify
roadways.
• Excellent – no significant surface distress
• Good – Surface distress beginning to show
• Fair – surface distress is clearly visible
• Poor – distress is frequent and severe
Surface rating of the roadway was given a score of 6 by NYSDOT which represents a fair condition with
surface distress clearly visible . However, in some locations the roadway condition may be described as
poor as the roadway moves further west towards the Hudson River. E xisting condition photographs
illustrate the cracking, potholes, and cold patch within the roadway (see Photo Log in A ttachment B).
The photos further show broken pavement along the shoulder’s edge as it transitions to an unpaved
surface. Years of patching and alligator cracking are evident. Recently a washout west of a National Grid
Substation (near Big Brook) occurred and has since been temporarily repaired. According to NYSDOT,
while it is recognized that paving 418 would be beneficial, due to the priority of other routes, repaving
will not likely occur until 2017 at the earliest.
Roadway and crosswalk striping is also generally poor throughout the Study Area as the striping is
broken, faded, and unclear in many spots. Acc ording to NYSDOT, this is a p aint (as opposed to epoxy)
route, which should be painted yearly. More detail is provided in the Vehicular Travel and Safety section
below.
Vehicular Travel and Safety
In July 2014, NYSDOT obtained updated traffic data for the section of River Street from Alden Ave to the
junction with Route 9 (see Table 1 and Attachment B ). The estimated average annual daily traffic (AADT)
was 1,336 vehicles eastbound and 1,288 vehicles westbound. During the period of data c ollection, the
average weekday peak was 136 vehicles per hour travelling eastbound, and 144 vehicles travelling
westbound. The average speed travelling eastbound was 30.9 mph and westbound was 31.2. The 85
th
percentile speeds for eastbound and westbound was 36.3 mph and 37.4 mph, respectively. The percent
of F4 -F13 heavy vehicles was 4.36, while the percent of F3 -F13 trucks and buses was 28.12.

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3

Table 1 – Traffic Count Notable Findings
Eastbound Westbound
AADT (vehicles) 1,336 1,288
Average Weekday Peak (vehicles /hour) 136 144
Average Speed (MPH) 30.9 31.2
85th Percentile Speed (MPH) 36.3 37.4
Percent Heavy Vehicles (Class F4 -F-13) 4.32% 4.40%

According to traffic accident data obtained from A dirondack/Glens Falls Transportation Committee
(A/GFTC) , for the past three years there have been a total of 47 accidents between 2011 and 2013 for
the section of River Street within the Study Area (see travel data in Attachment D) . Accidents have
largely been with other vehicles over this period of time. However, averages of nearly six accidents a
year are a result of a collision with fixed objects (light support, utility pole, guide rail, sign post) and the
roadway shoulder, ditch, or elevated bank. As shown in photos included within Attachment B , there are
a number of locations where utility poles are located within the roadway shoulder and in some
instances as close as 1-3 feet to the active travel lane.

13%
13%
7%
6%
51% 4%
4%

2%
Collisions (2011 -2013)
Earth, Elevated Rock, or Road Cut/Ditch
Light Support, Utility Pole
Animal
Guide Rail
Motor Vehicle
Sign Post
Other, Non-Collision
Overturned

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4

Further, the GIS data showing the location of these collisions indicate that four out of six collisions with
utility poles along River Street are between Richards Avenue and South Street (see Figure 2 in
A ttachment A ). This presents safety concerns for not only motor vehicles, but also for pedestrians and
bicyclists using this portion of the roadway. Another concentration of accidents , related to roadway
shoulder, ditch, or elevated bank was identified along River Street near Sue Ann Drive at the western
end of the Study Area. Sight line s in this location are likely an influencing factor. Accidents with other
vehicles are concentrated at intersections with Richards Avenue, South Avenue, and Milton Street.
Based on Town input, a lack of a four-way stop, proper signage, and roadway striping could be
contributing factors.
Data related to contributing factors for these accidents varies as they involve multiple factors and
multiple vehicles. Of note, over the three year period failure to yield right of way was identified as an
influencing factor 13 times and slippery pavement was counted 6 times. Other influencing factors of
note include driver’s inattention, animal involvement, alcohol, unsafe speed, disregarded traffic control
devices, and backing unsafely.
A site visit conducted in August 2014 identified the following observations as they related to vehicular
and pedestrian movement and safety along this portion of River Street (see Figure 3) .
• A number of u tility poles are located within very close proximity to the travel b
etween the Judd
Street Bridge and Veterans Park and between Richa rds Avenue to the Grist Mill.
• Guiderail along portions of the Richards Avenue Bridge can obstruct line of sight for motorists
• The intersection of River Street with Judd Street is controlled by a yield sign for traffic on Judd
Street with no roadway striping or crosswalks..
• There are multiple houses within 10± FT of travel lane in the section of roadway between the
Grist Mill and Curtis Lumber.
• A bank along a section of the road has been washed out along River Street near Big Brook where
water was impounding along an old rail bed (see Photo Log in A ttachment B).
Pedestrian and Multi -Modal Travel and Safety
Sidewalks within the Study Area are located on the non -river side of River Street beginning at the Judd
Street Bridge west to the intersection with Commercial Avenue. Sidewalks begin again approximately
300 feet further along River Street past the Curtis Lumber parking lot. They continue another 250 feet
just past Pebble Drive. Sidewalks pick up again at the intersection of River Street and Alden Avenue on
the non- river side . There is a 125± ft sidewalk gap before they pick up again at the intersection with
Johnson Drive. No other sidewalks are located within the Study Area, and no sidewalks are located along
the river side of River Street. In general, se ctions of sidewalk east of Richards Avenue are 3.5 feet wide
and are in fair to poor conditions. Sidewalks west of Richards Avenue are generally 5 feet in width are in
good condition.
Crosswalks along River Street are limited to the intersections with Commercial Avenue, and Milton
Street (Bridge). Crosswalks were not found at intersections with Judd Street (bridge), Richards Avenue
(bridge), Alden Avenue, or near the Board and Paper Mill site . A single pedestrian crossing sign is

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5

located at the northern end of the Warrensburg Historical Park (see River Stree t Inventory Map) . The
Warrensburg Riverfront Farmers’ Market can be found at this location. During the farmers market
orange cones are placed along the roadway and temporary pedestrian crossing signs are put up.
However, parking for the farmers market is scattered along the roadway and adjoin properties. As
vehicles and pedestrians navigate this area there are at times pedestrian an d vehicular related safety
concerns. More specifically, v ehicles are parked in the shoulder and grass areas along River Street, in the
Historical Park parking lot, at Curtis Lumber, and in unpaved areas at the intersection of River Street
with Commercial Avenue . All the while pedestrians cross the street as vehicles navigate a somewhat
congested roadway.
As discussed in the Vehicular Travel and Safety section, there are a number of impediments within the
right of way that present concerns for pedestrians and bicyclists within this area. This includes the
following:
• include utility poles located adjacent to travel lanes that limits bicycle and pedestrian
movements,
• Narrow travel lanes and shoulders ( particularly west of Milton Street to the Hudson River ) that
offers limited shared roadway opportunities ,
• Inconsistent/disconnected sidewalk network that limits pedestrian mobility in select areas and
raises safety concerns ,
• Unclear or nonexistent crosswalks at Judd Bridge and Richards Avenue intersection (note a lack
of crosswalks in other locations may also contribute to unsafe midblock crossing by
pedestrians) ,
• Storm drains along road shoulders that below surface grades due to rep aving and have grate
design s that present safety concerns for bicyclist ,
• Guard rail that may inhibit line of sight and/or restrict pedestrian access and mobility
(particularly near the bridges) ,
• Limited poor pedestrian signage.
Finally, It should be also noted that there is limited access to the Schroon River along this section of
roadway . While this may not be a pedestrian safety issue, members of the community have suggested
that additional access to the waterfront is desirable.
Land Use Characteristics
Land use along this section of River Street is predominantly a mix of uses including residential, vacant,
commercial, and community services (see Figure 4 in Attachment A). Noted land uses include: the Board
and Paper Mill site s, the site of a future waterfront park and car top boat/fishing access, the wastewater
treatment plant, and a cluster of other businesses and the Veteran’s Park . Within the Study Area a total
of 172 parcels are located adjacent to River Street. These parcels account for a total of 579 acres of land
(see Table 2) .

The Chazen Companies
6

Table 2 – Land Use
Property
Class Code Property Class
Total
Parcels % of

Parcels Total

Acres % of

Acres
100 Agriculture — — — —
200 Residential 113 65.7% 283 48.8%
300 Vacant 41 23.8% 68.8 11.9%
400 Commercial 10 5.8% 15.3 2.6%
500 Recreation and Entertainment 1 0.6% 0.2 0.0%
600 Community Services 3 1.7% 101.0 17.4%
700 Industrial — — — —
800 Public Services 1 0.6% 1.1 0.2%
900 Wild, Forested, Conservation

Lands and Public Parks 3
1.7% 110.0 19.0%
Total 172 100.0% 579.4 100.0%
Source: Warren County Real Property Tax Service Agency
Residential uses are the most predominant land use in terms of parcels and overall acreage. Vacant,
community services, and wild, forested conservation lands and public parks are the next most common
land use. The balance of the study area is largely made up of commercial, public services, and
recreation and entertainment. As shown on Figure 4 , it should be noted that there are a number of large
parcels at the western end of the Study Area that account for a majority of the land area. Businesses
within the Study Area along River Street are limited and include: the Grist Mill on the Schroon
(restaurant), R&D Transmissions, River Street Plaza, Curtis Lumber, and the Hickory Ski Center.

The Chazen Companies
7

Within the Study area there are a number of recreational resources that provide fishing, kayaking, water
access and cycling opportunities for residents and tourists to the area. These resources often generate
pedestrian activities and the Town desires to i mprove accessibility along River Street to these facilities .
Some of these recreational resources include the following :
• Veteran’s Park is l ocated on the Schroon River side of River Street between Catherine Street and
Burdick Avenue. The park includes picnic tables and a gazebo . Current access to the park
includes a parking area. There are no adjoining sidewalks or a crosswalk that would provide
improved access to the park.
• The Warrensburg Board and Paper Site (recently renamed Paper Mill Park) is the location for a
new Town recreation park along the Schroon River, which is currently in the planning stages.
A lternative concepts have been dev eloped that include: an observation deck, seating/viewing
areas, an event lawn, kayak put in, pavilion, parking, and trails throughout the site . The site will
include a new driveway and parking area for vehicle access. Along this portion of River Street
there are very limited/narrow road shoulders. Expanded road shoulder and shared roadway
signage would im prove access to the proposed park.
• The Hickory Ski Center operates a surface lift only ski area with more than five miles of skiing on
18 beginner to expert trails. The facility reope ned during the 2009-2010 season and again during
the 2013 -2014 season. Although Hickory Ski Center is primarily a winter operation, there are
discussions about expand ing services , amenities , and/or events during the warmer months.
Expanded road shoulders and shared roadway signage along River Street would improve
pedestrian and bicycle access to this important economic development entity .
• The pocket park located across from Alden Avenue near the Milton Street Bridge is blocked by
the guardrail and primarily includes a bench .
66%
24%
6%
0%

2%

0%

2%

Land Use by % of Parcels
Residential
Vacant
Commercial
Recreation and Entertainment
Community Services
Public Services
Conservation & Public Parks

The Chazen Companies
8

The Study Area is within the Warrensburg Mills Historic District , where historic manufacturing mills were
once located . Improvements to the River Street corridor will need to take into consideration the
distric t’s historical resources, particularly any potential impacts to unique landscape features and
historic prop erties.
The Warrensburg Riverfront Farmers’ Market is located on the Schroon River . The farmers market was
established in 1998 and sells locally grown, raised and prepared products including produce, plants, cut
flowers, dairy, poultry, meats, maple syrup, honey, wine, preserves, baked goods and refreshments. The
market is held Friday afternoons from 3 -6 p.m. from Memorial Day Weekend thru the end of Octo ber.
A ttachment s
A. Figures
a. Study Area Map
b. Collision Data Map
c. Roadway Inventory Map
d. Land Use Map
B. Travel/AADT Data
C. Photo Log
D. Historic Mapping

The Chazen Companies

Attachment A
Figures

Hudson River
Schroon River
9
45
9
State Route 418
Alden Ave
Riv erRd
Library Ave
River St
Smith St
Je
n n iJill
D r
Harr
in gto
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Hil
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Ridge Ave
L
ibrar
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Milton St
Bow enHi
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Mag giesRd
Burdick Ave
Ho
r
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Mill Ave
Hillcrest Dr
Luse Ln
SummitS t
South Ave
WhalenDr
WoodwardAv
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P l
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Newto
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RyanAve
Stacy St
Sanford St
James StVern u
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Je
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Rosalie Ave
C assi
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Te
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r a
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Parking Lot
Gr i
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Stone St
BuyceCross
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Combs Ln
Th
e
r
esa Ja
m esS
t
Br
owns Ct
Jenni Hill Dr
Bateman Dr
Sanford St
1 ” equals 420 ’
Warrensburg River Street PlanStudy Area Map
Town of Warrensburg
Warren County, New York
PWC
07/14/2014
91418.00
NA
Engineers/Surveyors
Planners
Environmental Scientists
Landscape Architects
CHAZEN ENGINEERING, LAND SURVEYING & LANDSCAPE ARCHITECTS CO., P.C.
This map is a product of The Chazen Companies. It should be used for reference purposes only. Reasonable efforts have been ma de to ensure the accuracy of this map.
The Chazen Companies expressly disclaims any responsibilities or liabilities from the use of this map for any purpose other tha n its intended use.
Dutchess County Office:
21 Fox Street
Poughkeepsie, NY. 12601
Phone: (845) 454-3980Capital District Office:
547 River Street
Troy, NY. 12180
Phone: (518) 273-0055North Country Office:
375 Bay Road
Queensbury, NY. 12804
Phone: (518) 812-0513
Drawn:
Date:
Scale:
Project:
Figure:
9
45
9River St
Smith St
Library Ave
Ridge Ave
Milton St
Burdick Ave
Mill Ave
Summit St
South Ave
State Route 418
Stacy St
Richards Ave
Alden Ave
Commercial St
Catherine St
Scott Dr
Stone St
B
u
rhan s
Av
e
Wood
ward A
v
e
Combs Ln
Sanford St
Evergreen LnTher
e s
a J
am
e
s St
Skyla
rk
L
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H er r
ickAv
e
Luse Ln
Pine Tree Ln
Bateman Dr
JamesS t
C ed
arLn
E l
e
ctr
ic
Av
e
Schroon
State Route 418
S
an tol
i nDr
0
0.4
0.2
Miles
Hickory Ski Center
Board & Paper Mill
Warrensburg School
Frederick H. Flynn
Memorial Park
Warrensburg School
Board & Paper Mill
Frederick H. Flynn Memorial Park
River
S t
reet
River Street Study AreaHistoric DistrictCorridor Parcels
To Downtown
Rive
r
S
t
reet
Rive
r
S t
reet
To Thurman
Station

Hudson River
Schroon River
£
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79
State Route 418
Alden Ave
Riv erRd
Library Ave
River St
Smith St
Je
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l D
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Harr
in gto
n
Hil
l
R d
Ridge Ave
L
ibrar
y A
v
eExt
Milton St
Bow enHi
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lRd
Mag giesRd
Burdick Ave
Ho
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Mill Ave
Hillcrest Dr
Luse Ln
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South Ave
Wha
lenDr
WoodwardA v
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P l
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y
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Newto
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St
G e
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RyanAve
Stacy St
Sanford St
James StVern u
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Combs Ln
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m esS
t
Br
owns Ct
Jenni Hill Dr
Bateman Dr
Sanford St
²
1 ” equals 420 ‘
Warrensburg River Street Plan
Inventory of Collissions Map
Town of Warrensburg
Warren County, New York
GHM
09/24/2014
91418.00
NA
Engineers/Surveyors
Planners
Environmental Scientists
Landscape Architects
CHAZEN ENGINEERING, LAND SURVEYING & LANDSCAPE ARCHITECTS CO., P.C.
This map is a product of The Chazen Companies. It should be used for reference purposes only. Reasonable efforts have been ma de to ensure the accuracy of this map.
The Chazen Companies expressly disclaims any responsibilities or liabilities from the use of this map for any purpose other tha n its intended use.
Dutchess County Office:
21 Fox Street
Poughkeepsie, NY. 12601
Phone: (845) 454-3980Capital District Office:
547 River Street
Troy, NY. 12180
Phone: (518) 273-0055North Country Office:
375 Bay Road
Queensbury, NY. 12804
Phone: (518) 812-0513
Drawn:
Date:
Scale:
Project:
Figure:
4
5
6
745
4
5
6
79
River St
Smith St
Ridge Ave
Milton St
Library Ave
Burdick Ave
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South Ave
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Warrensburg School
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Memorial Park
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Warrensburg School
Board & Paper Mill
Frederick H. Flynn Memorial Park
River Street Study Area
Collissions
Earth, Elevated Rock, or Road Cut/DitchLight Support/Utility PoleAnimalGuide RailMotor VehicleSign PostOtherOverturned
To Downtown
! !To Thurman
Station
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River St
Smith St
Ridge Ave
Burdick Ave
Mill Ave
Summit St
South Ave
Stacy St
Catherine St
Milton St
Commercial St
Library Ave
Alden Ave
Stone StCombs Ln
Richards Ave
S ta te
R
ou
te 4
1
8
Scott Dr
Herrick Ave
Bateman Dr
Parking Lot
²
1 ” equals 100 ‘
Warrensburg River Street Plan
River Street Inventory Map
Town of Warrensburg
Warren County, New York
GHM
09/24/2014
91418.00
NA
Engineers/Surveyors
Planners
Environmental Scientists
Landscape Architects
CHAZEN ENGINEERING, LAND SURVEYING & LANDSCAPE ARCHITECTS CO., P.C.
This map is a product of The Chazen Companies. It should be used for reference purposes only. Reasonable efforts have been ma de to ensure the accuracy of this map.
The Chazen Companies expressly disclaims any responsibilities or liabilities from the use of this map for any purpose other tha n its intended use.
Dutchess County Office:
21 Fox Street
Poughkeepsie, NY. 12601
Phone: (845) 454-3980Capital District Office:
547 River Street
Troy, NY. 12180
Phone: (518) 273-0055North Country Office:
375 Bay Road
Queensbury, NY. 12804
Phone: (518) 812-0513
Drawn:
Date:
Scale:
Project:
Figure:
Frederick H. Flynn
Memorial Park
! 5
S
Building
¡
Hydrant
I
A
Pocket Park
j
Sidewalk Start
k
Sidewalk EndTelephone Poles

/
Storm DrainsGuide Rails
b c
d
p f
No Parking Sign
89: w
Pedestrian Crossing Sign
½
¾
¿
Temporary Speed Sign
E
Building CornerCross WalkStone Wall
To Downtown
0100200 50
Feet

Hudson River
Schroon River
9
45
9
State Route 418
Alden Ave
Riv erRd
Library Ave
River St
Smith St
Je
n n iJil
l
D r
Har
ringt
o n
Hil
l
R d
Ridge Ave
Librar
y
Av
eE
xt
Milton St
Bow
enHil
lRd
Mag giesRd
Burdick Ave
H
ori
c o
nA
ve
Mill Ave
Hillcrest Dr
Luse Ln
SummitS
t
South Ave
WoodwardAv
e
Wh alenDr
P
lant
y
Dr
Sanford St
Newto
n S
t
G eorgeKnl
James St
RyanAve
Stacy St
Vern u
m
Dr
Mo os
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idg
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E
c
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Ca
th
er
in
e
St
R ic
hards A
ve
B
eswic
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San
tol
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Hast
ing
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Karen St
Green Ter
KattsCorne
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Rd
Comm
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S toneRd
Perry
D
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HoffmanDr
Skylark Ln
Dinu StJen
n iJil
l Loo
p
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Ln
Pratt St
Jo
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o n
Dr
Rosalie Ave
C
assiu
s
P
ath L
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Te
r
r a
ceA v
e
B u
rhansAve
Scot
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EchoLakeR d
Parking Lot
Gr
i
f f in
St
B
uyceCrossR d
Stone StCombs Ln
Th
e
r
esa J
am e
sS t
B
rowns
Ct
Jenni Hill Dr
Bateman Dr
Sanford St
1 ” equals 420 ’
Warrensburg River Street Plan
Land Use MapTown of Warrensburg
Warren County, New York
PWC
07/14/2014
91418.00
NA
Engineers/Surveyors
Planners
Environmental Scientists
Landscape Architects
CHAZEN ENGINEERING, LAND SURVEYING & LANDSCAPE ARCHITECTS CO., P.C.
This map is a product of The Chazen Companies. It should be used for reference purposes only. Reasonable efforts have been ma de to ensure the accuracy of this map.
The Chazen Companies expressly disclaims any responsibilities or liabilities from the use of this map for any purpose other tha n its intended use.
Dutchess County Office:
21 Fox Street
Poughkeepsie, NY. 12601
Phone: (845) 454-3980Capital District Office:
547 River Street
Troy, NY. 12180
Phone: (518) 273-0055North Country Office:
375 Bay Road
Queensbury, NY. 12804
Phone: (518) 812-0513
Drawn:
Date:
Scale:
Project:
Figure:
9
45
9River St
Smith St
Library Ave
Ridge Ave
Milton St
Burdick Ave
Mill Ave
Summit St
South Ave
State Route 418
Stacy St
Richards Ave
Alden Ave
Commercial St
Catherine St
Scott Dr
Stone St
B
u
rhan s
Av
e
Wood
ward A
v
e
Combs Ln
Sanford St
Evergreen LnTher
e s
a J
am
e
s St
Skyla
rk
L
n
H er r
ickAv
e
Luse Ln
Pine Tree Ln
Bateman Dr
JamesS t
C ed
arLn
E l
e
ctr
ic
Av
e
Schroon
State Route 418
S a
n tol
i
nDr
0
0.4
0.2
Miles
Hickory Ski Center
Board & Paper Mill
Warrensburg School
Frederick H. Flynn
Memorial Park
Warrensburg School
Board & Paper Mill
Frederick H. Flynn Memorial Park
River
S t
reet
Land Use
ResidentialVacantCommercialRecreation & EntertainmentCommunity ServicesPublic ServicesOpen Space & ParksRiver Street Study Area
To Downtown
River
S
t
reet
Rive
r
S t
reet
To Thurman
Station

The Chazen Companies

Attachment B
Travel Data

STATION:
170028 New York State Department of Transportation
Traffic Count Hourly Report Page 1 of 2
ROUTE #: NY 418ROAD NAME:
FROM:
ALDEN AVE JCT RIGHT TO:
JCT RT 9 WARRENSBURG END RT COUNTY:
Warren
DIRECTION: Eastbound FACTOR GROUP: 40 REC. SERIAL #: CM27 FUNC. CLASS: 08TOWN:
WARRENSBURG
STATE DIR CODE: 6 WK OF YR: 29 PLACEMENT: 180′ N of Pebble Dr NHS: noLION#:
DATE OF COUNT: 07/18/2014 @ REF MARKER:JURIS: CityBIN:1048240
NOTES LANE 1: EB Lane ADDL DATA:CC Stn:RR CROSSING:
COUNT TYPE: VEHICLES BATCH ID: DOT-R1 WW29C ClassHPMS SAMPLE:
COUNT TAKEN BY: ORG CODE: TST INITIALS: MDB PROCESSED BY: ORG CODE: DOT INITIALS: JLB
12
TO 1 1
TO 2 2
TO 3 3
TO 4 4
TO 5 5
TO 6 6
TO 7 7
TO 8 8
TO 9 9
TO 10 10
TO 11 11
TO 12 12
TO 1 1
TO 2 2
TO 3 3
TO 4 4
TO 5 5
TO 6 6
TO 7 7
TO 8 8
TO 9 9
TO 10 10
TO 11 11
TO 12 DAILY DAILY
DAILY HIGH HIGH
AM PMDATE DAY TOTAL COUNT HOUR
1 T
2 W
3 T
4 F
5 S
6 S
7 M
8 T
9 W
10 T 11 F
12 S
13 S
14 M
15 T
16 W
17 T
18 F
19 S
20 S
21 M
22 T
23 W
24 T
25 F
26 S
27 S
28 M
29 T
30 W
31 T 133 103 152 145 92 77 78 52 43 28 19
6 2 3 6 6 16 39 77 110 123 122 151 125 113 117 124 105 100 82 77 72 51 46 21 1694 151 11
6 5 4 5 5 22 34 55 81 114 106 129 138 97 125 91 102 83 107 77 56 32 24 12 1510 138 12
4 4 2 4 18 47 97 138 103 107 118 97 111 100 97 111 96 90 77 54 48 35 16 5 1579 138 7
2 2 3 4 17 46 96 144 101 99 98 112 112 97 109 108 93 95 71 58 45 47 19 9 1587 144 7
7 0 1 6 14 52 92 129 124 96 120 95 113 102 101 99 89 85 77 50 33 34 11 9 1539 129 7
8 2 4 9 18 47 91 139 105 115 100 100 106 98 120 97 97 92 94 49 50 59 18 14 1632 139 7
5 2 2 9 21 48 93 129 129 107 116 90 91
AVERAGE WEEKDAY HOURS (Axle Factored, Mon 6AM to Fri Noon) ADT
6 2 2 7 18 48 94 136 112 105 110 99 110 99 107 104 94 90 80 53 44 44 16 9 1589
DAYS Counted
8 HOURS Counted
168 WEEKDAYS Counted
4 WEEKDAY Hours
102 AVERAGE WEEKDAY
High Hour
136 % of day
9% Axle Adj. Factor
1.000 Seasonal/Weekday Adjustment Factor
1.189 ESTIMATED
AADT1336
ROUTE #: NY 418 ROAD NAME:
FROM:
ALDEN AVE JCT RIGHT TO:
JCT RT 9 WARRENSBURG END RT COUNTY:
Warren
STATION: 170028STATE DIR CODE:
6 PLACEMENT:
180′ N of Pebble Dr DATE OF COUNT: 07/18/2014

STATION:
170028 New York State Department of Transportation
Traffic Count Hourly Report Page 2 of 2
ROUTE #: NY 418ROAD NAME:
FROM:
ALDEN AVE JCT RIGHT TO:
JCT RT 9 WARRENSBURG END RT COUNTY:
Warren
DIRECTION: Westbound FACTOR GROUP: 40 REC. SERIAL #: CM27 FUNC. CLASS: 08TOWN:
WARRENSBURG
STATE DIR CODE: 7 WK OF YR: 29 PLACEMENT: 180′ N of Pebble Dr NHS: noLION#:
DATE OF COUNT: 07/18/2014 @ REF MARKER:JURIS: CityBIN:1048240
NOTES LANE 1: WB Lane ADDL DATA:CC Stn:RR CROSSING:
COUNT TYPE: VEHICLES BATCH ID: DOT-R1 WW29C ClassHPMS SAMPLE:
COUNT TAKEN BY: ORG CODE: TST INITIALS: MDB PROCESSED BY: ORG CODE: DOT INITIALS: JLB
12
TO 1 1
TO 2 2
TO 3 3
TO 4 4
TO 5 5
TO 6 6
TO 7 7
TO 8 8
TO 9 9
TO 10 10
TO 11 11
TO 12 12
TO 1 1
TO 2 2
TO 3 3
TO 4 4
TO 5 5
TO 6 6
TO 7 7
TO 8 8
TO 9 9
TO 10 10
TO 11 11
TO 12 DAILY DAILY
DAILY HIGH HIGH
AM PMDATE DAY TOTAL COUNT HOUR
1 T
2 W
3 T
4 F
5 S
6 S
7 M
8 T
9 W
10 T 11 F
12 S
13 S
14 M
15 T
16 W
17 T
18 F
19 S
20 S
21 M
22 T
23 W
24 T
25 F
26 S
27 S
28 M
29 T
30 W
31 T 147 137 147 176 203 128 129 97 73 71 38
21 11 12 7 1 5 16 33 63 94 92 118 143 126 144 149 111 120 99 101 94 64 59 35 1718 149 15
27 9 5 3 3 5 12 28 41 72 77 109 112 83 161 121 120 92 81 92 79 57 36 30 1455 161 14
7 7 2 2 4 10 40 41 43 78 83 84 114 98 94 131 132 142 117 90 93 65 32 14 1523 142 17
8 5 6 5 5 7 40 33 71 84 84 82 106 90 100 146 153 138 95 72 76 71 29 32 1538 153 16
9 3 11 2 1 6 38 42 52 64 93 73 90 108 104 130 140 137 92 82 59 52 29 23 1440 140 16
11 8 3 7 1 12 26 38 62 58 70 76 107 94 123 133 151 149 107 97 89 76 69 33 1600 151 16
10 5 8 3 2 6 42 42 62 63 85 102 118
AVERAGE WEEKDAY HOURS (Axle Factored, Mon 6AM to Fri Noon) ADT
10 5 7 4 2 8 37 39 58 69 83 83 104 98 105 135 144 142 103 85 79 66 40 26 1532
DAYS Counted
8 HOURS Counted
168 WEEKDAYS Counted
4 WEEKDAY Hours
102 AVERAGE WEEKDAY
High Hour
144 % of day
9% Axle Adj. Factor
1.000 Seasonal/Weekday Adjustment Factor
1.189 ESTIMATED
AADT1288
ROUTE #: NY 418 ROAD NAME:
FROM:
ALDEN AVE JCT RIGHT TO:
JCT RT 9 WARRENSBURG END RT COUNTY:
Warren
STATION: 170028STATE DIR CODE:
7 PLACEMENT:
180’ N of Pebble Dr DATE OF COUNT: 07/18/2014

New York State Department of Transportation
Classification Count Average Weekday Data Report
ROUTE #: NY 418ROAD NAME: YEAR: 2014STATION:
170028
COUNTY NAME: Warren MONTH: July
REGION CODE: 1
FROM: ALDEN AVE JCT RIGHT
TO: JCT RT 9 WARRENSBURG END RT
REF-MARKER:
END MILEPOINT: 0351NO. OF LANES: 2
FUNC-CLASS: 08 HPMS NO:
STATION NO: 0028 LION#:
COUNT TAKEN BY: ORG CODE: TST INITIALS: MDB
PROCESSED BY: ORG CODE: DOT INITIALS: JLB BATCH ID: DOT-R1 W W 29C Class DIRECTION
NUMBER OF VEHICLES
NUMBER OF AXLES
% HEAVY VEHICLES (F4-F13)
% TRUCKS AND BUSES (F3-F13)
AXLE CORRECTION FACTOR
East
1573
3182
4.32%
28.48% 0.99 West
1524
3083
4.40%
27.76% 0.99 TOTAL
3097
6266
4.36%
28.12% 0.99
VEHICLE CLASS F1 F2 F3 F4 F5 F6 F7 F8 F9 F10 F11 F12 F13 TOTAL NO. OF AXLES 2 2 2 2.5 2 3 4 3.5 5 6 5 6 8.75
ENDING HOUR
DIRECTION East
ENDING HOUR DIRECTION West 1:00 0 6 0 0 0 0 0 0 0 0 0 0 0
6
2:00 0 1 0 0 0 0 0 0 0 0 0 0 0 1
3:00 0 2 0 0 0 0 0 0 0 0 0 0 0 2
4:00 1 6 0 0 0 0 0 0 0 0 0 0 0 7
5:00 0 12 5 0 0 1 0 0 0 0 0 0 0 18
6:00 1 26 17 0 4 0 0 0 0 0 0 0 0 48
7:00 2 60 27 0 3 1 0 0 0 0 0 0 0 93
8:00 4 99 27 0 4 1 0 1 0 0 0 0 1 137
9:00 1 80 27 1 3 0 0 0 0 0 0 0 0 112
10:00 0 75 24 1 3 0 0 1 0 0 0 0 0 104
11:00 2 75 27 1 2 1 1 1 0 0 0 0 0 110
12:00 2 68 25 0 3 1 0 1 0 0 0 0 0 100
13:00 1 73 26 1 4 0 0 1 0 0 0 0 0 106
14:00 1 68 25 1 2 0 0 0 0 0 0 0 0 97
15:00 4 75 22 1 2 0 0 0 0 0 0 0 0 104
16:00 2 65 30 1 3 0 0 1 0 0 0 0 1 103
17:00 1 63 24 0 4 0 0 1 0 0 0 0 0 93
18:00 2 63 21 0 3 0 0 0 0 0 0 0 0 89
19:00 3 54 19 0 2 0 0 0 0 0 0 0 0 78
20:00 1 40 11 0 1 0 0 0 0 0 0 0 0 53
21:00 2 31 10 0 1 0 0 0 0 0 0 0 0 44
22:00 0 32 9 0 1 0 0 1 0 0 0 0 0 43
23:00 0 14 2 0 0 0 0 0 0 0 0 0 0 16
24:00 0 7 2 0 0 0 0 0 0 0 0 0 0 9
TOTAL VEHICLES TOTAL AXLES 30
60
1095
2190 380
760 7
18 45
90 5
15 1
48
28 0
00
00
00
02
18 1573
3182
1:00 0 8 1 0 0 0 0 0 0 0 0 0 0 9
2:00 0 5 0 0 0 0 0 0 0 0 0 0 0 5
3:00 0 5 2 0 0 0 0 0 0 0 0 0 0 7
4:00 1 3 0 0 0 0 0 0 0 0 0 0 0 4
5:00 0 2 0 0 0 0 0 0 0 0 0 0 0 2
6:00 0 4 3 0 0 0 0 0 0 0 0 0 0 7
7:00 0 24 12 0 1 0 0 0 0 0 0 0 0 37
8:00 1 23 11 0 3 0 0 0 0 0 0 0 0 38
9:00 0 32 19 1 4 0 1 1 0 0 0 0 0 58
10:00 0 45 19 0 2 1 1 1 1 0 0 0 0 70
11:00 1 52 23 0 3 1 1 1 1 0 0 0 0 83
12:00 1 53 24 0 3 1 0 1 0 0 0 0 0 83
13:00 1 70 31 0 3 1 0 0 0 0 0 0 0 106
14:00 2 70 22 0 2 0 1 1 0 0 0 0 0 98
15:00 2 75 23 0 3 0 0 0 1 0 0 0 0 104
16:00 4 90 34 0 4 1 0 0 0 0 0 0 0 133
17:00 2 105 31 0 5 0 0 0 0 0 0 0 0 143
18:00 3 104 28 0 4 1 0 1 0 0 0 0 0 141
19:00 2 75 21 0 3 0 0 1 0 0 0 0 0 102
20:00 2 67 15 0 1 0 0 1 0 0 0 0 0 86
21:00 3 58 15 0 2 0 0 0 0 0 0 0 0 78
22:00 1 52 11 0 2 0 0 0 0 0 0 0 0 66
23:00 0 30 9 0 0 0 0 0 0 0 0 0 0 39
24:00 0 23 2 0 0 0 0 0 0 0 0 0 0 25
TOTAL VEHICLES TOTAL AXLES 26
52
1075
2150 356
712 1
245
90 6
18 4
16 8
28 3
15 0
00
00
00
01524
3083
GRAND TOTAL VEHICLES GRAND TOTAL AXLES 56
112 2170
4340 736
1472 8
20 90
180 11
33 5
20 16
56 3
15 0
00
00
02
18 3097
6265 — East
– -West
PEAK HOUR DATA
DIRECTION HOUR COUNT 2-WAY HOUR COUNT
East 8 137 A.M. 11 193
West 17 143 P.M. 16 236 VEHICLE CLASSIFICATION CODES:
F1. Motorcycles
F2. Autos*
F3. 2 Axle, 4-Tire Pickups, Vans, Motorhomes*
F4. Buses
F5. 2 Axle, 6-Tire Single Unit Trucks
F6. 3 Axle Single Unit Trucks
F7. 4 or More Axle Single Unit Trucks
F8. 4 or Less Axle Vehicles, One Unit is a Truck
F9. 5 Axle Double Unit Vehicles, One Unit is a Truck
F10. 6 or More Double Unit Vehicles, One Unit is a Truck
F11. 5 or Less Axle Multi-Unit Trucks
F12. 6 Axle Multi-Unit Trucks
F13. 7 or More Axle Multi-Unit Trucks
* INCLUDING THOSE HAULING TRAILERS
FUNCTIONAL CLASS CODES:
RURAL URBAN
SYSTEM
01
02
02
06
07
08
09 11
12
14
16
17
17
19PRINCIPAL ARTERIAL-INTERSTATE
PRINCIPAL ARTERIAL-EXPRESSWAY
PRINCIPAL ARTERIAL-OTHER
MINOR ARTERIAL
MAJOR COLLECTOR
MINOR COLLECTOR
LOCAL SYSTEM
SOURCE: NYSDOT DATA SERVICES BUREAU

— East
– – West
New York State Department of Transportation
Page 1 of 2
Speed Count Average Weekday Report Date: 08/19/2014
Station: 170028 Start date: Fri 07/18/2014 12:00 Count duration:170 hours
Route #: NY 418 Road name: End date: Fri 07/25/2014 13:45Functional class:8
From: ALDEN AVE JCT RIGHT County: WarrenFactor group:40
To: JCT RT 9 WARRENSBURG END RT Town: WARRENSBURG Batch ID:DOT-R1 WW29C Class
Direction: East Count taken by:Org: TST Init: MDB
Speed limit: 30
LION#: Processed by:Org: DOT Init: JLB
Speeds, mph
0.0- 20.1- 25.1- 30.1- 35.1- 40.1- 45.1- 50.1- 55.1- 60.1- 65.1- 70.1- 75.1- % Exc % Exc % Exc % Exc % Exc
Hour 20.0 25.0 30.0 35.0 40.0 45.0 50.0 55.0 60.0 65.0 70.0 75.0 95.0 45.0 50.0 55.0 60.0 65.0 Avg 50th% 85th% Total
1:00 0 0 1 3 2 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 33.0 33.4 37.8 6
2:00 0 1 0 0 0 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 22.5 22.6 24.3 1
3:00 0 0 0 1 1 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 34.8 35.0 38.6 2
4:00 1 1 1 2 1 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 26.2 31.3 39.8 7
5:00 0 0 2 8 6 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 34.2 34.4 39.5 18
6:00 1 2 6 23 13 3 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.9 33.3 38.4 48
7:00 0 3 13 47 29 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 32.7 33.3 38.0 94
8:00 1 3 27 74 28 3 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.7 32.6 36.9 136
9:00 0 3 26 59 22 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.7 32.3 36.7 112
10:00 1 3 26 58 15 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.9 31.9 35.2 104 11:00 2 6 40 50 12 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 29.5 30.8 34.6 110
12:00 1 7 27 49 13 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.2 31.5 35.0 98
13:00 1 7 35 53 10 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 29.9 31.0 34.6 107
14:00 2 9 32 38 16 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 29.4 30.8 35.8 98
15:00 0 6 34 51 15 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.5 31.3 35.0 106
16:00 0 6 30 52 14 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.7 31.5 35.0 103
17:00 0 4 26 47 16 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.1 31.9 36.0 94
18:00 1 2 20 47 20 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.4 32.4 36.9 91
19:00 1 3 17 39 18 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.3 32.5 37.3 80
20:00 1 3 14 24 12 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.4 31.9 36.7 54
21:00 0 4 14 20 6 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.3 31.2 35.3 45
22:00 0 4 13 20 6 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.2 31.2 34.9 43
23:00 0 0 4 7 4 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 32.6 32.9 38.3 16
24:00 0 0 2 4 3 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 32.6 33.2 37.8 9
Avg. Daily Total 13 77 410 776 282 24 0 0 0 0 0 0 0 1582
0.0 0.0 0.0 0.0 0.0 30.9 31.9 36.3
Percent
Cum. Percent Average hour 0.8%
0.8%
1 4.9%
5.7%
3 25.9%
31.6%
17 49.1%
80.7%
32 17.8%
98.5%
12 1.5%
100.0% 1 0.0%
100.0% 0 0.0%
100.0% 0 0.0%
100.0% 0 0.0%
100.0% 0 0.0%
100.0% 0 0.0%
100.0% 0 0.0%
100.0% 0 66
Avg. Speed 50th% Speed 85th% Speed
East 30.931.936.3
West 31.232.437.4
Peak Hour Data
Direction Hour Count 2-way Hour Count
East 8 136 A.M. 11 194
West 17 144 P.M. 16 238

— East
– – West
New York State Department of Transportation
Page 2 of 2
Speed Count Average Weekday Report Date: 08/19/2014
Station: 170028 Start date: Fri 07/18/2014 12:00 Count duration:170 hours
Route #: NY 418 Road name: End date: Fri 07/25/2014 13:45Functional class:8
From: ALDEN AVE JCT RIGHT County: WarrenFactor group:40
To: JCT RT 9 WARRENSBURG END RT Town: WARRENSBURG Batch ID:DOT-R1 WW29C Class
Direction: West Count taken by:Org: TST Init: MDB
Speed limit: 30
LION#: Processed by:Org: DOT Init: JLB
Speeds, mph
0.0- 20.1- 25.1- 30.1- 35.1- 40.1- 45.1- 50.1- 55.1- 60.1- 65.1- 70.1- 75.1- % Exc % Exc % Exc % Exc % Exc
Hour 20.0 25.0 30.0 35.0 40.0 45.0 50.0 55.0 60.0 65.0 70.0 75.0 95.0 45.0 50.0 55.0 60.0 65.0 Avg 50th% 85th% Total
1:00 0 0 0 6 2 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 33.6 33.4 37.0 8
2:00 0 0 1 2 2 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 33.1 33.8 38.2 5
3:00 0 1 1 2 2 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.7 32.6 37.8 6
4:00 1 0 1 1 1 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 23.7 30.0 37.0 4
5:00 0 0 0 1 1 0 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 34.8 35.0 38.6 2
6:00 0 1 0 4 1 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 32.2 33.2 39.8 7
7:00 0 2 6 15 11 3 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 32.7 33.6 38.9 37
8:00 0 2 8 17 11 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 32.0 32.8 37.8 39
9:00 2 3 14 22 14 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.2 32.2 37.7 57
10:00 1 5 17 31 13 3 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.6 32.0 37.2 70 11:00 1 8 25 36 12 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 29.8 31.2 35.6 84
12:00 0 6 23 40 12 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.7 31.6 35.7 83
13:00 2 7 27 50 19 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.3 31.8 36.4 107
14:00 3 5 23 46 18 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.1 32.0 36.6 97
15:00 2 6 21 54 18 4 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.7 32.2 36.8 105
16:00 2 6 26 68 31 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.2 32.5 37.1 135
17:00 1 4 26 76 32 5 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.9 32.7 37.5 144
18:00 2 3 23 68 39 6 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 32.1 33.2 38.1 141
19:00 1 2 16 50 28 5 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 32.4 33.2 38.2 102
20:00 0 4 20 38 21 3 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.8 32.6 37.7 86
21:00 1 2 17 37 19 3 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.6 32.7 37.7 79
22:00 0 3 16 34 11 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.3 32.0 36.1 65
23:00 0 1 11 20 7 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 31.7 32.2 37.1 41
24:00 0 0 2 12 9 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 34.0 34.2 38.6 24
Avg. Daily Total 19 71 324 730 334 50 0 0 0 0 0 0 0 1528
0.0 0.0 0.0 0.0 0.0 31.2 32.4 37.4
Percent
Cum. Percent Average hour 1.2%
1.2%
1 4.6%
5.9%
3 21.2%
27.1%
14 47.8%
74.9%
30 21.9%
96.7%
14 3.3%
100.0% 2 0.0%
100.0% 0 0.0%
100.0% 0 0.0%
100.0% 0 0.0%
100.0% 0 0.0%
100.0% 0 0.0%
100.0% 0 0.0%
100.0% 0 64
Avg. Speed 50th% Speed 85th% Speed
East 30.931.936.3
West 31.232.437.4
Peak Hour Data
Direction Hour Count 2-way Hour Count
East 8 136 A.M. 11 194
West 17 144 P.M. 16 238

The Chazen Companies

Attachment C
Photo Log

River Street Photo Log Town of Warrensburg
Warren County, New York

September 22, 2014
Proud to be Employee Owned
Engineers
Land Surveyors
Planners
Environmental Professionals
Landscape Architects

River Street
– Warrensburg, New York Photo Log
September 22, 2014 1

Judd Bridge
View northeast Bridge at Richards Ave.
View northeast

W est of Veteran ’ s Park
View east West of Veteran ’ s Park
View east

Intersection of River St. and Ridge Ave
View southeast East of Grist Mill
View west

River Street
– Warrensburg, New York Photo Log
September 22, 2014 2
East of Grist Mill
View west West of Grist Mill
View east

West of Grist Mill
View west West of Grist Mill
View east

East of South St.
View east East of South St.
View west

River Street
– Warrensburg, New York Photo Log
September 22, 2014 3
East of South St.
View east Intersection of River St. and South St.
View east

Warrensburg Historical Park
View southwest Warrensburg Historical Park
View southwest

Warrensburg Historical Park
Warrensburg Historical Park
View west

River Street
– Warrensburg, New York Photo Log
September 22, 2014 4
Warrensburg Historical Park
View west Warrensburg Historical Park
View west

Intersection of River St. and Commercial Ave.
View east Intersection of River St. and Commercial Ave.
View east

Intersection of River St. and Commercial Ave.
View north Curtis Lumber parking lot
View northeast

River Street
– Warrensburg, New York Photo Log
September 22, 2014 5
South of Curtis Lumber
View northeast Crosswalk at Milton St.
View east

Bridge at Milton St.
View north Bridge at Milton St.
View east

West of b ridge at Milton St
View west West of b ridge at Milton St

View east

River Street
– Warrensburg, New York Photo Log
September 22, 2014 6

View east East of substation
View west

At pull off near substation
View west At washout near Big Brook
View southwest

At washout near Big Brook
View south East of Board and Paper Site
View west

River Street
– Warrensburg, New York Photo Log
September 22, 2014 7
Near Browns Drive
View west South of S Santolin Dr.
View east

The Chazen Companies

Attachment D
Historic Mapping

Electric Vehicle Charging Station Location Analysis

Electric Vehicle Charging Station Location Analysis

Prepared by: A/GFTC

February 2015

1
Introduction
Interest in alternative fuel cars is growing. In the A/GFTC area, electric or hybrid vehicles are registered
to owners in all but one zip code
1. Currently, the dominant type of alternative fuel vehicle is the non‐
plug‐in Hybrid, with 1,542 vehicles registered in the A/GFTC area. There are currently 70 vehicles
registered in the region which require plug‐in charging, including full‐size electric vehicles, Global
Electric Motorcars (also known as GEM vehicles), and
plug‐in hybrids. As deployment of plug‐in vehicles
continues to increase, A/GFTC can provide data regarding potential locations for Level II Electric Vehicle
charging stations. These types of charging stations supply 240 volts and can charge vehicles much faster
than a standard 120 volt plug.
There are currently seven
charging stations within the A/GFTC region ‐ four are located at hotels or
private businesses and are not intended to be used by members of the public. Two stations located at
Glens Falls Hospital, as well as one at Green Mountain Electric Supply on Corinth Road in Queensbury,
are available for public
use. Electric vehicles have also been noted using Level 1 charging in outlets
under the South Street Parking Pavilion in Glens Falls. As interest in electric and plug‐in hybrid vehicles
grow, demand for charging stations is also anticipated to increase.
Scope of Analysis
As an initial planning product, this
analysis includes only those municipalities within the Glens Falls
urbanized area, which includes the City of Glens Falls, the villages of Hudson Falls, South Glens Falls, Fort
Edward, and Lake George, and portions of the towns of Queensbury, Kingsbury, Moreau, Fort Edward,
and Lake George. This area was selected as the
most likely location for the initial deployment of public
EV Charging Stations. However, this analysis was designed to be easily replicated for any municipality
within the A/GFTC region.
This analysis is focused on public parking lots. This includes any facility owned by the municipality which
has surface parking spaces that
are used by the public, such as municipal centers, parks and recreation
areas, and public parking lots. These were identified using parcel ownership and land use codes as
identified in the data provided by the assessor of each municipality. The number of spaces in each lot
was identified though aerial photographs
or site visits.2 Public Works departments and firehouses were
not included as part of this analysis; however, future planning efforts could include these facilities.
In addition, the methodology outlined below could be applied to private facilities as well. Many
companies are choosing to locate Type II charging stations within their parking lots. This
can be a
favorable service for existing customers as well as an amenity which may attract a new customer base.

1 All data regarding electric vehicle ownership provided by NYSERDA 2 Some parking areas are unpaved or lack discernible pavement striping; the number of spaces in these lots was
estimated.

2
Methodology
The methodology for this project was driven by the availability of data and the goal of providing an
analysis useful to local municipalities. Since Type II charging stations require a few hours to charge a
vehicle, it was determined that duration of parking was the most important factor.
A 1/4 mile radius was
drawn around each parking area. This is equivalent to approximately a 5‐minute walk, a distance often
used in planning analyses as the maximum desirable walking distance. Within the radius of each parking
area, the potential for long‐ duration parking was tabulated using the following
statistics:
 Employment‐based activities. This data, supplied by NYSDOT through InfoGroup, includes
statistics on all businesses with more than 10 full‐time employees. (Note: Glens Falls Hospital
was excluded from the analysis because the facility already houses two on‐site charging
stations.) Two types of data were tracked:
o Number
of businesses with more than 10 employees. Many small businesses have
limited parking facilities dedicated for employees (if any). Providing charging stations in
areas with a high density of businesses could increase the likelihood that the charging
stations will be used.
o Number of employees.  This statistic allows the municipality
to determine how many
people are employed at the businesses listed above.
 Tourism/Lifestyle‐based activities. This data was provided by land use codes assigned by the
assessor.
o Long‐duration uses. These include any uses where the visit duration for an activity could
reasonably average 2 or more hours. This
includes theaters and other entertainment
venues, convention centers, active recreation areas, libraries, municipal centers and
courts, park‐and‐ride lots, and religious uses.
o Medium‐duration uses. These include activities which are not of long duration, but
could be combined with similar activities to add up to several hours. For
example,
shopping in a downtown and then eating lunch, or attending a medical appointment
and going to the post office. Uses include retail stores, restaurants, medical offices,
offices, post offices, passive recreation areas, playgrounds, and cemeteries.
 Proximity to transit. The number of GGFT transit service lines was tabulated, to allow
for
multimodal activity.

3
Analysis Results
Parking Facility Location # of
spaces
# of
transit
routes
Businesses
with 10+
jobs
# of
employees
Long
duration
uses
Medium
duration
uses
Glens Falls
East Field 65 Haskell Ave 345216519 28
YMCA Fire Road 15524223 45
Elm St. Parking Lot 214 Glen St  12511521161 884
South Street Parking
Pavilion 25‐33 South St 113931777 751
Crandall Park 576 Glen St 7036245 410
Ice Rink Fire Road 5423208 43
Haviland’s Cove Bush St 501150 10
Parking lot 34‐38 Warren St 241235673 660
City Hall Parking Lot 38 Ridge St 241140982 773
Exchange Alley 1 Hudson Ave 191150948 574
Lake George (Town and Village)
Beach Road (DEC) Beach Road 4653110 44
Beach Road (Village) Beach Road 96317427 533
Charles A Wood
Park West Brook Rd 9034215 615
Recreation Center Dump Rd. 80000 10
Municipal Offices 20 Old Post Rd 7219284 26
Parking Lot Ottawa St. 28320336 842
Parking Area Amherst St. 27324601 737
Usher park NYS 9L & Racawana
Rd 203225 43
Moreau
Municipal Park Route 32 & Bluebird 360000 11
Municipal Center Route 197 50000 11
Cooper’s Cave park River & First street 4718482 016
Fort Edward (Town and Village)
County Offices 383 Broadway 4601191242 215
Town/Village Offices 118 Broadway 4518445 526
Roger’s Island Visitor
Center 11 Roger’s Island Dr. 30000 10
Yacht Basin Satterlee Ln 2515390 220
Bradley Beach 25 Bradley Ave 1014375 415
Mullen Park Factory & Wing  614324 42

4

Parking Facility Location # of
spaces
# of
transit
routes
Businesses
with 10+
jobs
# of
employees
Long
duration
uses
Medium
duration
uses
Hudson Falls/Kingsbury
Town hall Center St & Route 4 65112433 645
Library/Village Hall Clark & Locust 62112437 639
St. Mary’s Church Wall St 16*111423 640
Queensbury
County Offices 1340 State Route 9 7302281071 39
Ridge Jenkinsville
Park 133 Jenkinsville Rd 277000 01
Town Hall 742 Bay Road 19026220 29
Airport 443 Queensbury Ave 1000584 13
Gurney Lane Park 118 Gurney Ln 10001101 13
Town Court 81 Glenwood Ave 50319615 240
Park & Ride Media Drive 3915403 210
Bike Trail Parking Country Club Road 3025132 19
Hudson River park Big Boom Rd 28000 01
Hovey Pond 21 Lafayette St 25428576 138
Park & Ride 105 Main St 1019470 212
West End Park Luzerne Rd 813373 23
Hudson Pointe
trailhead Hudson Pointe Blvd 5000 10
*58 spaces including St. Mary’s parking area

5
Using the Analysis
Each community may have a different goal for promoting the
use of electric vehicles, so a variety of data has been
provided. For example, a community could promote business
development by using the employment‐based data to
identify potential locations for charging stations. Similarly,
municipalities with
a tourist‐based economy could use the
long‐ and medium‐duration activities as the deciding factor,
so that the charging stations are more useful for visitors.
In addition to the tabular analysis, there are other
considerations for the location of a charging station. These
include:
 Visibility
. Consider locating charging stations in
spaces which are highly visible from major streets,
rather than those located behind buildings or at the
end of long driveways. This will raise awareness of
the station and increase usage. If low‐visibility spaces
are determined to be a high priority, consider adding
directional
signage.
 Parking Restrictions
. Some parking areas have time
restrictions or are fee‐based. Consider locating
charging stations in areas with minimal restrictions,
to promote usage.
 Pavement/Parking Infrastructure
. Several of the
parking areas included in this analysis are unmarked
or the pavement stripes have deteriorated.
Installation of a charging station may necessitate re‐
paving or re‐striping these facilities, as well as
improvements to accommodate the requirements of
the Americans with Disabilities act. In addition, there
are recommended
design guidelines for dimension,
signage, striping, and access of charging stations. See
Siting And Design Guidelines For Electric Vehicle
Supply Equipment for more information.
 Electrical Infrastructure
. Not all of the parking areas
included in this analysis have the necessary electrical
infrastructure in place to facilitate installation. See
sidebar for more information.
CONNECTION TO POWER
“When installing EVSE or EVSE‐ready
wiring, a dedicated circuit may be
required or optimal. This can be
added to an existing panel, or planned
for in new construction. Dedicated
circuits may require a new conduit, in
addition to the conduit running from
the panel to the EVSE’s
location. Costs
rise as cable length increases due to
the installation costs of construction
and trenching. Experienced installers
recommend not exceeding 25 feet of
conduit from panel to EVSE site, but
this will vary widely.
Most facilities have accessible 120V
circuits sufficient to power level 1
EVSE. Level 2 charging
requires 208‐
240 volts and at least 15‐30 amps.
Many jurisdictions require or
recommend a dedicated branch circuit
for level 2 charging. The existing
electrical panel in most installations,
especially older structures
constructed prior to 1960, will not
have the system capacity to handle
large and continuous loads. While
level
2 EVSE is similar to other
household appliances like clothes
dryers, the continuous nature of the
load may be a burden on the system.
Installation of dedicated branch
circuits/new panels may reduce safety
risk and assist with peak load
management in scenarios with
multiple charging vehicles.”
Source: “Siting And Design
Guidelines
For Electric Vehicle Supply
Equipment”, November 2012

6

Additional Resources
For more information on funding, siting, and installing charging stations, please see the following links.
In addition, A/GFTC has additional resources available upon request.

New York State Energy Research and Development Authority (NYSERDA):
http://www.nyserda.ny.gov/Energy‐Innovation‐and‐Business‐Development/Research‐and‐
Development/Transportation.aspx

Northeast Electric Vehicle Network, Guidance Documents including EV‐Ready Codes, Guide to Planning
and Policy Tools, and Siting and Design Guidelines: http://www.northeastEVs.org

Transportation & Climate Initiative, Siting and Design Guidelines for Electric Vehicle Supply Equipment:
http://www.transportationandclimate.org/sites/default/files/EV_Siting_and_Design_Guidelines.pdf

“Ready, Set, Charge: A Guide to EV Ready Communities”:
http://www.rmi.org/Content/Files/Readysetcharge.pdf

Jackson Heights Elementary School Transportation Study

FINAL REPORT
JACKSON HEIGHTS ELEMENTARY
SCHOOL TRANSPORTATION
STUDY

10.3.2014

the science of insight

55 Railroad Row White River Junction, VT 05001 802.295.4999 www.rsginc.com

PREPARED FOR:
ADIRONDACK / GLENS FALLS TRANSPORTATION COUNCIL
SUBMITTED BY:
RSG/CONTACT: COREY MACK, CONSULTANT

JACKSON HEIGHTS ELEMENTARY SCHOOL TRANSPORTATION STUDY
PREPARED FOR:
ADIRONDACK / GLENS FALLS TRANSPORTATION COUNCIL

C O N T E N T S

i

1.0 INTRODUCTION ………………………………..
…………………………………………………………………………….. 1
1.1 | Study Area …………………………… ………………………………………………………………………………………. 2
School Characteristics ………………………. …………………………………………………………………………………………………………… 2
Adjacent Street Network ……………………… …………………………………………………………………………………………………………. 2
Travel Options to School …………………….. ………………………………………………………………………………………………………….. 3
Drop7off Procedures …………………………. ……………………………………………………………………………………………………………. 4
Pick7up Procedures…………………………… …………………………………………………………………………………………………………… 5
Crossing Guards …………………………….. …………………………………………………………………………………………………………….. 5
1.2 | Purpose and Need ……………………… …………………………………………………………………………………. 6
2.0 TRAFFIC OBSERVATIONS ………………………… ……………………………………………………………………. 7
2.1 | Turning movements and pedestrian volumes … …………………………………………………………………. 7
2.2 | School Peak Traffic Volumes ……………. ……………………………………………………………………………. 8
3.0 SAFETY ANALYSIS …………………………….. ………………………………………………………………………….. 9
3.1 | Historical Crash Data …………………. ………………………………………………………………………………….. 9
3.2 | Anecdotal Crashes …………………….. …………………………………………………………………………………. 9
4.0 CONGESTION MITIGATION STRATEGIES ……………… ………………………………………………………. 10
4.1 | One7Way Jackson Avenue ………………… …………………………………………………………………………. 10
Short7Term …………………………………………………………………………………………………………………………………………………. 10
Long7Term ………………………………….. ……………………………………………………………………………………………………………… 11
4.2 | Shorten Crossing Distances at Jackson and Sa gamore ……………………………………………………. 11
Short7Term …………………………………………………………………………………………………………………………………………………. 11

ii October 3, 2014

Long7Term ………………………………………………………………………………………………………………………………………………….. 11
4.3 | Modify Crossing Guard Procedures ……….. ……………………………………………………………………… 12
4.4 | Reduce parents parking on Jackson Avenue at peak times ………………………………………………. 13
Spread out the Staging Areas ………………………………………………………………………………………………………………………… 13
Designate a Supervised staging area for before scho ol opens …………………………………………………………………………….. 13
Coordinate signing ………………………….. …………………………………………………………………………………………………………… 14
4.5 | Snow Removal and Storage Polices ……….. …………………………………………………………………….. 14
4.6 | Expand active transportation to/from school ……………………………………………………………………. 14
4.7 | Encourage Carpooling ………………….. ……………………………………………………………………………… 15
4.8 | survey parents’ resistance to active transpo rtation and carpooling …………………………………….. 15
5.0 IMPLEMENTATION MATRIX ……………………….. …………………………………………………………………. 16
5.1 | Short7Term Improvements ……………….. …………………………………………………………………………… 16
5.2 | Long7Term Improvements ………………… ………………………………………………………………………….. 17
5.3 | Recommendations ………………………. ………………………………………………………………………………. 17

FIGURE 1: SCHOOL CAMPUS WITHIN GLENS FALLS …….. ……………………………………………………………………………………………. 1
FIGURE 2: JACKSON HEIGHTS POPULATION OVER FIVE YEAR S ………………………………………………………………………………… 2
FIGURE 3: OFFSET JACKSON/SAGAMORE INTERTERSECTION W ITH CROSSING DISTANCES ……………………………………… 3
FIGURE 4: SCHOOL ENTRANCES ON SAGAMORE STREET AND J ACKSON AVENUE ……………………………………………………. 4
FIGURE 5: SIGNAGE AND CONES ALONG JACKSON AVENUE TO DISCOURAGE PARKING ………………………………………….. 4
FIGURE 6: MORNING AND AFTERNOON TURNING MOVEMENT AN D PEDESTRIAN COUNTS AT THE INTERSECTION OF
JACKSON AVENUE AND SAGAMORE STREET ……………. ……………………………………………………………………………………………… 7

FIGURE 7: NUMBER OF VEHICLES AND PEDESTRIANS UTILIZ ING THE JACKSON/SAGAMORE INTERSECTION EVERY
FIVE MINUTES DURING THE MORNING DROP/OFF PERIOD … ………………………………………………………………………………………. 8

FIGURE 8: NUMBER OF VEHICLES AND PEDESTRIANS UTILIZ ING THE JACKSON/SAGAMORE INTERSECTION EVERY
FIVE MINUTES DURING THE AFTERNOON PICK/UP PERIOD… ……………………………………………………………………………………… 9

FIGURE 9: COLLISION LOCATIONS ………………… ………………………………………………………………………………………………………….. 9
FIGURE 10: COLLAPSIBLE TEMPORARY BARRIER……….. ………………………………………………………………………………………….. 10
FIGURE 11: LONG/TERM CROSSING DISTANCE REDUCTION .. …………………………………………………………………………………… 11
FIGURE 12: CROSSING GUARD IN CROSSWALK ………… …………………………………………………………………………………………….. 12
FIGURE 13: NEW PARKING AND DROP OFF AREA NORTH OF T HE SCHOOL ……………………………………………………………… 13

APPENDIX A. SAFE ROUTES TO SCHOOL: CROSSING GUARD GUIDELINES
APPENDIX B. AMERICAN AUTOMOBILE ASSOCIATION: SCHOOL SAFETY PATR OL OPERATIONS MANUAL

1

1 . 0 I N T R O D U C T I O N
On behalf of the Adirondack / Glens Falls Transport
ation Council, RSG has conducted an analysis
of traffic operations and overall safety at the Jack son Heights Elementary School in Glens Falls, NY.
The objectives of this study include:
· An evaluation of current access patterns,
· An evaluation of safety issues that are commonly obs erved
· Proposed short*term and long*term congestion mitiga tion strategies with improvements to
the circulation patterns and bicycle and pedestrian safety considerations.
This report summarizes the methods of data collecti on, the analysis techniques, a review of the
alternatives investigated, and short*term and long*te rm recommendations. This study has been
organized into the following sections:
Section 1.0 – Introduction : Provides background information, explains the goal s of this report,
states the formal purpose and need of the study and provides a general description of the campus
area, school characteristics, and adjacent street n etwork within the City of Glens Falls.
Section 2.0 – Traffic Observations: Documents the data collection methodology and prese nts the
observed operational characteristics of the
pick*up and drop*off periods.
Section 3.0 – Safety Analysis: Reviews
the available crash records and documents
anecdotal evidence.
Section 4.0 – Programmatic Congestion
Mitigation Strategies: Presents the
investigations into the various short*term
and long*term congestion mitigation
strategies.
Section 5.0 – Implementation Matrix :
Summarizes the strategies, costs, project
leaders, and other partners that will
participate in or support the proposed
mitigation techniques.

FIGURE 1: SCHOOL CAMPUS WITHIN GLENS FALLS

Final Report Adirondack / Glens Falls Transportation Council
Jackson Heights Elementary School Transportation study

2 October 3, 2014

1 . 1 | S T U D Y A R E A
The analysis area for this transportation study is the Jackson Heights Elementary School campus and
the adjacent street network, including the Jackson Avenue and Sagamore Street intersection.

SCHOOL CHARACTERISTICS
Jackson Heights Elementary School is one of three e lementary schools in the Glens Falls School
District. The 75*year*old school serves kindergarten through grade 4, and currently has a population
of 252 students. Figure 2 illustrates annual
enrollment figures for the last five years. A
re*districting occurred in 2011 which
explains the jump in enrollment between the
2010*11 school year and the 2011*12 school
year. Enrolment has varied, but it is
generally considered stable.
ADJACENT STREET NETWORK
Jackson Heights Elementary School is located at the corner of Sagamore Street and
Jackson Avenue, both classified as minor collector roads and seeing relatively low
Study Area
Jackson Heights
Elementary School
FIGURE 2: JACKSON HEIGHTS POPULATION
OVER FIVE YEARS

3

volumes. A reduced speed school zone of 15 miles per
hour is designated by speed limit signs and
school warning signs in the vicinity of the campus. The speed limit is 30 miles per hour outside the
school zone. Sanford Street and Ridge Street, desig nated as minor arterials, are located within half a
mile of the school and have speed limits of 30 miles per hour.
Many side streets in the
study area are offset
from each other when
they intersect a main
road. This geometry
creates longer crossing
distances and
complicates vehicle
turning movements.
The Jackson*Sagamore intersection is an
example of this
geometry with the
western leg of Jackson
Avenue farther to the south than the eastern
leg (Figure 3). The
northern crossing on
Sagamore Street is
about 78 feet along the
crosswalk and the
eastern crossing on
Jackson Avenue is about 58 feet along the crosswalk. Pedestrians acce ssing the school by these crossings will require
additional time to cross than at typical crossings.
With the exception of Mauro Avenue, sidewalks are pr esent on at least one side of the street and, in
many cases, on both sides throughout the study area . This network of walkways is generally sufficient
to provide a route to the school from most parts of the school district; sidewalks are recommended
on Mauro Avenue to further encourage pedestrian acce ss to the school campus. Curb ramps in some
places are not flush with the pavement, and maintena nce is required on some sidewalk sections.
TRAVEL OPTIONS TO SCHOOL
Children are able to walk to school, ride their bicycle, or be driven to school. The school district is
classified as a walking school district, meaning th at bus service to and from the school is not offered
for most students. It is assumed that children live close enough to the school that they are able to
walk or bike, but many parents choose to drive their child. Driving is more common on winter days
and during inclement weather.
FIGURE 3: OFFSET JACKSON/SAGAMORE INTERTERSECTION WITH
CROSSING DISTANCES

Final Report Adirondack / Glens Falls Transportation Council
Jackson Heights Elementary School Transportation study

4 October 3, 2014

Third grade students may participate in a bicycle
safety education program called the Bike Rodeo,
which is offered once per year as the weather warms
up in the spring. Third graders may not bike to
school unless they have participated in this program ;
all fourth graders are allowed to bike to school
regardless of past participation. Bicycle racks are
provided in the front and rear of the school, and
students are required to walk their bikes on school
property. During a site visit with ideal weather
conditions for active commuting, the front rack was
well utilized but had room for additional bicycles.
The rear rack was empty, likely because students do
not arrive near its location. It may be intended for
school employees or for use of the adjacent
recreational fields.
In 2006 and 2008, studies were conducted into travel
mode choice of parents at surrounding schools. The
main reasons for choosing to drive a student to
school rather than walk or bike were safety related ,
including perceptions about crime, and concerns
related to traffic and students walking alone.
DROP/OFF PROCEDURES
Kindergarten through second grade enters at the
main entrance A on Jackson Avenue, and third and
fourth graders enter at entrance C on Sagamore
Street (Figure 4). Students line up in front of the ir
respective entrances starting at 8:10 and are admitt ed
into the building between 8:20 and 8:30. Although
aides are present to monitor the students while the y
are lined up, the school is not technically respons ible
for the students until they enter the building. Thi s
arrangement encourages parents to stay parked in
front of the school until they see their child ente r the
building, which adds to congestion. The school
places cones along the curb to discourage parents
from parking (Figure 5), but parents will attempt t o
park in between them, just outside of them, and
occasionally drive over a cone.
FIGURE 5: SIGNAGE AND CONES ALONG
JACKSON AVENUE TO DISCOURAGE

5

Signs located along Jackson Avenue and Sagamore Stre
et were noted as being confusing, with some
signs saying “no parking stopping or standing any t ime” located between other contradictory “drop*
off and pickup only” signs (Figure 5).
Jackson Avenue frequently experiences congestion dur ing drop*off time. People will park on both
sides of Jackson Avenue, which leaves little room for through traffic or parents exiting. Given the
timing, parents are usually in a hurry to leave, and the congestion and resulting frustration can lead to
arguments between parents. Minor fender benders wer e reported as common, and the school’s front
office receives many complaints. Inclement winter we ather can compound the situation causing more
people to drive, slippery road conditions, and tall snow banks along the side of the road, roadway
width and student access to the school. Several time s in the 2013*2014 school year winter, students
waited inside from 8:10*8:20 to shield them from ver y cold days.
In contrast, drop*off at the Sagamore Street entran ce is not perceived as a problem. The roadway is
wider and longer, giving cars more room to maneuver. Parents are also less likely to wait for the older
children, which reduces congestion. Given the lack o f concern over the Sagamore entrance,
mitigation measures focus on the Jackson Avenue circ ulation and congestion through the Jackson
Avenue / Sagamore Street intersection.
PICK/UP PROCEDURES
Pick*up procedures differ in that many parents arri ve early, park, and wait for their children. Students
also may wait for their parents outside the school until their parent arrives. They cannot leave the
school until they see their parent. Kindergarten st udents are dismissed at 2:40 and then the remainder
of the students are dismissed at 2:45. Like drop*of f, grades three and four are staged on Sagamore
Street while the lower grades are staged on Jackson Avenue.
Generally, pick*up is more orderly than drop*off be cause some parents park well before their
children are dismissed. Some parents will also park on streets not immediately adjacent to the school
and walk to the school entrance to retrieve their ch ild. Parents and children also tend to congregate
on the sidewalk after school is dismissed, and this mass of people can create an obstacle for children
on bicycles, scooters, and skateboards, particularl y for inexperienced riders. On days where more
parents drive, such as rainy days, the congestion is more significant and causes unsafe situations.
Similar to drop*off, cones are placed along Jackson Avenue and Sagamore Street to discourage
parking.
CROSSING GUARDS
To assist the students in travelling to and from sc hool safely, a crossing guard is located at each of
three intersections:
· Jackson Avenue and Sagamore Street (All*way stop con trolled)
· Jackson Avenue and Ridge Street (Signalized)
· Sanford Street and Ridge Street (Signalized)
The crossing guards are part*time employees of the Glens Falls Police Department whose main
responsibility is to ensure that students cross the street safely. A traffic officer will work with crossing

Final Report Adirondack / Glens Falls Transportation Council
Jackson Heights Elementary School Transportation study

6 October 3, 2014

guards when they start until they are comfortable with their duties. At unsignalized intersections, a
guard is instructed to stop all traffic to allow a pedestrian to safely navigate the intersection.
Crossing guard procedures were observed at the Jacks on/Sagamore intersection during the site visit.
When a pedestrian approached the intersection, the crossing guard would walk to the center of the
intersection and stop all traffic, including vehicle s that would not be in conflict with the pedestrian ,
then motion the pedestrian to cross the street.
Stopping all traffic prevents turning vehicles from b eing in conflict with pedestrians crossing the
street. However, it also stops some through movements unnecessarily and contributes to queuing at
the approaches. Although observed delays were shorte r than is typically deemed a problem, drivers
became frustrated at not being allowed to proceed w hen they perceived that there was no conflict.
Traffic was also lighter than normal on the day of the site visit due to the large number of students
walking and biking. The long crossing distances com pound this problem by increasing wait time. In
some cases, drivers proceeded through the intersecti on despite the presence of the crossing guard.
This situation put the crossing guard at risk of co llision and increased the likelihood of unintended
vehicle*pedestrian conflict, particularly for the el ementary school age children who may not be aware
of the potential danger of the intersections.
1 . 2 | P U R P O S E A N D N E E D
The purpose of this study is to develop short term a nd long*term recommendations to improve the
safety and use of Jackson Avenue in front of Jackso n Heights Elementary School and the Jackson
Avenue/Sagamore Street intersection during drop*off and pick*up times at the elementary school.
The need for this study is demonstrated by the cong estion and unsafe conditions in the study area.
Specifically:
· Arguments and fender benders between parents droppi ng off and picking up their children
are common in the study area.
· Driver frustration is common and frustrated drivers a re more likely to engage in unsafe
behaviors.
· Elementary school students are less aware their sur roundings than older students or adults
and therefore more likely to unknowingly place them selves in conflict with vehicular traffic.
· A car hit a student on a bicycle close to the study area.
· Congestion during peak times leaves inadequate space for emergency vehicles to park and
maneuver in front of the school.
· Snow events may result in unplowed sidewalks and sno wbanks in pedestrian paths, resulting
in greater potential for pedestrian*vehicle conflict , particularly in the morning.
These conditions present a clear danger to roadway users, both pedestrians, cyclists, and drivers.
It should be noted that the peak pick*up and drop*o ff periods are short, traffic volumes are low, and
the traffic delay and congestion exhibited at the s chool are acceptable according to industry
standards. Under similar motorist delay circumstanc es in commercial areas or along busy roadways,
an intersection would most likely not exhibit unsaf e conditions. It is likely the impatience of the road
users, or at least some of the road users, that are causing this danger. By increasing the perception of

7

acceptable delay and the time required to drop off
and pick up their children, the safety issues may
be resolved.
Unfortunately, appealing to poorly behaving drivers i s rarely a viable mitigation strategy. This report
will focus on two areas with the goal of improving s afety. First, we look to minimize the time drivers
and pedestrians spend in conflict points, and, idea lly, remove conflicts. Second, we explore ways to
reduce the congestion and increase the efficiency o f the intersection, thereby reducing frustration
and reducing dangerous behavior. Some strategies wor k towards both of these goals.
2 . 0 T R A F F I C O B S E R V A T I O N S
This analysis examines turning movements at the intersection of Jackson Avenue and Sagamore
Street on Wednesday, May 14, 2014 during the mornin g drop*off and afternoon pick*up times as well
as roadway volumes and vehicle speeds on Sanford Stre et and Ridge Street.
2 . 1 | T U R N I N G M O V E M E N T S A N D P E D E S T R I A N V O L U M E S
RSG performed turning movement and pedestrian crossi ngs counts from 7:40*8:40 AM and 2:15*
3:15 PM to capture traffic patterns while students were entering and leaving the school. Data was
recorded in five*minute increments to capture the sh ort peak related to school opening and closing.
The weather was clear and warm, which likely encour aged children to walk or ride their bicycles to
school. On cold, snowy, or rainy days, there are li kely more vehicles present and fewer, if any, people
commuting on foot and bicycle. Figure 8 shows the o bserved morning and afternoon turning
movement and pedestrian counts.
FIGURE 6: MORNING AND AFTERNOON TURNING MOVEMENT AN D PEDESTRIAN COUNTS AT THE
INTERSECTION OF JACKSON AVENUE AND SAGAMORE STREET

In the morning, half the vehicle traffic is traveling northbound on Sagamore and half of that
continues north on Sagamore. The rest of the traffi c is approximately evenly distributes between the
other three approaches.
Pedestrians crossing a street are shown in a box be hind the turning movements. Bicycles riding on
the sidewalk are included in these numbers. The maj ority of pedestrians (103, including 14 bicycles)
cross Jackson to the east of the intersection while equal numbers (15 at each crossing) cross
Sagamore north and south of the intersection. This pattern indicates that the majority of pedestrian
are traveling northbound on the sidewalk adjacent to Sagamore on their way to and from the school.
In most cases, an adult was observed walking with a child or group of children to the school and
then the same adult was observed walking in the oppo site direction alone after dropping the child

Final Report Adirondack / Glens Falls Transportation Council
Jackson Heights Elementary School Transportation study

8 October 3, 2014

off. In this case, the adult was double counted, i.e. counted crossing the street first with the child and
then again without the child.
Only three bicycles were observed riding on the stre et during this period.
The afternoon vehicle traffic exhibits similar trend s to the morning with the majority of vehicles
traveling northbound on Sagamore and the remainder o f the traffic approximately evenly distributed
between the other three approaches. Overall, vehicle volumes are slightly lower in the afternoon than
in the morning.
Similar to the morning, the majority of pedestrians (102, including 3 bicycles) cross Jackson to the
east of the intersection. However, a large number of pedestrians (57) also cross Sagamore to the
north of the intersection, while fewer (12) cross S agamore south of the intersection. These numbers
are consistent with observations of parents parking on Jackson west of the intersection and
Sagamore south of the intersection, then walking to the school to pick up their child.
Five bicycles were observed riding on the street duri ng this period.
2 . 2 | S C H O O L P E A K T R A F F I C V O L U M E S
Figure 7 and Figure 8 show the number of vehicles an d pedestrians utilizing the intersection every
five minutes. A clear peak in pedestrian volumes is seen between 8:15 and 8:20 AM when the school
begins to let children enter. Vehicular traffic al so peaks at 8:20, although the trend is less
pronounced. In the afternoon, a clear peak in pede strian traffic is observed at 2:45, which is when
the majority of children are let out of school. How ever, vehicle traffic is largely constant throughout
this period. The lack of a spike in vehicular traffi c is likely due to some parents using the intersect ion
well before school lets out and then parking until they see their child. Others will park before the
intersection and walk to the school to pick up thei r child or not drive at all, thereby avoiding the
intersection. Inclement weather may increase the nu mber of parents driving to pick up their child,
which could create a spike around 2:40*2:45.
FIGURE 7: NUMBER OF VEHICLES AND PEDESTRIANS UTILIZ ING THE JACKSON/SAGAMORE
INTERSECTION EVERY FIVE MINUTES DURING THE MORNING DROP/OFF PERIOD

9

FIGURE 8: NUMBER OF VEHICLES AND PEDESTRIANS UTILIZ
ING THE JACKSON/SAGAMORE
INTERSECTION EVERY FIVE MINUTES DURING THE AFTERNOO N PICK/UP PERIOD

3 . 0 S A F E T Y A N A L Y S I S
3 . 1 | H I S T O R I C A L C R A S H D A T A
The Adirondack/Glens Falls Transportation
Council obtained three years of reported crash
data from October 2010 to September 2013,
illustrated in Figure 9. Note that the symbol at
the Sagamore/Sanford intersection represents
two crashes: one vehicle/vehicle collision and
one vehicle/bicycle collision. One collision
occurred at all other symbols.
Figure 9 only includes crashes that were
reported to and recorded by the Glens Falls
Police Department. As such, minor collisions
not reported to the police or collisions
involving small dollar amounts may not be
represented.
3 . 2 | A N E C D O T A L C R A S H E S
While no records were available regarding minor collisions, stakeholders noted that a
large number of crashes have occurred on
Jackson Avenue near the school. These are likely low speed collisions associated with vehicles
arriving or departing the school, so damage would be minor. However, the existence of these
collisions shows that congestion is a problem in th e area and that some parents are not paying
FIGURE 9: COLLISION LOCATIONS

Final Report Adirondack / Glens Falls Transportation Council
Jackson Heights Elementary School Transportation study

10 October 3, 2014

adequate attention to their surroundings as they enter or exit the school. This situation is particularly
dangerous in the presence of young children who may be less observant of traffic. Even at low
speeds, a vehicle collision with a child could cause significant injuries.
4 . 0 C O N G E S T I O N M I T I G A T I O N S T R A T E G I E S
The primary issues that have arisen out of the study are summarized below:
· Congestion during pick*up and drop*off cause to arg uments and fender benders
· Driver frustration is common and can lead to unsafe behaviors.
· Vehicles entering and exiting the school area may c onflict with the children also occupying
that space.
· Congestion and queuing seem excessive for the amount of traffic present in the study area
· Congestion during peak times leaves inadequate space for emergency vehicles to park and
maneuver in front of the school.
The following sections discuss potential strategies that may be employed to address these issues.
4 . 1 | O N E / W A Y J A C K S O N A V E N U E
The Jackson Heights Parent Teacher Association (PTA ) requested that this study consider a one*way
Jackson Avenue. This realignment has a number of adva ntages:
· Simplifies driving on Jackson Avenue and turning movem ents at the intersection
· Prevents vehicles from attempting to turn around on J ackson Avenue
· Unused travel lane can be used for pick*up and drop* off
· Reduces the number of children crossing the Jackson Avenue
· Emergency vehicles will have an easier time navigating the street
It is suggested that Jackson Avenue be made one*way
westbound from Mauro Street to the intersection wit h
Sagamore Street. Cars will drive on the same side of the street
as the school making drop*off and pick*up easier. I f there is
inadequate space for arriving vehicles, they will spi ll back into
Mauro Street rather than the Jackson*Sagamore inter section.
Any proposed changes to the circulation along Jacks on Avenue
should be reviewed and approved by the appropriate em ergency
response personnel.
SHORT/TERM
A one*way Jackson Avenue can be created by placing a temporary barrier such as the one shown in
Figure 10 at the entrance to the eastbound lane of Jackson Avenue. It should be placed such that
drivers exiting Jackson Avenue will see pedestrians w alking in the crosswalk. A Do Not Enter sign
should be placed in front of the barrier to instruc t drivers not enter there. Additionally, a sign telling
drivers to enter at Mauro Street would be useful. Id eally, parents should be notified of this change
before the start of the school year to minimize con fusion when school opens. This barrier should be
FIGURE 10: COLLAPSIBLE
TEMPORARY BARRIER

11

removed at the end of the drop*off and pick*up perio
ds to allow two*way traffic on Jackson Avenue
at off*peak times.
With Jackson Avenue operating as one*way, the southe rn side of the street could be designated for
through traffic while the northern side serves as a drop*off and pick*up point for parents. This lane
use will enable through traffic to avoid the school traffic, but it will only be effective if school traffic
leaves after dropping off or picking up a child. Par ents remaining parked until their child enters the
school will prevent the queue of school traffic from advancing and defeat the purpose of the two
lanes. Lane separation may be accomplished with con es.
LONG/TERM
Setting up and breaking down the signage required for a one*way Jackson Avenue everyday may
become too burdensome for school staff, and a perma nent one*way Jackson Avenue could be
implemented. Simple “Do Not Enter” LED signs may be activated during peak periods, or a more
permanent restriping of the roadway with curb bulb outs at the exit onto Sagamore Street may be
appropriate. This change could have effects beyond s chool operations and an engineering study
would be required to determine costs and benefits a ssociated with making Jackson Avenue one*way.
4 . 2 | S H O R T E N C R O S S I N G D I S T A N C E S A T J A C K S O N A N D S A G A M O R E
SHORT/TERM
A barrier at the entrance to Jackson will allow pedestrians to cross half of Jackson Avenue before
they are in conflict with vehicles, which will reduc e crossing times at the most utilized crosswalk of
the intersection. Shortened crossing times in conju nction with modified crossing guard procedures
that allow non*conflicting traffic to proceed (see below) will significantly reduce congestion at the
Sagamore*Jackson intersection.
The north crossing on Sagamore Street is the longes t at the intersections and is heavily utilized
during pick*up. Shortening that crossing distance i s also desirable, but the offset intersection
provides no short*term mean
for doing so. Any attempt to
square off the intersection by
reducing the radius of the
northeast corner would likely
restrict vehicles turning
westbound*right out of
Jackson Avenue.
LONG/TERM
Bulb*outs on the northeast
and northwest corners of the
intersection would significantly
reduce the crossing distance,
illustrated in Figure 11. The
FIGURE 11: LONG/TERM CROSSING DISTANCE
REDUCTION

Final Report Adirondack / Glens Falls Transportation Council
Jackson Heights Elementary School Transportation study

12 October 3, 2014

northeast corner currently consists of a wide turn that causes the two longest crossing distances at
the intersection. Extending the sidewalk into the i ntersections also allows parents and children to
congregate on the corner without blocking sidewalk traffic. Finally, this layout reduces the amount of
lane width available to vehicles, which will have a tr affic calming effect. However, this layout will also
likely restrict commercial truck and fire truck man euverability to turn in some directions and an
engineering study will be required to determine the most appropriate design.
Combined with a permanent one*way circulation of Ja ckson Avenue, a bulb out on the southeast
corner of the intersection could further reduce the crossing distance.
4 . 3 | M O D I F Y C R O S S I N G G U A R D P R O C E D U R E S
The current procedure of stopping all traffic when a pedestrian comes to a crosswalk would provide
maximum safety to the pedestrian if drivers consiste ntly followed the crossing guard’s directions.
However, there is potential for unforeseen vehicle*pe destrian conflicts when a driver fails to yield to
the crossing guard. It also creates extra delay for vehicles and contributes to driver frustration. An
alternative method of crossing pedestrians that woul d help alleviate some congestion without
compromising pedestrian safety is outlined below.
Typically, at a four*way stop controlled intersection, drivers will take turns proceeding
through the intersection based on the order of
arrival. Pedestrians could be crossed in a way
that minimizes conflict with vehicle procession
order. For example, if a northbound through
movement is about to proceed through the
intersection, the guard could choose to cross
pedestrians on Jackson Avenue (north*south)
but hold pedestrians on Sagamore Street (east*
west). Alternatively, the guard could choose to stop all traffic if she feels that is warranted in
particular situation.
When crossing pedestrians along a single leg, the g uard should stand in the middle of the crosswalk
with her “STOP” paddle raised when pedestrians are crossing. This will provide an additional visual
clue to drivers that pedestrians are present. Standi ng on the crosswalk that is currently being utilized
will allow other movements to proceed normally. Pede strians should only cross when directed to do
so by the crossing guard. The guard will need to mo ve around the intersection at times to be in the
correct place as pedestrians approach.
An important additional step will be to reeducate s tudents and parents to pay attention to the
crossing guard’s directions. Currently, pedestrians do not need to wait when they approach the
intersection. They will need to learn to watch the guard and wait for a signal to cross. It may be best
to start this new option at the beginning of the sc hool year so that reeducation is not attempting to
overcome any ingrained habits. The school should sen d a letter to parents alerting them of this
change in the summer and again close to the start o f the school year.
FIGURE 12: CROSSING GUARD IN CROSSWALK

13

Further details about crossing procedures may be fo
und in the Safe Routes to School “Crossing
Guard Guidelines” and the AAA “School Safety Patrol Operations Manual” in the Appendix.
4 . 4 | R E D U C E P A R E N T S P A R K I N G O N J A C K S O N A V E N U E A T P E A K T I M E S
Much of the congestion along Jackson Avenue results from parents remaining parked until their child
enters the school building. The school policy of no t being responsible for the students until they are
inside while allowing parents to drop off their chi ldren before the school is open creates a
responsibility for parents to remain in view of thei r children and therefore parked until 8:20. There
are two approaches to addressing this issue: provide more parking by either spreading the staging
area out or by building an off*site lot, or changin g the school policy to receive the children as they
arrive prior to 8:20.
SPREAD OUT THE STAGING AREAS
Currently, two grades utilize entrance C to the bui lding, and three grades utilize entrance A, leaving
an unused entrance at B. It is suggested that Secon d Grade stage may use this entrance, spreading out
the drop*off and pick*up staging areas along Sagamo re Street, which has been noted as having excess
capacity.
DESIGNATE A SUPERVISED STAGING AREA FOR BEFORE SCHO OL OPENS
If the school could modify the policy on student arrival and accept children prior to the school day,
parents would not need to remain parked. Children c ould enter the school at their current entrances
and proceed to the back recess area, or wait inside during inclement weather events in the cafeteria or
gymnasium.
In the long*term, the school could build a new park ing lot on the northern edge of the property and
use this as new drop*off area. Illustrated in Figur e 13, children would exit the vehicle in the eastern
circular turn around and drop off area. The area to the east this new circulating lot could be fenced
off, which would provide children with a safe, enclo sed area to run and play before school started.

FIGURE 13: NEW PARKING AND DROP OFF AREA NORTH OF THE SCHOOL

Final Report Adirondack / Glens Falls Transportation Council
Jackson Heights Elementary School Transportation study

14 October 3, 2014

The proposed lot could also provide approximately 20 new parking spaces and provide truck access
to the rear of the school. Additional study would b e required to determine the exact dimension of the
new lot and how best to handle truck traffic.
COORDINATE SIGNING
Drop*off and pick*up locations should be clearly ma rked. Signs that disallow stopping or standing
should not be used in pick*up locations. Although s topping or standing can be interpreted as
different from dropping off or picking up, it is be st to be unambiguous with sign wording. A sign
directing vehicles to pull forwards should be instal led along Jackson Avenue to encourage drivers
pull as far forward as possible when dropping*off o r picking*up children.
4 . 5 | S N O W R E M O V A L A N D S T O R A G E P O L I C E S
Snow on Jackson Avenue shoulders reduces capacity an d can block emergency vehicle access. The
school should work with the City department respons ible for plowing to prioritize Jackson Avenue
roadway and sidewalk plowing during the school year and ensure that the street if fully cleared of
snow prior to school. Snow can be stored in the spa ces on the corner of Jackson Avenue and Mauro
Street.
4 . 6 | E X P A N D A C T I V E T R A N S P O R T A T I O N T O / F R O M S C H O O L
Increasing the number of students that utilize active transportation such as walking or biking as their
primary transportation method to school will decrea se the number of vehicles accessing the campus,
thereby reducing congestion and queuing. Additional benefits to active commuting include:
· Increased levels of physical activity,
· Improved alertness,
· Heightened self*image and independence,
· Contribution to healthy social and emotional develop ment, and
· Increased likelihood of future active lifestyles.
As witnessed during the site visit, Jackson Heights already has a significant number of students and
parents that walk to school. To increase the mode s hare of active transportation, the following
actions are recommended:
· Close any remaining sidewalk gaps, particularly alo ng Mauro Avenue.
· Develop a Safe Route to School plan to ensure that s afe pedestrian routes exist and are
maintained. Share the plan with parents to encourag e them to use safe routes.
· Educate parents on the health, lifestyle, and educa tional benefits of biking and walking to
school; encourage students to walk or bike to schoo l on their own.
· Educate parents on the reality of safety risks on w alking or biking to school, and compare to
the generally higher risk of driving.
· Conduct a second “Bike Rodeo” earlier in the school year to give fourth graders a refresher
on bicycle safety, and provide additional opportunit ies for third graders to bike to school.
· Encourage the formation of “walking school busses” where a group of students walk
together. Walking school busses increase student sa fety while reducing the amount of time
required by parents. See the appendix for additiona l information on walking school busses.

15

4 . 7 | E N C O U R A G E C A R P O O L I N G
Carpooling will reduce the number of vehicles access
ing the campus and reduce the time required of
parents. The school should try to connect parents i nterested in carpooling who live close to each
other. Implementing a staging area for before schoo l starts will also allow parents of children in
different grades to share carpooling duties.
4 . 8 | S U R V E Y P A R E N T S ’ R E S I S T A N C E T O A C T I V E T R A N S P O R T A T I O N A N D
C A R P O O L I N G
The Glens Falls School District and Adirondack / Gl ens Falls Transportation Council conducted
studies at Abraham Wing Elementary School and Big C ross Elementary School in 2006 and 2008 to
understand barriers to active transportation modes. A survey of parents’ attitudes will help the school
respond directly to parents’ concerns and stimulate conversation between parents.

Final Report Adirondack / Glens Falls Transportation Council
Jackson Heights Elementary School Transportation study

16 October 3, 2014

5 . 0 I M P L E M E N T A T I O N M A T R I X
The implementation task schedule for the proposed mitigation strategies follows below:
5 . 1 | S H O R T / T E R M I M P R O V E M E N T S
Proposal Description and Responsible Party (RP) App roximate Cost
One*Way Jackson Avenue Set up temporary barrier and signage at the
entrance to Jackson Avenue
RP: School District $2,000 for
equipment; daily staff
maintenance
Shorten Crossing Distances Use the temporary barrie
r
RP: School District, Grossing Guard Accomplished with
one*way Jackson Ave

Modify Crossing Guard
Procedures Minimize the conflict between vehicles and
crossing pedestrians
RP: School District, Grossing Guard, Glens
Falls Police Department Police Department
training
Coordinate Signing Update signing to have unified me
ssage
RP: School District, DPW $200 / sign,
total of $2,000
Spread Out Morning
Staging Area
Line up second graders at entrance C
RP: School District Minimal; notice to
parents
Designate Supervised
Staging Area
Allow students to wait in gym, cafeteria, or
classroom rather than outside in the morning
RP: School District, PTA Varies depending on
available staff
resources and
contracts
Snow Removal and Storage Designate a snow storage ar ea and completely
plow Jackson Avenue
RP: DPW, School District None additional;
snow removal
currently occurs
Expand Active
Transportation Develop Safe Routes to Schools Plan, Form
walking school busses
RP: School District, PTA Minimal; educational
/ promotional
materials
Encourage Carpooling Develop a portal to connect par
ents
interested in carpooling
RP: School District, PTA, DPW Minimal; educational
/ promotional
materials

17

5 . 2 | L O N G / T E R M I M P R O V E M E N T S
Proposal Description and Responsible Party (RP) App
roximate Cost
One*Way Jackson Avenue
and / or Shorten Crossing
Distances Perform engineering study, neck down
Jackson Avenue exit with bulb*outs
RP: DPW $60,000 – 75,000
Designate Supervised
Staging Area / North
Parking Lot
Install a new parking area north of school,
fence off staging area
RP: DPW, School District, PTA $500,000 * $600,000
Expand Active
Transportation Develop Safe Routes to Schools Plan, Form
walking school busses
RP: School District, PTA Minimal; educational
/ promotional
materials
Encourage Carpooling Develop a portal to connect par
ents
interested in carpooling
RP: School District, PTA, DPW Minimal; educational
/ promotional
materials
Survey Parents Determine the resistances to active
transportation
RP: School District Varies depending on
complexity of survey;
school could
administer for
minimal funds

5 . 3 | R E C O M M E N D A T I O N S
Of the short*term proposals, all of them can be imp lemented immediately in the 2014 – 2015 school
year and will likely improve congestion and safety. Some of the proposals, such as temporary, one*
way closure of Jackson Avenue, may be best approache d as a short term pilot study with parental
feedback. Others, such as encouraging greater active transportation, conducting a bike rodeo earlier
in the school year, and moving the Second Grade entr ance, can be implemented immediately.
The long*term proposals are also all valid recommend ations. The behavioral surveys and
programmatic modifications to encourage greater wal king and biking should be pursued given their
relatively low initial cost. The bulb*outs and reduc ed crossing distance at the Jackson*Sagamore
intersection will yield the greatest improvement in pedestrian safety and congestion mitigation. As
part of a comprehensive strategy to encourage walkin g and biking, it is recommended that the School
District and City of Glens Falls collaborate with t he A/GFTC to seek funding for the reduced
crossing widths at the Jackson*Sagamore intersectio n, perhaps in conjunction with new sidewalk
construction along Mauro Avenue.

A P P E N D I X A . S A F E R O U T E S T O S C H O O L : C R O S S I N G
G U A R D G U I D E L I N E S

Adult School
Crossing Guard Guidelines
Prepared by the National Center for Safe Routes to School and the Pedestrian and Bicycle Information Center, both part of the
University of North Carolina Highway Safety Research Center, with funding from the National Highway Traffic Safety Administration
Safe Routes
National Center for Safe Routes to School

Safely Crossing the Street � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � 1
Role of the Adult School Crossing Guard
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Elements of a Crossing Guard Program
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Identifying the Locations Where Adult School Crossing Guards are Needed
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Hiring and Training Adult School Crossing Guards
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Uniform and Equipment for Adult School Crossing Guards
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Funding the Adult School Crossing Guard Program
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Crossing Procedures for a Variety of Situations
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An Unsignalized Crosswalk
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A Signalized Crosswalk
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When Two or More Adult School Crossing Guards are Needed
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When an Emergency Situation Arises
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Resources
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Table of Contents

Safely Crossing the Street
Adult School Crossing Guard Guidelines v 1
Adult school crossing guards play an important role in
the lives of children who walk or bicycle to school � They
help children safely cross the street at key locations � They
also remind drivers of the presence of pedestrians � The
presence of adult crossing guards can lead to more parents
feeling comfortable about their children walking or bicy –
cling to school� While the primar y role of an adult school
crossing guard is to guide children safely across the street,
children also remain responsible for their own safety � In
this manner, a guard plays another key function–a role
model helping children develop the skills necessar y to
cross streets safely at all times�
The design and implementation of an adult school
crossing guard program is largely the decision of local
communities� Some federal guidance exists and there
are some state and local requirements pertaining to the
operation of guard programs, but these var y across the
countr y � State or local law enforcement, education or
transportation agencies can provide infor mation on
state and local requirements �
Ideally, the development of an adult school crossing
guard program should involve a communit y partnership
that includes the expertise of law enforcement agencies,
traf fic engineer ing or planning departments and school
systems� Working together with parents, this lead orga-
nization or group identifies the locations where adult
school crossing guards are needed and the appropr iate
number of guards for each location � The group estab-
lishes crossing procedures for a variety of traffic situa –
tions as well as hires, trains and equips the guards and
secures long-term funding for the program �
This document describes federal standards and recom –
mendations for adult school crossing guard practices and
provides examples of how some states and communities
address these issues �
The presence of adult crossing
guards can lead to more
parents feeling comfortable
about their children walking
or bicycling to school.

Adult School Crossing Guard Guidelines v 2
The Role of the Adult School Crossing Guard
The primar y responsibility of an adult school crossing
guard is to help children safely cross the street as they
walk or bicycle to and from school �
A well-trained adult school crossing guard can help to ac –
complish the following goals:
• Discourage children from behaving unsafely near
traffic, such as darting into the street without look –
ing or crossing against a traffic signal� A guard can
encourage safe behavior by all pedestrians at the
school crossing�
• Use existing gaps in traffic to help students cross
safely� When the natural traffic flow does not allow
enough time for children to safely cross a street, a
guard may need to create gaps by stopping traffic
temporarily � The guard stops traffic with hand sig-
nals or a STOP paddle, then verbally directs chil –
dren to cross the street� A guard is always the first
person in the street and the last person out of the
street�
• Alert motorists that pedestrians are in the process of
using the school crossing �
• Observe and report any incidents or conditions that
present a potential safety hazard to the school chil –
dren or the guard�
An adult school crossing guard should not direct traffic
unless specifically trained as a traffic control officer �
Wilmington, DE
Ad u lt S c h o o l C r o s s i n g G u a r d s a r e Eye s
on the Street for:
• Unsafe driver behaviors
• Unsafe pedestrian behaviors
• Unlawful parking
• Construction interfering with safe crossing
• Unsafe street conditions
• Damaged signs
• Poor visibility
• Suspicious activity
• Improper or lack of safety belt or bicycle hel-
met use

Adult School Crossing Guard Guidelines v 3
Elements of an Adult School Crossing
Guard Program
Bringing together the right members of the community
is the first step in creating a successful adult school cross –
ing guard program� The school administration, teachers,
local traffic engineers, law enforcement officers and par –
ents are among the partners that bring information and
expertise to the process and make the steps in setting up
an adult school crossing guard program an easier process
to manage � A local committee consisting of this group
along with other interested members of the community
should be established to oversee an adult school crossing
guard program �
The adult school crossing guard lead organization is re –
sponsible for:
• identifying locations where guards are needed, the
number of guards and proper signage for each loca –
tion, and the time period for crossings;
• hiring and training guards in their responsibilities;
• providing uniforms and equipment to help guards
effectively perform their duties; and
• securing funds to manage the program.
Brichta Elementary School, Tucson, AZ
MUTCD Provides National Guidance
The Manual on Uniform Traffic Control Devices
2003 (MUTCD) contains national standards for the
installation and maintenance of traffic control de-
vices and is published by the Federal Highway Ad-
ministration under the Code of Federal Regulation.
Some MUTCD statements are considered manda-
tory, while others are recommended practices, per-
missive practices, or simply statements of support.
Part 7 of the MUTCD addresses Traffic Controls for
School Areas (See Resources)

Adult School Crossing Guard Guidelines v 4
Identifying the Locations Where Adult School Crossing Guards are Needed
No absolute national criteria exist for identifying which street crossings in a community require an adult school
crossing guard. The Manual on Uniform Traffic Control Devices (MUTCD) provides some general federal guidance
on how to determine the need for a guard at a particular location � Some states and local governments provide fur-
ther guidance or recommendations, but the conditions under which a guard is assigned to a particular location var y
around the countr y � The local lead organization decides the selection criteria by which adult school crossing guards
are assigned to crossings � Location decisions reflect relevant federal, state and local policies and funding issues, and are
tailored to the individual conditions and needs of a community �
T he loca l lead org a n i z at ion ident i fie s locat ion s for g u a rd s
by establishing criteria and gathering information to help
them determine the need� Adult school crossing guards
shou ld be a ssig ned to school crossi ng s on ly a f ter the need
is established� Consistently applied local cr iter ia al low a
community to provide guard service where schools need
them the most � No set of guidelines, however, can cover
all the unique conditions that may exist � There are times
when traffic engineering judgment is needed to deter –
m ine when and where an adult school crossing g uard
should be used �
Information to consider when identifying guard placement
includes:
The age of the students who are crossing.
General ly, younger children need more assistance than older
children because they have a more difficult time judging
the speed and distance of approaching vehicles and may be
tempted to cross during an unsafe gap �
The width of the street and the number of lanes of
traffic students must cross.
Wide streets with multiple lanes of traffic typically require
the use of two or more adult school crossing guards �
The sight distance at the crossing.
These conditions are measured from the student’s and driv –
er’s perspectives and for actual vehicle operating speeds� Sight distance can be affected by temporar y obstructions,
such as parked vehicles and piled snow near the crossing�
Safe gaps in traffic.
Are the gaps long enough and frequent enough to allow safe crossing opportunities? The ITE “School Trip Safet y
Program Guidelines” (See Resources) states that on the average, at least one adequate gap should occur each minute
to allow for children to cross without undue delay or risk � However, other factors, such as volume of child pedestri-
ans or pedestrian groups should also be considered when determining the need for adult school crossing guards or
Defining “A Safe Gap in Traffic”
The MUTCD 2003 Section 7E.02 states that adult
school crossing guards “may be used to provide
gaps in traffic at a school crossing where an engi-
neering study has shown that adequate gaps need
to be created and where authorized by law.” An
acceptable gap may be defined as the minimum
time between vehicles that 85 percent of all groups
of pedestrians waiting to cross a street will accept
as adequate to cross the street, according to the
Institute of Transportation Engineer’s “School Trip
Safety Program Guidelines.”
If there is at least one safe gap per minute of cross-
ing time, there may be no need for any special traf-
fic controls. If, however, there is not at least one
safe gap per minute, officials should consider using
an adult crossing guard or traffic signal to create
safe gaps.
In practice, this analysis is time-consuming to cal-
culate and may discourage agencies from attempt-
ing such an evaluation. Traffic speed, width of the
street and the age of the children are also important
considerations in determining if a crossing location
will benefit from an adult school crossing guard.

Adult School Crossing Guard Guidelines v 5
other traffic control� If traffic volumes during crossing hours do not correspond to enough safe gaps, some method
to interrupt traffic should be considered, such as a crossing guard or traffic signal �
Presence of traffic control devices, including traffic
signals, signs and pavement.
If present, are the traffic controls sufficient? For example, a
signalized intersection at a school crossing location should
h ave WA L K / D ON ’ T WA L K s i g n a l s , a n d a p e d e s t r i a n pu s h
button may also be appropriate � Guards and students should
be properly trained on traffic signals relative to safe street
crossings�
The speed of vehicles at the crossing.
Vehicles that travel faster require greater stopping distanc –
es, and younger children have more difficulty than adults
judging the speed of a fast-approaching vehicle �
Volumes of traffic and pedestrians.
Local transportation planning or engineering departments
can provide or help collect these data� Vehicle counts may
be readily available, but pedestrian counts will likely need
to be made during this process� The number of students
California Criteria for the Placement
of Adult School Crossing Guards
The State of California provides criteria for the place-
ment of adult school crossing guards in the MUTCD
2003, California Supplement. Adult school cross-
ing guards normally are assigned where at least 40
school pedestrians over the course of two hours each
day cross a public highway on the way to or from
school. Guards also should be considered when spe-
cial situations make it necessary to assist elementary
school pedestrians in crossing the street.
In some cases, a change in the school crossing loca-
tion is underway, but prevailing conditions require
crossing supervision until the change is completed,
so a guard should be considered. Additional criteria
are provided for specific situations, including un-
controlled crossings, stop sign-controlled crossings
and traffic signal-controlled crossings. The criteria
are based on vehicular traffic volume, vehicle speed
and the number of vehicular turning movements.
Arizona Requirements for the Placement
of Adult School Crossing Guards
Arizona State Law (ARS Section 28-797-D) man-
dates an adult school crossing guard at a yellow
15 mph school crosswalk if the school crosswalk
is not adjacent to the school site. These guards are
employed by the school district. Adult school cross-
ing guards are recommended, but not required, by
state law at 15 mph school zone crossings that are
adjacent to the school site. These guards may be
either employed by the school district or be vol-
unteers, who have been trained and approved by
the school district. (Traffic Safety for School Areas
Guidelines, ADOT)
The City of Phoenix requires adult school crossing
guards for elementary school crossings on busy col-
lector streets and arterial streets. In some cases, two
guards may be recommended. At white-painted
crosswalks and signalized crossings, guards can be
recommended using a method based on observa-
tion and engineering judgment using specific criteria
such as street classification and the age of students.
Pedestrian Signal Heads
Pedestrian signal heads provide information to con-
trol pedestrian traffic. Chapter 4E of the MUTCD
lists the meaning of pedestrian signal indicators.
A steady WALK (walking person) signal means
that a pedestrian facing the signal may start to
cross the street. A flashing DON’T WALK (upraised
hand) signal means that a pedestrian shall not start
to cross the street, but that any pedestrian who
has started to cross shall finish crossing. A steady
DON’T WALK (upraised hand) signal means that a
pedestrian shall not enter the street.

Adult School Crossing Guard Guidelines v 6
currently using pedestrian facilities as well as the projected pedestrian demand based on school demographics should
be determined�
The attendance boundary and walk zone for each school.
The distances that walk zones extend from schools as well as policies regarding the provision of bus service differ
among states and communities � Both can impact the number of children walking to school and the routes they take �
The distance the crossing is from a school and the type of adjacent land use.
A crossing in close prox im it y to a school w ithin a residentia l neighborhood may attract more student pedestr ians than,
for example, a crossing located further from a school surrounded by non-residential land uses �
Crash history of the crossing.
The number, type and time of day that each crash occurs at a specific location should be recorded and analyzed �
Hiring and Training Adult School Crossing Guards
The hiring, training, supervising and funding of adult
school crossing guards is typically the responsibility of lo-
cal law enforcement agencies, traffic engineering depart –
ments, individual schools or school districts�
An adult school crossing guard can be a paid employee or
a volunteer member of the community� Paid employees
may be preferred because an employer has the ability to
train, evaluate and discipline an employee � Ever y prospec-
t ive g u a r d s hou ld u nd e r g o a b a s ic phy s ic a l e x a m i n a t ion a nd
cr im inal background check � A guard should have good vi-
sion, hearing and mobility, be able to stand for long periods
of time outdoors and to communicate well with others �
It is critical that a guard can communicate clearly with
the children he or she supervises at the crossing� If a guard
cannot adequately read or understand English, training
materials must be provided in a language in which the
guard is proficient� Ideally, a guard should have good Eng-
lish language skills �

Adu lt school crossi ng g ua rd t r a i n i ng is a n essent ia l step to
help insure that the guard is performing properly � Train-
ing should be extended to substitute guards as well as
those who supervise the crossing guards � Training meth-
ods include both classroom instruction and field exercises
and should address:
• The basic traffic laws of the community.
• School zone signage and pavement markings.
Training in Florida
The State of Florida’s Department of Transportation
has developed uniform training guidelines, and each
local government in Florida that administers a school
crossing guard program is required to provide training
for its guards according to the guidelines. For more
information visit http://www.dot.state.fl.us /safety /
ped_bike /brochures /pdf/SCG%20Training%20
Guidelines2009.pdf
Training in North Carolina
According to the office of the North Carolina At-
to r n ey G e n e ral, s ch o o l cro s sing guards may b e co n-
sidered traffic control officers when proper train-
ing is provided as specified in North Carolina GS
20-114.1, the law that addresses the training and
appointment of traffic control officers. In 1998,
The Nor th Carolina Depar tment of Transpor tation’s
Division of Bicycle and Pedestrian Transportation
developed a program to train the local law enforce-
ment officers who are responsible for training adult
school crossing guards in their jurisdictions.

Adult School Crossing Guard Guidelines v 7
• Proper use and purpose of traffic signs and signals.
• Methods of signaling drivers and taking advantage of traffic gaps.
• Crossing procedures and ways to teach them to children.
• Site-specific traffic factors and potential traffic hazards.
• Professional work responsibilities, including agency rules and regulations, who the guard’s supervisor is, the
proper chain of command and legal aspects of the job �
• Proper attire and behavior to remain safe and to project a positive public image. For example, while on the job, a
guard should not wear clothing that is in poor taste or that promotes alcohol, tobacco or similar products � Also,
a guard should not carr y or use tobacco products or use foul language� Adult school crossing guards project a
positive public image and serve as a role model for children. (For more information see Uniforms and Equip-
ment)
• Proper use of safety equipment.
• The safety issues and limitations of children as pedestrians.
• Procedures for crashes involving adult school crossing guards and children on their way to or from school.
• Emergency procedures. (For specific information see When an emergency situation arises under Crossing pro-
cedures)
• Protecting the health and welfare of the guard while working, including topics such as proper attire to increase vis-
ibility, the need for hydration, sun protection, bee sting treatment and how to respond to threats from loose dogs �
Uniforms and Equipment for Adult
School Crossing Guards
An adult school crossing guard wears a uniform and uses
equipment that is highly visible and easily identifiable by
the general public� This enhanced visibility allows motor-
ists and pedestrians to see the guard and the signal the
guard presents more clearly �
The Manual on Uniform Traffic Control Devices
(MUTCD) recommends that an adult school crossing
guard be uniformed so that street users and pedestrians can
recognize the guard and respond to the guards’ signals � The
guard uniform should be distinctively different from those
worn by regular law enforcement officers � Adult school
crossing guards should wear retro-reflective traffic vests �
The MUTCD provides guidelines for such high-visibility
retro-reflective safety apparel to be worn by guards �
The MUTCD recommends that a guard use a STOP pad-
dle as the primary hand-signaling device � States and local governments address hand-signaling devices in a variety of
ways � Some jurisdictions require the use of a STOP paddle, others recommend its use, and yet others recommend its use
in conjunction with hand-signals. If a STOP paddle is used, the MUTCD sets guidelines on the shape, size and design
National Stop Paddle Requirements
The MUTCD only recommends the use of a STOP
paddle. If a paddle is used, the following standard
applies.
The MUTCD states: “The STOP paddle shall be an
octagonal shape. The background of the STOP
face shall be red with at least 150 mm (6 in) capi-
tal white letters and border. The paddle shall be
at least 450 mm (18 in) in size and have the word
message STOP on both sides. The paddle shall
be retro-reflectorized or illuminated when used
during hours of darkness.” Finally, the MUTCD
provides options for modifications to the STOP
paddle, including the addition of flashing lights,
to improve its visibility.

Adult School Crossing Guard Guidelines v 8
of the paddle�Other potential pieces of guard equipment
include gloves, a hat and a whistle � Wearing a hat gives a
guard a more official appearance and can enhance his or
her visibility, as well as protect the guard from the sun,
cold, and rain� Whistles may help a guard gain the atten-
tion of children at noisy intersections �
If a guard is equipped with two-way radios or cell phones,
they must be used only in emergencies � A guard should
never answer the phone or radio while crossing children �
In fact, some agencies prohibit cell phones to avoid dis-
tractions�
As the local committee identifies what type of equipment
to use, it should also decide on guidelines that will explain
when equipment is considered unsuitable for use� For exam-
ple, a guard should not use old, defaced or worn out STOP
paddles or safety vests that are no longer reflective or that
have faded �
Funding the Adult School Crossing
Guard Program
Stable and sufficient funding is important to the effective
operation of any adult school crossing guard program �
Across the nation, a variety of sources have been used�
Communities have obtained financial resources through
taxes, local school boards, sheriff, police, public works and
traffic engineering departments, and through surcharges
on parking fines� Public and private organizations as well
as Parent-Teacher Associations or Organizations also have
contributed funding for guard programs �
Estes Hills Elementary School, Chapel Hill, NC
Photo by Paul Kendall
State Variations on Stop Paddle
Requirements and Uniforms
The MUTCD 2003 California Supplement requires
the STOP paddle to be the primary hand-signaling
device and allows for the use of a larger paddle
where speeds are 30 mph or more and guards
need greater visibility.
The State of Florida requires an adult school cross-
ing guard to wear a high-visibility, retroreflective
outer garment (vest, shirt, or rainwear) that is la-
beled as ANSI 107-2004 standard performance
for Class 2 risk exposure. The apparel background
material shall be either fluorescent yellow green or
fluorescent orange-red. A guard shall be equipped
with a whistle, as well as a STOP Paddle that is
MUTCD compliant and /or orange or yellow-green
gloves that include retroreflective material. (If both
gloves and stop paddle are used, the gloves need
not include retroreflective material.)
The State of North Carolina strongly recommends
the use of hand-held signs or STOP paddles, but al-
lows the local governing agency to decide whether
a guard uses either a STOP paddle or an orange-
gloved hand, or both.

Adult School Crossing Guard Guidelines v 9
Crossing Procedures for a Variety of Situations
Recommended procedures are described below for an adult school crossing guard to follow when crossing chil-
dren in a variety of traffic situations� The information was compiled from the Arizona Handbook for Adult School
Crossing Guards, the Florida School Crossing Guard Training Guidelines and the North Carolina School Crossing
Guard Program: Training Manual (See Resources at end of this document for further information.)
Procedures are described for guards in situations at un –
signalized crosswalks and signalized crosswalks, when
two or more adult school crossing guards are needed, and
when an emergency arises � Some intersection configura-
tions, including T-intersections, roundabouts or free-flow
right turn lanes, require that the local committee consider
these unique situations when establishing the procedure
for crossing children �
In ever y situation, a guard uses the proper search pattern
for crossing a street and encourages student pedestrians to
follow these safety steps � This pattern is:
1� Stop at the curb or edge of the street �
2� Look left, right, then left again for traffic�
3� Look over the shoulder for possible turning vehicles if the pedestrian is standing at an intersection �
4� Walk directly across the street at a consistent pace and continue scanning the street while crossing the street �
For stopping motorists, the MUTCD recommends that an adult school crossing guard use a STOP paddle as the pri-
mar y hand-signaling device � However, many jurisdictions around the countr y allow guards to use clearly delivered
hand signals, alone or in conjunction with the STOP paddle, to alert traffic to activity at school crossings � The proper
hand signal for a guard to alert and stop traffic requires a guard to raise his or her arm forward and toward traffic,
and parallel to the ground with the palm and fingers flexed upward� The use of hand signals requires a higher level
of training than the use of STOP paddles, and guards using hand signals will benefit from wearing white or bright
orange gloves to attract drivers’ attention�
State Street School, Windsor, V T

Adult School Crossing Guard Guidelines v 10
An Unsignalized Crosswalk
At unsignalized crosswalks, it is the responsibility of the
crossing guard to determine when children cross based on
gaps in traffic flow� A guard who is assigned to an unsig-
nalized crosswalk on an undivided street should:
• Stand near the curb or edge of the street, on the side
from which children are approaching�
• Stop children a safe distance back from the curb or
edge of the street, or behind a “stand-back” line (see
bottom photo). Instruct children to cross only on the
guard’s signal �
• Teach children who approach a crossing on a bicycle,
scooter, or skateboard to dismount and push the bi –
cycle or scooter or carr y the skateboard across the
street as a pedestrian �
• A guard enters the street in the following sequence:
1� Wait for a gap in traffic on the guard’s side of the
street�
2� Face the closest oncoming traffic and make eye
contact with the approaching drivers�
3� Walk to the center of street with the STOP pad-
dle held high� If not using a STOP paddle, walk
to the center of the street with an arm raised to –
ward traffic and parallel to the ground with the
palm and fingers extended upward�
4� Where there are more than two lanes, enter the
street and alert the traffic one lane at a time �
5� Face opposite approaching traffic and make eye contact with those drivers�
6� Stand on the crosswalk line close to the center of the street and make sure that all traffic has stopped, including
any turning vehicles�
7� Face the intersection�
8� Verbally instruct the children to cross and tell them to look left-right-left while crossing and proceed across
the street within the marked crosswalk�
9. Do not allow any cars to cross the crosswalk until all the students have crossed.
10� Remain in the center of the street until the last child reaches the opposite side of the street�
11� Walk to the curb or edge of the street with the STOP paddle and/or stop-arm held high the entire way � When
back at the curb or edge of the street, lower hand(s) and allow traffic to flow again.
12� Remain near the curb or edge of the street for the next group of children to assemble �
Photo by Dan Burden

Adult School Crossing Guard Guidelines v 11
A Signalized Crosswalk
A variety of traffic and pedestrian signals are found at
signalized crosswalks including traffic signals with stan-
dard pedestrian signal heads and, in some locations, traf –
fic signals with pedestrian countdown signals which show
pedestrians how much crossing time remains � Signalized
crosswalks may also have pedestrian pushbuttons which
are electronic buttons used by pedestrians to change the
traffic signal timing� An adult school crossing guard should
be trained in the proper use of the signal at the crossing
where he or she will work �
In general, a guard stands in the center of the street while
students cross the crosswalk � If the signal’s timing is too
short to allow this approach, however, the local committee
should take steps to remedy the situation � For example, more guards could be assigned to the crosswalk, more time
could be added to the signal or the guard could escort the students across the entire street and return to his or her
original starting position on the next signal cycle � If a guard escorts students across the entire street, the guard must
instruct the other children to wait until he or she returns before crossing �
A guard who is assigned to signalized crosswalks has this sequence to follow:
• Stand on the side of the street from which children are approaching. If there is a pedestrian push button, push
the button for a WALK signal �
• Group children a safe distance from the curb or edge of the street or behind the “stand-back” line. Instruct
children to cross only at the guard’s signal �
• Teach children who approach a crossing on a bicycle, scooter, or skateboard to dismount and push the bicycle or
scooter or carr y the skateboard across the street as a pedestrian �
• Enter the street in this sequence:
1� Enter the street only with a WALK signal, and the STOP paddle or stop-arm held high� Stand on the crosswalk
line closest to the intersection�
2� Face oncoming traffic and make eye contact with drivers who are attempting to turn�
3. Verbally instruct the students to begin their search (left, right, left and over their shoulders, for turning traffic)
and cross when safe �
4. Tell the students to continue walking if the signal changes to flashing “DON’T WALK”, but do not allow chil-
dren to start crossing at this time. Help students learn that a flashing “DON’T WALK” signal means Don’t Start.
5� Wait for children to reach the opposite side of the street�
6� Return to the curb or edge of the street with your STOP paddle or stop-arm held high� After reaching the
curb or edge of the street, a guard can lower his or her hand(s) and allow traffic to flow again.

Adult School Crossing Guard Guidelines v 12
When Two or More Adult School
Crossing Guards are Needed
For signalized or unsignalized crossings with four or
more lanes, experts recommend using two adult school
crossing guards working in unison, with one guard posi –
t ione d on e a ch s id e of t he st re et� E a ch g u a rd st a nd s on t he
crosswalk line closest to the approaching traf fic for his or
her half of the street and between the approaching traffic
and the students �
A team of two or more guards should be assigned to school
crossings at divided streets to help children cross safely �
One guard stops one stream of traffic while the other guard
stops traffic in the opposite lanes� In order to coordinate
signaling, the guard on the side of the street from which
children are approaching makes the decisions, with the
second guard taking his or her cues from the first guard �
Guards should not cross students during the protected left
turn signal when the DON’T WALK signal flashes and
ensure that all right-turning vehicles yield while students
are crossing �
More than two guards may also be needed at an intersec –
tion of two major arterial streets where children must cross
two or more legs of the intersection �
Photo by Dan Burden
Red octagons represent adult school crossing guard loca-
tion on a multi-lane road.

Adult School Crossing Guard Guidelines v 13
When an Emergency Situation Arises
During a guard’s duty, emergency situations, such as a sudden illness or an injur y due to a crash, may occur near the
school crossing � In the case of an emergency, a guard must stay at his or her post, keep control of the situation, and
use the following basic procedure to ensure the children’s safety:
1� Stop crossing the children �
2� Group the children away from the street to maintain
control �
3� Remain at the assigned post with the children �
4� Ask several people to call 911 �
5. Do not move the victim, unless the victim is in seri-
ous and immediate danger of being struck by another
vehicle�
6 � Use a vehicle to block the crash victim from traf-
fic, if necessar y � The vehicle should be positioned a
distance away from the victim to provide protection
from other vehicles but, if struck would not endanger
the victim or rescue workers �
7� Always notify the supervisor as soon as possible of any emergency that occurred �
When fire trucks, ambulances or other emergency vehicles approach the crossing with emergency lights and sirens in
use, the guard keeps children out of the street and a safe distance away from the crossing until the emergency vehicles
have passed�
Ideally, a guard should take a first aid short course and a CPR class offered by the Red Cross or the local Fire Depart-
ment to learn the best way to respond to an emergency situation �

Adult School Crossing Guard Guidelines v 14
Resources
• AAA video for sale Between the Lines: Adult School Crossing Guard Training. http://www.aaafoundation.org/
products/index.cfm?button=item-detail&ID =404&storeid=1 [Accessed: 08/14/06]
• Arizona Handbook for Adult School Crossing Guards, City of Phoenix (1-602-262-4659) and A A A Arizona
(602-241-2933 or 1-800-352-5382 ext. 2933).
• Florida School Crossing Guard Training Guidelines, Florida Department of Transportation, Safety Office and
the Florida School Crossing Guard Task Force, 1998 � http://www�dot �state �fl �us/safety/ped_bike/brochures/
pdf/SCG %20Training%20Guidelines2009.pdf [Accessed: 09/21/09]
• Manual on Uniform Traffic Control Devices for Streets and Highways, Part 7 Traffic Controls for School Areas,
U.S. Department of Transportation, Federal Highway Administration, 2003. http://mutcd.f hwa.dot.gov/pdfs/
2003r1/Ch7.pdf [Accessed: 03/07/06]
• Manual on Uniform Traffic Control Devices 2003: California Supplement, State of California Business, Trans-
portation and Housing Agency, Department of Transportation, 2004. http://www.dot.ca.gov/hq/traffops/sign-
tech/mutcdsupp/pdf/MUTCD2003CASupp.pdf [Accessed: 03/07/06]
• North Carolina School Crossing Guard Program: Training Manual, North Carolina Department of Transporta-
tion, Division of Bicycle and Pedestrian Transportation, 1999.
• School Trip Safety Program Guidelines: Recommended Practice, Institute of Transportation Engineers, 1984.
(out of print)
• Traffic Safety for School Areas Guidelines, Arizona Department of Transportation, 2003. http://www.azdot.gov/
highways/Traffic/standards/School_ Safety/Schoolsafety.pdf [Accessed 03/07/06]
Prepared by the National Center for Safe Routes to School and the Pedestrian and Bicycle Information Center, both part of the
University of North Carolina Highway Safety Research Center, with funding from the National Highway Traffic Safety Administration
Information provided by
Florida Department of Transportation, North Carolina Department of Transportation,
Arizona Department of Transportation, Cit y of Phoenix Street Transportation Department
SafeRoutes
National Center for Safe Routes to School

Final Report Adirondack / Glens Falls Transportation Council
Jackson Heights Elementary School Transportation study

A P P E N D I X B . A M E R I C A N A U T O M O B I L E A S S O C I A T I O N :
S C H O O L S A F E T Y P A T R O L O P E R A T I O N S M A N U A L

AAA SCHOOL SAFETY PATROL
OPERATIONS
MANUAL

SCHOOL SAFETY PATROL OPERATIONS MANUAL
1
Message from AAA . . . . . . . . . . . . . . . . . . . .2
Overview
Role of the Safety Patrol . . . . . . . . . . . . .3
History . . . . . . . . . . . . . . . . . . . . . . . . . .4
Benefits . . . . . . . . . . . . . . . . . . . . . . . . .5
Forming Your Patrol
Partnerships
AAA role . . . . . . . . . . . . . . . . . . . . . . .6
School role . . . . . . . . . . . . . . . . . . . . .6
Parent Teacher Association role . . . . .6
Law Enforcement role . . . . . . . . . . . . .6
Community role . . . . . . . . . . . . . . . . .6
Concerns
Safety of Patrols . . . . . . . . . . . . . . . . .7
“Stranger Danger” . . . . . . . . . . . . . . . .8
Securing Official School Authorization . . .9
Limiting Liability . . . . . . . . . . . . . . . . . . .9
Organization, Training and Operation
Selecting the Patrol Supervisor . . . . . . .10
Selecting Patrol Members . . . . . . . . . . .11
Selection of Intersections . . . . . . . . . . .12
Parental Permission . . . . . . . . . . . . . . .12
Training . . . . . . . . . . . . . . . . . . . . . .13-14
Installation . . . . . . . . . . . . . . . . . . . . . .15
Officer Selection . . . . . . . . . . . . . . . . . .16
Officer Duties . . . . . . . . . . . . . . . . . . . .16
Length of Service . . . . . . . . . . . . . . . . .17
Equipment . . . . . . . . . . . . . . . . . . . . . .18
Equipment Care . . . . . . . . . . . . . . . . . .18
Daily Operations . . . . . . . . . . . . . . . . . .19Mechanics of the Street Patrol . . . . .19
Determining the Gap . . . . . . . . . . . . .20
Record Keeping . . . . . . . . . . . . . . . . . .20
Meetings
Procedures . . . . . . . . . . . . . . . . . . . .21
Agenda . . . . . . . . . . . . . . . . . . . . . . .21
Minutes . . . . . . . . . . . . . . . . . . . . . .22
Supervision . . . . . . . . . . . . . . . . . . .22
On Patrol
Role of Patrol
at Signalized Intersections . . .23
Bus Loading and Unloading . . . . . . . . .23
On the Bus . . . . . . . . . . . . . . . . . . . . . .24
Car Pools . . . . . . . . . . . . . . . . . . . . . . .24
Reporting Dangerous Practices . . . . . . .25
Role of Police . . . . . . . . . . . . . . . . . . . .25
Role of Adult Crossing Guards . . . . . . .26
Supporting Your Patrol Program
School Support . . . . . . . . . . . . . . . . . . .27
Fundraising . . . . . . . . . . . . . . . . . . . . . .27
Discipline . . . . . . . . . . . . . . . . . . . . . . .28
Morale Building . . . . . . . . . . . . . . . . . . .29
Recognition Programs . . . . . . . . . . . . . .30
Lifesaving Award Medal . . . . . . . . . .30
National Patroller of the Year . . . . . .31
Related Programs and Resources
School’s Open Drive Safely . . . . . . . . . .32
Best Route to School . . . . . . . . . . . . . .32
Resources . . . . . . . . . . . . . . . . . . . . . .33
Top Tips . . . . . . . . . . . . . . . . . . . . . . . .34
Table of Contents

SCHOOL SAFETY PATROL OPERATIONS MANUAL
2
Proud AAA tradition
AAA School Safety Patrols play an important role in helping young pedestrians learn and
fulfill responsibilities regarding traffic safety.
Millions of U.S. boys and girls have honorably served their classmates since the AAA
School Safety Patrol program was started in the early 1920s. Interest in the program has
spread around the world. At least 30 other countries, including New Zealand, the
Netherlands, England, Germany and France, have emulated the AAA School Safety Patrol
program. The experience is the same — a reduction in traffic death rates.
Boys and girls who contribute their time as AAA School Safety Patrols deserve special thanks
for their efforts. AAA recognizes the AAA School Safety Patrol program as an outstanding
school safety activity. We commend school personnel who administer the programs and law
enforcement officials who contribute to the success of programs in their communities.
For more than 75 years, AAA clubs have proudly sponsored, promoted and aided AAA
School Safety Patrol programs as a community service in the interest of safety for all
schoolchildren. AAA clubs have been the leading non-school civic agencies active in patrol
work in most communities. During its long and distinguished history, the AAA School
Safety Patrol program has provided a safer pedestrian environment and a wide spectrum
of educational opportunities for millions of children. AAA has provided the means for the
patrol to succeed.
This manual will serve as a resource to community organizations, school administrators
and supervisors who are coordinating AAA School Safety Patrol programs. The policies
and practices presented in this manual are the result of the combined efforts of several
national educational, law enforcement and safety organizations. It represents the
cumulative experience of AAA School Safety Patrol operations in every corner of the
United States.
Consistent, uniform operating procedures across the country are essential for the motorist
and pedestrian to know what to expect. For this reason, uniform AAA School Safety Patrol
identification and operating procedures are highly recommended.
Robert L. Darbelnet,
AAA President and CEO
Foreword

SCHOOL SAFETY PATROL OPERATIONS MANUAL
3
Role of the School Safety Patrol
AAA School Safety Patrols are school-sponsored student volunteers from upper elementary,
middle, and junior high schools.
Patrols direct children, not traffic. As school-age leaders in traffic safety, patrol members
teach other students about traffic safety on a peer-to-peer basis. They also serve as role
models for younger children who look up to them.
School Safety Patrol members:
• Complete training in traffic safety
• Protect students from the hazards of crossing roads and highways on their
way to and from school
• Assist bus drivers in safely transporting students to and from school
• Teach fellow students about traffic safety.
• Serve other leadership functions under the direction of school officials
Typically, teachers and principals appoint Patrol members, who participate with parental
approval. A teacher usually serves as patrol supervisor.
Overview

SCHOOL SAFETY PATROL OPERATIONS MANUAL
4
History
As members of AAA School Safety Patrols, students have protected their classmates
since 1916.
In the 1930s, three national organizations: the American Automobile Association, the
National Congress of Parents and Teachers, and the National Safety Council —
collaborated on Standard Rules for the Operation of School Boy Patrols. These guidelines
have been updated over the years to become the operating standards for AAA School
Safety Patrols.
Today, more than 50,000 schools sponsor patrols, protecting pedestrians and school bus
riders in all 50 states.
School safety patrol members have grown up to be U.S. presidents, governors, members
of Congress, Supreme Court justices, astronauts, and Olympic medalists, as well as
educators, executives, and community leaders throughout the country.
As the value of the program has gained recognition, two national awards have been
introduced. Lifesaving Awards debuted in 1945. The Patroller of the Year award was first
bestowed in 2002. For more information, please refer to pages 30-31.
Overview

SCHOOL SAFETY PATROL OPERATIONS MANUAL
5
Benefits
AAA School Safety Patrols benefit students, schools, and communities.
Students gain:
• Safety awareness
• Leadership
• Teamwork
• Pride
• Citizenship
• Respect for law enforcement
Schools benefit from opportunities to promote:
• Traffic safety awareness
• Peer-to-peer education
• Character-building opportunities
• A constructive outlet for students’ energy
• A positive relationship with parents, law enforcement, and the
overall community
Communities benefit from:
• Safer environments for pedestrians and motorists
• A spirit of volunteerism and civic-mindedness
• A positive collaboration between students, parents, schools, and
law enforcement
Overview

SCHOOL SAFETY PATROL OPERATIONS MANUAL
6
Partnerships
The most effective patrol programs come from a strong partnership between AAA,
schools, Parent Teacher Associations, law enforcement, and the community.
The role of AAA:
• Sponsorship
• Traffic Safety Education and awareness presentations
• Public outreach and recognition
• Source for resources, such as equipment
• Source of patrol guidelines
The role of the school:
• Supervisors are responsible for implementation of school safety patrols in
elementary schools within their school system.
• Principals appoint teachers to serve as patrol supervisors
• Area patrol supervisors meet to exchange best practices
The role of the Parent Teacher Association (where applicable):
• Support of the school’s patrol program, including recognition programs
• Sponsors equipment and training
• Liaison between the school and the community
The role of law enforcement:
• Advisor to the program
• Advocate on behalf of the patrol to motorists and the community
• Contribute to training and development of patrols
The role of the community:
• Civic organizations may provide recognition and community awareness
programs
• These organizations could include
– Police auxiliary
– Women’s clubs
– School booster clubs
– American Legion posts
– Other safety or civic groups
Forming Your Patrol

SCHOOL SAFETY PATROL OPERATIONS MANUAL
7
Concerns
Safety of Patrols
The safety of Patrols should be achieved through training on traffic safety, operation, and the
responsibilities of each post; dedicated adult supervision; and regular inspections help protect
safety patrols.
To remain safe on duty, patrol members must remain at their assigned posts and always
properly display their belts and badges.
Patrollers are trained to seek adult help in the following examples of specific traffic situations:
• Parked cars blocking the view of an intersection
• Parked cars blocking school bus stop or student loading or unloading zone
• Failure of motorists to obey traffic control device
• Suspicious activity by adult or older students
• Vehicles turning at T-intersections
• Wrong-way traffic on one-way streets
• Emergencies and injuries
• Electrical wires down near the patrol post
• Domestic or wild animal threats
• Student fights
• Emergency vehicle response near the post.
• Any situation beyond the realm of the daily operation of duties at a
patrol post
Forming Your Patrol

SCHOOL SAFETY PATROL OPERATIONS MANUAL
8
Concerns (continued)
“Stranger Danger”
Patrol members are trained to report problems with strangers to the patrol supervisor,
teachers, parents, and/or law enforcement. These “Stranger Danger” precautions are part
of patrol training:
Patrol members should be trained to never:
• Approach cars or allow other students to approach unknown motorists
• Accept candy or presents from strangers
• Help strangers with directions or search for a lost pet
• Allow their photos to be taken
• Divulge their name, address, phone number, or other family information
Patrol members are trained to seek immediate help if:
• They encounter someone who appears to be under the influence of drugs
or alcohol
• They become suspicious of the behavior of older students or adults
• They are followed
Patrol members learn that if they are grabbed by a stranger, they should make as much
noise as possible.
Forming Your Patrol

SCHOOL SAFETY PATROL OPERATIONS MANUAL
9
Securing Official School Authorization
Before school principals institute the AAA School Safety Patrol program, they must obtain
approval from the school superintendent or school board.
The approval process will vary according to community and school system requirements. In
some cases, principals may seek support for the program from community organizations.
Although most superintendents are familiar with patrols in general, they may not
understand the details of operation.
To gain support in the community and in the school system, a principal introducing a patrol
should be prepared to:
• Identify community needs
• Present the patrol’s objectives
• Explain operational requirements
• Outline available resources that will support the program
Limiting Liability
• Create a statement of purpose that outlines the objectives of a school safety patrol program
• Grant authority to principals or supervisors of safety education or transportation to
maintain safety patrols and establish rules and regulations for their supervision
• Limit the age group from which patrols may be selected and determine any exclusions
from participation, such as health concerns
• Extend the same protection to the school safety patrol, supervisors, and those involved
in the program that applies to other student volunteer programs
• Provide guidelines to ensure consistency between patrol programs so students benefit
equally from participation
• Each school should develop a policy regarding times when school safety patrollers
should not be on post due to inclement weather
Forming Your Patrol

SCHOOL SAFETY PATROL OPERATIONS MANUAL
10
Selecting the Patrol Supervisor
The School Safety Patrol Supervisor is a responsible adult, typically a teacher, appointed
by the school principal to oversee the patrol. More than any other individual, the School
Safety Patrol Supervisor determines the success of the program.
The ideal supervisor demonstrates:
• A strong belief in the value of the program
• Knowledge of traffic safety
• Leadership
• Organizational skills
• People skills, including the ability to share praise and constructive criticism
• Ability to inspire confidence and respect
• Dependability
• Ability to establish rapport with students, school leaders, the community,
and law enforcement
Supervisor duties include:
• Serving as the source of information on all aspects of the program
• Selecting patrol members and assigning duties
• Training all patrol members, including officers
• Supervising all patrol operations
• Conducting training sessions, reviews, and administrative meetings
• Advising all adult sponsoring committees on the patrol’s activities
Organization, Training and Operation
Determining Patrol Size
Schools should work with the traffic engineering agency in their area to make the proper
determinations regarding the number of patrols that should be assigned at various
intersections. A traffic specialist can provide traffic data, conduct traffic studies, evaluate
information about the school and help to implement safety procedures for students
walking to and from school. The analysis can be used to plan school safety patrol posts
where they can operate satsifactorily, keeping in mind the age and developmental nature
of Patrol membership. Busy crossings require more than one Patrol member. Occasionally
it will be found best NOT to use the same crossing place to-school pupil traffic as is used
for from-school traffic, because of changes in traffic volumes and direction at different
times of day.

SCHOOL SAFETY PATROL OPERATIONS MANUAL
11
Selecting Patrol Members
AAA encourages the formation of a patrol force that is just large enough to fulfill the needs
of the school. Coordination is much easier with a smaller group. After determining the
optimum size of the patrol a school needs, choose members based on demonstrated:
• Leadership
• Maturity
• Reliability
• Ability to follow rules
• Punctuality
• Health (or ability to perform duties)
• Interest in traffic safety
• Sound judgment
• Good attendance record
• Courtesy
• Respect for classmates and others
• Desire to help others
Select reserve patrol members to ensure trained patrol members are available at all times.
Organization, Training and Operation

SCHOOL SAFETY PATROL OPERATIONS MANUAL
12
Selection of Intersections
In selecting intersections for posts, gather recommendations from:
• School personnel
• Law enforcement
• Bus drivers
• Area businesses
• PTA officials
Review coverage annually. New roads or subdivisions and changes in bus or walking
patterns may change patrol needs.
Assign patrol posts based on:
• Intersections near the school
• The side of the street from which students approach
• Traffic direction and density
• Nearness of the post to patrol member’s home
Parental Permission
Students must have permission from parents or guardians to participate in the patrol program.
When they understand the educational value, service, and character-building aspects of
the program, most parents are proud to give their permission for participation.
AAA can provide a special consent form which explains the aims, objectives, and
operation of the AAA School Safety Patrol. This standard form also contains the
membership application and pledge taken by patrol members.
Organization, Training and Operation

SCHOOL SAFETY PATROL OPERATIONS MANUAL
13
Training
Thorough training is an absolute requirement. Training may take place in school or special
summer camps.
Trainers can be the Patrol Supervisor, a AAA representative, or a law enforcement officer.
When possible, train new patrol members for the upcoming year before the end of the
prior year. Schedule refresher training for both new and veteran members should be
provided before the school year begins.
Information to cover in your training:
• Fundamentals of traffic safety
• Duties of each patrol post
• Identifying sufficient gaps in traffic to allow safe crossing
• Special hazards
• Dealing with pedestrians
• School bus safety procedures
• Safety procedures on school grounds
• Maintaining records (for officers)
School training may be conducted as:
• Classes
• On-the-job personal direction
• Written guidelines and oral or written quizzes
• Joint clinics held in cooperation with other schools and involving new and
veteran members
• Viewing of training videos from the local AAA club or AAA Foundation for
Traffic Safety followed by discussion
• Diagramming a duty corner and highlighting hazards and a patrol plan for
the specific crossing
• School bus drills
Training methods can be used individually or in combination.
Because officers take on more responsibility and have more complex duties, most schools
provide additional training for incoming officers.
Some communities schedule a Patrol Member Training Camp over summer vacation. This
camp may be open to all patrol members or officers.
Organization, Training and Operation

SCHOOL SAFETY PATROL OPERATIONS MANUAL
14
Training (continued)
Camps are ideally scheduled just before school reopens so the training is fresh in the
minds of patrol members on the first day of school.
Camps combine traffic safety education with fun activities. Classes may be taught by law
enforcement, safety experts, and representatives from your local AAA club. Veteran patrol
members also may lead discussion sessions or conduct role-playing exercises.
Most camps end with an exam and “graduation” ceremony in which successful trainees
receive certificates, pins, and a training camp T-shirt.
Civic organizations and PTAs may cover fees for training camps.
Organization, Training and Operation

SCHOOL SAFETY PATROL OPERATIONS MANUAL
15
Installation
A formal installation ceremony instills pride and reinforces the importance of your patrol’s
service to the school and community.
Many schools make the installation part of a school assembly or PTA meeting. Some
schools broadcast their installation ceremony on educational or public Television. Your
school district’s information officer may help you promote your ceremony.
Consider inviting the mayor, city official, school officer, a representative from law enforcement
or AAA. Your visiting dignitary may be invited to lead the pledge and present badges.
Reciting the AAA School Safety Patrol Pledge (see appendix), or creating your own
school-specific pledge, is an easy but powerful way to create a spirit of shared
responsibility and teamwork.
AAA can provide a safety patrol ID card (see appendix) that includes the standard pledge.
These cards can be presented at installation, along with badges, belts and other equipment.
Organization, Training and Operation

SCHOOL SAFETY PATROL OPERATIONS MANUAL
16
Officer Selection
The Patrol Supervisor selects officers. The supervisor may do this individually or by
supervising an election by patrol members. Officers generally serve for one semester.
Typically, a patrol has a captain, lieutenant, and a sergeant. The size of the patrol unit
determines the number of officers needed. Patrol officers take on additional responsibility
and help lead activities. Officers also must be trained to substitute for any post. One of the
lieutenants becomes acting captain when the captain is not available for duty.
Encourage officers to rely upon respect and cooperation, rather than authority. Specific
officer duties are outlined later in the manual.
Officer Duties
Captains are responsible for:
• Preparing reports for the Patrol Supervisor
• Proposing the agenda for patrol meetings
• Assigning posts
• Monitoring patrol performance
• Presenting safety talks to younger classes
• Enforcing all patrol rules
• Ensuring patrol members maintain and wear belts and badges
• Arranging for substitutes as needed
• Maintaining the Captain’s Record Book
Lieutenants are responsible for:
• Acting for the captain, as assigned
• Assisting the captain in checking posts and buses
• Contributing to operational reports
• Filling in for absent patrol members
The Sergeant is responsible for:
• Acting as unit secretary
• Maintaining the patrol bulletin board
• Inventorying equipment and recommending repairs, replacements,
and acquisitions
Organization, Training and Operation

SCHOOL SAFETY PATROL OPERATIONS MANUAL
17
Length of Service
AAA recommends that schools appoint a set number of patrols to serve all year with a
selection of alternates to fill in when regular members are absent. Assign only the
necessary number of patrols to a single post.
Being a school safety patrol should be considered “special”. Do not make everyone in the
class a patrol. This dilutes the special feeling of being selected a patrol and seriously
limits resources.
Organization, Training and Operation

SCHOOL SAFETY PATROL OPERATIONS MANUAL
18
Equipment
The two identifying pieces of equipment for safety patrol members are:
• Official patrol belts
• Badges pinned to the shoulder strap of the belt at chest level
Schools also may provide additional equipment, such as ponchos, caps, and flags.
Assigned equipment should be documented. Officers must maintain a roster with each
patrol member’s name and a notation of equipment provided to them.
Please contact your local AAA club for specific ordering information.
Equipment: Care
Each patrol member must wear a belt and badge when on duty. Assign a sergeant to see
that patrol members are accountable for the care of equipment assigned to them. It is the
sergeant’s responsibility to keep a daily record of the condition of this school property.
Equipment includes:
• Belts • Flags • Ponchos
• Badges • Caps
The sergeant responsible for equipment works with the captain and patrol sponsor to
order replacement equipment. Equipment which is lost or misplaced must be replaced.
Worn out equipment should be destroyed.
Encourage students to refer to the Patrol Member Handbook for proper wear and care of
Patrol equipment.
Organization, Training and Operation
Note: AAA has studied roadside visibility issues and is researching ways to
improve existing equipment to increase the visibility of AAA School
Safety Patrols to approaching motorists.

SCHOOL SAFETY PATROL OPERATIONS MANUAL
19
Daily Operations
Schools should distribute the list of patrollers to staff and train patrol members to leave
their classes quietly and report to an assigned patrol assembly point.
The patrol captain or lieutenant:
• Takes attendance
• Ensures that all members are wearing their belts and badges
• Verifies that all posts are covered.
• Reminds patrol members to walk quietly and carefully to their posts
Mechanics of the Street Patrol
“Mechanics” are defined as the process, moves, and maneuvers of a patroller on duty.
The basic mechanics are:
• Arrive at your post early
• Determine how to judge a safe gap for your posted position
• Take a position at least one step back from the curb (or edge of the
street), arms down at a 45 degree angle, palms facing back
• Check all directions for traffic
• Keep students a safe distance from traffic
• Keep arms and palms positioned to hold all students from traffic until there
is a safe gap
• Never allow students to walk in front of a car that stops to allow them to cross
• Step aside and motion students across the street
• Continue to monitor traffic, when the safe gap ends, cut the flow of students
A patrol member should only step into the street far enough to see around an obstruction.
Organization, Training and Operation

SCHOOL SAFETY PATROL OPERATIONS MANUAL
20
Determining the Gap
The first important duty of patrol members is to determine a safe gap in traffic. The patrol
captain or supervisor will assist patrol members in determining when there is a break in
traffic that will allow students to safely cross the street.
To determine a safe gap, patrol members judge:
• Speed of vehicles
• Traffic volume
• Road and weather conditions
• Number of lanes of traffic
• Time required for small children to cross the street
To establish a safe gap:
• Walk across the street at normal speed when there is no traffic
• Count the seconds to cross safely and add five seconds to allow for
students who start across later than the lead student
• Pick a fixed point – such as a mailbox or signpost – about 1000 feet from
the student crossing point
• When a vehicle passes this point, count the seconds until the vehicle
reaches the crossing
Patrol members must pay attention to parked cars that may enter traffic, and vehicles that
may come from driveways or alleys.
To determine gaps at intersections with signals:
• On average, it takes 10 seconds for a child to cross
• If the signal remains green for 30 seconds, count 20 seconds, then stop
students from crossing until the next green light
Record Keeping
AAA provides two resources that help captains standardize recordkeeping: the Captain’s
Record Book and the Monthly Patrol Record Form.
The Captain maintains the Captain’s Record Book. Patrol records should cover:
• Daily attendance
• Number of times a patrol member is late
• Number of times a patrol member fails to wear proper equipment
Organization, Training and Operation

SCHOOL SAFETY PATROL OPERATIONS MANUAL
21
Meetings
Procedures
Schedule meetings twice a month. At least once a month, the school safety officer should
attend. It also may be appropriate to invite the principal, police, adult crossing guards and
bus drivers.
When conducting a meeting, follow parliamentary procedure, which is a set of widely
accepted rules that give meetings structure and order. Procedure books such as the
popular, Robert’s Rules of Ordercan be found in local public libraries.
The Patrol Captain presides at all meetings. The Lieutenant presides in the Captain’s
absence.
Patrol members wear belts and badges to meetings.
Agenda
Patrol officers should plan an agenda focused on both old and new patrol business.
Below is a sample agenda, incorporating parliamentary procedure:
• Call to order
• Pledge of Allegiance
• Roll call and inspection
• Secretary reads minutes of previous meeting
• Captain corrects or approves minutes
• Old business from previous meeting completed
• New business discussed
• Contributions from guests
• Training
• Captain requests motion to adjourn
• Captain asks for motion to be seconded
• Captain states the motion and asks for “ayes” and “nays”
• Captain officially adjourns the meeting (and may announce time and date
of next meeting)
Organization, Training and Operation

SCHOOL SAFETY PATROL OPERATIONS MANUAL
22
Meetings(continued)
Minutes
The secretary records meetings in a consistent format. A completed set of minutes is
signed by the secretary and becomes part of the official record of the patrol.
Elements which must be in the minutes:
• School name
• Date and time of meeting
• Attendance
• Results of inspection
• Summary of old business
• Summary of new business
• Additional comments/contributions from guests
(such as police officers, principals)
• Additional information (for example, training or recognition)
• Time meeting was dismissed
The secretary signs meeting minutes before turning them in to the captain.
Supervision
Overall responsibility for the patrol rests with the Patrol Supervisor.
On a daily basis, the Captain assigns posts, enforces rules, arranges for substitutes, and
maintains discipline.
The Captain is assisted by Lieutenants and a Sergeant.
Organization, Training and Operation

SCHOOL SAFETY PATROL OPERATIONS MANUAL
23
Role of Patrol at Signalized Intersections
Only police officers or adult crossing guards can stop vehicles.Patrol members
have specific duties based on their posts.
Duties of patrol members:
• Stand on the sidewalk, at least one step back from the curb and midway
between crosswalk lines
• Watch traffic flow and children approaching
• At red lights, signal students not to enter the intersection by holding arms
down at 45-degree angle to the body
• At green lights, determine all approaching traffic has stopped before
allowing students to cross
• Check traffic in all directions for a suitable gap and then permit children
to cross
• Before the light changes back to red, return to the outstretched arms
position to prevent children from being caught in the middle of
the intersection
Bus Loading and Unloading
Bus stop patrol is an important duty. Students often arrive at bus stops early and may not
pay attention to traffic while waiting.
School officials should encourage students to arrive no earlier than 10 minutes before the bus
is scheduled to arrive. The school also should designate a waiting area away from the road.
The bus stop patrol:
• Keeps students out of the street and away from traffic
• Lines students up for boarding when the bus arrives
• Assists small students in boarding the bus
• Checks the bus stop to ensure no belongings are left behind
• If a school bus must be evacuated, safety patrols may assist bus drivers.
If a bus driver is incapacitated, the patrol may direct the evacuation.
On Patrol

SCHOOL SAFETY PATROL OPERATIONS MANUAL
24
On the Bus
Assign one to three patrol members to a bus. They remain seated when the bus is moving.
Front patrol members sit in the right front seat of the bus and:
• Disembark at all regular stops to assist students entering and leaving the bus
• Assist the driver in keeping objects out of the aisles
• Remind students to keep heads and arms inside the bus
• Reaffirm the track is clear at railroad crossings
Middle patrol members sit in the middle of the bus and:
• Monitor student noise and behavior
• Keep students seated and aisles clear
• Remind students to keep arms and heads inside the bus
• Assist loading and unloading
Rear patrol members sit near the back emergency door and:
• Check the bus for articles left behind by students
• Operate the rear emergency door in case of emergency
Carpools
Some schools place patrols at pick-up and drop-off spots in front of the school to
protect carpoolers.
Patrol members assigned to these positions:
• Help students enter and exit vehicles safely
• Assist small children and students whose arms are full
• Monitor students and keep them on the sidewalk until traffic has stopped
• Direct students to proceed in an orderly fashion from the parking lot to
the school
On Patrol
Note: Bus Patrol members are typically students from the first bus stops
in the morning and the last bus stops in the evening that provide
assistance to the bus driver for the entire route.

SCHOOL SAFETY PATROL OPERATIONS MANUAL
25
Reporting Dangerous Practices
Part of the pledge school patrollers take is a promise to “report dangerous student
practices.” Just what are those practices? A dangerous practice endangers students.
When a patrol member observes a dangerous practice they should:
• Politely explain the risk to the offender (if it is another student)
• Seek an adult if the behavior continues
• Only touch another student in an emergency
• Report dangerous situations to a patrol officer or Patrol Supervisor for
follow-up
If another patrol member is involved in a dangerous practice, this should be reported to
the Patrol Supervisor. Individual school system guidelines should be in place to handle
such disciplinary actions, including probation, suspension and dismissal.
Role of Police
In many communities, law enforcement officers work directly with patrols. They serve as
safety patrol coordinators who contribute to operations, training, and development.
Law enforcement can make an important contribution to the success of your patrol
program, including:
• Promoting motorist awareness of patrols
• Promoting community respect for patrols
• Contributing to patrol training
Only police officers and adult crossing guards can stop vehicles.
On Patrol

SCHOOL SAFETY PATROL OPERATIONS MANUAL
26
Role of Adult Crossing Guards
Adult crossing guards may be assigned to high-traffic areas. They can help create safe
gaps in traffic, control turning traffic, and assist large groups of children crossing busy
intersections. They are typically community employees supervised by law enforcement.
Adult crossing guards are typically assigned to:
• High-traffic streets with safe gaps more than a minute apart
• Signalized intersections where turning automobiles are a hazard
• Crossings near schools with a high volume of walking students
• Locations where 85 percent of the traffic speed exceeds the speed limit
• Areas of reduced visibility
• School districts with inadequate school route plans
• Locations beyond the capability of student patrols
Patrols can be deployed to assist an Adult Crossing Guard. This is particularly useful at
wide crossings or locations with heavy pedestrian volumes. The adult crossing guard and
the police will establish procedures consistent with guidelines for patrol deployment
described in this manual.
On Patrol

SCHOOL SAFETY PATROL OPERATIONS MANUAL
27
School Support
The more importance and visibility the school gives to the AAA School Safety Patrol, the
more the potential benefit. The program deserves recognition as:
• A safety measure
• A character-building program
• As a leadership development program
• Citizenship and volunteerism in action
• A real-world “lab” that teaches life skills such as teamwork, responsibility,
problem-solving, and effective communication
• Means to enhance rapport between students and authority figures (school
officers, law enforcement)
• A program that creates positive role models for younger students
• An opportunity for students to learn about traffic safety and the rules of
interfacing with traffic
Schools should encourage teachers to participate, involve the PTA and community groups,
and make the recognition of the contribution made by the AAA School Safety Patrol a priority.
Fundraising
Schools across the country have raised funds for their school safety patrols by:
• Hosting a movie for students and selling popcorn
• Holding a bake sale
• Contacting fundraising companies that provide sale items
• Creating buttons or stickers for a small cost
• Offering a gift-wrapping service at the holidays
• Car washes
• Collecting recyclables
• Setting up a compost heap “fed” by classrooms and the cafeteria each
day. Sell bags of fertilizer in the spring
• Obtaining plants or seedlings from the parks department and selling them
to the community
• Setting up a booth at a town street fair or similar community celebration
and providing face-painting or simple goods or services
• Holding a safety fair and inviting AAA, the Red Cross and other safety
organizations to participate
• Challenging students to a walk-a-thon, bike-a-thon (with helmets!) or
bowl-a-thon and asking sponsors to pledge contributions
Supporting Your Patrol Program

SCHOOL SAFETY PATROL OPERATIONS MANUAL
28
Discipline
Patrol members must understand there are serious consequences for breaking rules. Most
patrols maintain discipline with a merit/demerit system. Parents should be advised prior to
any disciplinary action.
Merit points are awarded for:
• Work in addition to regular duty
• Conducting safety talks to classes
• Making constructive suggestions
• Additional contributions to teamwork
Demerit points are awarded for:
• Attempting to direct traffic
• Leaving the sidewalk
• Allowing children to cross without ensuring the way is clear
• Leaving their post without permission
• Being tardy or absent without an acceptable reason
• Behavior unbecoming a patroller
• Arriving for duty without badge or belt
• Breaking safety rules
• Disobedience
By accumulating merit points, a patrol member may earn more important assignments.
Accumulating demerits may result in suspension or dismissal from the patrol.
Supporting Your Patrol Program

SCHOOL SAFETY PATROL OPERATIONS MANUAL
29
Morale Building
A key duty of the Patrol Supervisor is to maintain enthusiasm and commitment to the
program. Attention by the school and ownership by students keep morale high.
It is important for schools to recognize the educational value and service of the entire
school patrol.
Many schools recognize this service with certificates of appreciation, merit pins, and
thank-yous to the school patrol in school newsletters and Web sites.
Schools also may ask area businesses for small contributions, such as gift certificates or
coupons for patrol members. Examples of gifts may include inexpensive raincoats or
watches, or catering for a recognition luncheon or dinner.
Activities that may be introduced to build Safety Patrol pride and morale include:
• Reserving a section of the school newsletter or school web site for safety
patrol news
• Assigning a display or bulletin board to the patrol
• Writing personalized notes of appreciation to parents
• Introducing and thanking the patrol at assembly
• Involving the student council in recognition activities
• Creating a safety patrol honor guard
• Hosting an annual patrol luncheon or dinner
• Proclaiming AAA School Safety Patrol Day or Patrol Appreciation Day at a
local attraction
• Promoting a friendly sporting competition between neighboring patrols
• Establishing a special weekly play period for patrol members
• Offering refreshments such as hot chocolate or ice cream to patrol members
• Hosting special events such as pizza parties, movie outings, sporting
events, or end-of-year picnics
Supporting Your Patrol Program

SCHOOL SAFETY PATROL OPERATIONS MANUAL
30
Recognition Programs
AAA makes available award certificates and a pin that can be presented at school
assemblies or celebrations. Contact your local AAA Club for details.
Certificates of Meritare available for students who satisfactorily complete service as a
patrol member.
Service Pinin silver is available for outstanding service while a patrol member.
There are two national awards programs to recognize the efforts of AAA School Safety
Patrollers: The Lifesaving Award Medal and the National Patroller of the Year.
Lifesaving Award Medal
In 1949, AAA held the first Lifesaving Medal Awards to recognize those Safety Patrollers
who while on duty saved a life or prevented the injury of a fellow student. As we approach
2005, over 380 students have been presented with prestigious honor.
The Lifesaving Medal is awarded by an independent review board to a member of any
authorized School Safety Patrol when there is conclusive proof that:
1. The life of the person saved was in imminent danger;
2. The act was performed while the patrol member was on duty, going to or from
a duty post, or while on duty as a bus patrol member;
3. No negligence on the part of the patrol member caused or contributed to the
person rescued being in danger.
The AAA Lifesaving Medal has been presented by U.S. Presidents Ford, Johnson,
Kennedy and Eisenhower; Vice Presidents Mondale, Humphrey, Nixon and Barkley;
First Lady Mamie Eisenhower; justices of the U.S. Supreme Court; cabinet officials; and
other dignitaries.
Supporting Your Patrol Program

SCHOOL SAFETY PATROL OPERATIONS MANUAL
31
Recognition Programs (continued)
National Patroller of the Year
In 2002, AAA introduced the National Patroller of the Year Award to recognize the patroller
that best exemplifies leadership qualities and performs their duties effectively and
responsibly, without incident. The National Patroller of the Year is selected from the field of
Club Patrollers of the Year that our nominated by local AAA clubs.
School Safety Patrol advisers may nominate one current-year patrol member with the
following qualifications. The candidate must:
• Be enrolled in the highest participating grade level of the School Safety Patrol
• Demonstrate leadership qualities, safety skills, school involvement, and
citizenship/volunteerism
• Value the patrol experience
Contact your local AAA Club for details
Supporting Your Patrol Program

SCHOOL SAFETY PATROL OPERATIONS MANUAL
32
Resources
School’s Open Drive Safely
For more than 50 years, AAA has sponsored the School’s Open – Drive Safely campaign.
The goal of this awareness campaign is to reduce the number of traffic crashes involving
school-age pedestrians and school bus riders by reminding drivers to be extra-cautious.
Participating schools may obtain colorful posters for display and other “School’s Open”
items. Contact your local AAA Club for details.
Best Route to School
Safety experts at AAA have developed 10 rules that help parents and children determine the
Best Route to School. Use the following tips to aid AAA School Safety Patrols in the
promotion of safe walking practices to fellow students:
•Walk on sidewalks:Watch out for cars pulling into, and backing out of driveways
•Walk on the left facing traffic if there are no sidewalks:Staying to the left allows you to
watch oncoming traffic and get out of the way if necessary
•Cross only at corners:Avoid the dangerous practice of “jaywalking.” Cross at an
intersection controlled by a traffic light wherever possible
•Stop and look all ways before crossing:If there’s no traffic light, wait until oncoming
cars are at least a block away before crossing
•Watch For Turning Cars:Children sometimes forget to look and unintentionally walk into
the side of a turning vehicle
•Continue to look left, right and left again as you cross:It’s easy to miss an oncoming car
•Never cross between parked cars:It’s almost impossible for drivers to see youngsters
who enter the roadway from between parked cars
•Play away from traffic:Playgrounds, schoolyards and your own backyard are the safest
places to play
•Be especially alert in bad weather:Rain, snow, fog and even umbrellas can obstruct
vision. Also, drivers may be unable to stop quickly. Children should wear brightly
colored and retro-reflective clothing
•Obey police officers, adult crossing guards, AAA Safety Patrol members, and traffic
signals:These “safety guardians” can greatly enhance a child’s safety when going to
and from school
Related Programs and Resources

SCHOOL SAFETY PATROL OPERATIONS MANUAL
33
Resources (continued)
Check with your local AAA club for safety patrol equipment, materials, and awards to
support your AAA School Safety Patrol Program. Available materials may include:
Printed Materials, Guides and Forms
• Handbooks
• Brochures
• Manuals
• Captain’s Record Book
• Policies and Practices
Recognition Awards
• Certificates
• Patches
• Pins
Patrol Equipment
• Belts
• Badges
• Patrol Hats
• Ponchos
• Flags
Related Programs and Resources

SCHOOL SAFETY PATROL OPERATIONS MANUAL
34
Top Tips
• Solicit contributions and expertise from Parent Teacher Associations or Parent Teacher
Organizations, bus drivers, teachers, traffic and safety experts, and law enforcement
• Dedicate a section of the school newsletter or Web site to school safety patrol news
and highlight a patrol member each month
• Encourage communication between patrols by arranging get-togethers, such as shared
training or recognition events
• Reward patrol members with ice cream, hot chocolate, or a meal hosted by Parent
Teacher Associations or Parent Teacher Organizations
• Dedicate an exhibit case or bulletin board to school safety patrol information; including
a map with posts identified. Add a photo of the patrol member assigned to each post
• Write a thank-you note to the members of your school safety patrol and their parents
Related Programs and Resources

Quick Reference Checklist
❏Contact your local AAA Club
❏Develop partnerships with the School, AAA, PTA, Law
enforcement, and the community
❏Secure official school authorization
❏Establish policies and procedures
❏Select Patrol Supervisor
❏Select Patrol Members and obtain parental permission
❏Select posts and intersections for duty
❏Train Patrol Members on equipment care, procedures
and standards
❏Select officers
❏Assign duties and posts
❏School announcements
❏Installation of Patrol
How to begin a AAA School Safety Patrol
SCHOOL SAFETY PATROL OPERATIONS MANUAL
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Traffic Safety Programs

Regional Bicycle/Pedestrian Plan

REGIONAL BICYCLE/PEDESTRIAN PLAN
Adirondack/Glens Falls  Transportation Council
Adirondack/Glens
Falls  Transportation Council

July
2014
July
2014

TABLE OF CONTENTS

Introduction  ………………………………………………………………………………………..  1
Purpose  ………………………………………………………………………………………..  1
Benefits  of  Bicycle  and  Pedestrian  Facilities  ………………………………………  2
Bicycle  Improvements  ………………………………………………………………………….  3
Existing  Conditions  …………………………………………………………………………  3
Priority  Bicycle  Network  ………………………………………………………………….  4
Design  Standards ……………………………………………………………………………  8
Bicycle  Shoulder  Physical  Feasibility  Analysis  …………………………………..  13
Bicycle  Facility  Improvement  Process   …………………………………………….  15
Other  Bicycle  Improvements  ………………………………………………………….  18
Pedestrian  Improvements  …………………………………………………………………..  19
Pedestrian  Facilities:  Policies  and  Legislation  …………………………………..  19
Pedestrian  Design  Features  ……………………………………………………………  22
Pedestrian  Facilities  in  Suburban  and  Rural  Environments  ………………..  29
Pedestrian  Priority  Map  ………………………………………………………………..  30
Implementation  …………………………………………………………………………………  32
Partnerships  ………………………………………………………………………………..  32
Funding  ……………………………………………………………………………………….  33
References:
AASHTO.  (July  2004).  Guide  for the  Planning,  Design,  and  Operation  of Pedestrian  Facili ‐
ties.
Hughes,  H.  H.  (2001).  Evaluation  of  Automated  Pedestrian  Detection  at Signalized  Inter‐
sections.  Federal Highway  Administration.
NYSDOT.  (2013).  Highway  Design  Manual,  Chapter  18:  Pedestrian  Facility  Design.
United  States Access  Board.  (2011).  Accessibility  Guidelines  for  Pedestrian  Facilities  in  the
Public  Right‐of‐Way.  Authority:  29  U.S.C.  792  and 42  U.S.C.  12204.

Regional Bicycle/Pedestrian Plan
Regional
Bicycle/Pedestrian Plan

Adirondack/Glens
Falls Transportation Council |
Adirondack/Glens
Falls Transportation Council |
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INTRODUCTION
Purpose
The Adirondack/Glens  Falls  Transportation  Council  (A/GFTC)  has
prepared  this  Regional  Bicycle  &  Pedestrian  Plan  with  the  intent  to
provide  a  framework  for  future  improvements  which  will  result  in
a  more  comprehensive  network  of  bicycle  and  pedestrian  facilities
in  Warren,  Washington,  and  northern  Saratoga  Counties.
This  plan,  which  updates  the  Bicycle  and  Pedestrian  Plan  prepared
by  A/GFTC  in  2000,  has  be en

created  in  conjunction  with  a  process
which  takes  into  account  the  priorities  of  the  local  municipalities
and  stakeholders  in  the  A/GFTC  region.  This process  is  intended  to
strengthen  ties  so  that  partnerships  can  continue  in  the  future
implementation  of the  priority  projects.  The  plan  in cl
udes:
An inventory  of  existing  conditions  at  a  regional  scale
A review  of all  available  community  plans  and  priorities  for
each  municipality
Identification  of  priority  bicycle  network  connections  and
pedestrian  priority  areas
Guidance  to  select  appropriate  design features
Identification  of  local  policies  to  support  bicycle  and
pedestrian  activity
A plan  for  implementation
This  process  has  resulted  in  a  plan  which  identifies  feasible,  real ‐
world  actions  that  can  be  taken  to  improve  biking  and  walking
within  the  region.  By  coordinating  implementation  across  local,
county,  and  state  levels,  it is  hoped  that  the  plan  will  increase  the
efficiency  and  efficacy  of  improvements.

Regional Bicycle/Pedestrian Plan
Regional
Bicycle/Pedestrian Plan

Adirondack/Glens
Falls Transportation Council |
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Falls Transportation Council |
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Benefits of Bicycle and Pedestrian Facilities
Biking
and  walking,  whether  conducted  as  a mode  of
transportation  or  as  a recreational  activity, offer  a wide  variety  of
personal,  social,  and  environmental  benefits.  On  a  personal  level,
biking  and  walking  are not  only  ways  to  become  or  stay  physically
active,  but  also  affordable,  fun  transportation  methods  available  to
all  ages.  Socially,  these  ac ti
vities reduce  health  care  costs  and
vehicular  traffic,  can  provide  a healthy  activity  for  families  and
children,  and  can  provide  an  important  component  to  the  local
economy  in  terms  of tourism.  In  terms  of  the  environment,  biking
and  walking  can  be  an  effective  way  to  reduce  dependence  on  the
automobile,  and  subsequ ently re

duce  carbon  emissions.
With  all  these  benefits,  many  communities  are  demonstrating  a
strong  interest  in  strengthening  and  improving  bicycle  and
pedestrian  infrastructure,  on  both  a  local  and  regional  level.  Many
of  the  communities  within  the region  have  been  active  in  pursuing
ways  to  directly  and indirectly  im
prove  the  biki ng and  walking
experie

nce.  This has  included  innovative  partnerships,  physical
projects,  and  policies  that  encourage  improvements  to
infrastructure.  This plan  underscores  the  ongoing  commitment  to
encourage  pedestrian  and  bicycle  activity  for  the benefit  of
residents,  business owners,  and visitors  alike.

Regional Bicycle/Pedestrian Plan
Regional
Bicycle/Pedestrian Plan

Adirondack/Glens
Falls Transportation Council |
Adirondack/Glens
Falls Transportation Council |
3
3

BICYCLE IMPROVEMENTS
Existing Conditions
This
section  of  the  plan  is  intended  to guide  the  improvement  of
bicycle  facilities  and  the  future  designation  of  bicycle  routes.  This
effort  is  not  “starting  from  scratch”,  but  is rather  the continuation
of  many  years  of  work  by  several  agencies.  A/GFTC,  local  bike
groups,  and  individual  municipalities  have  been  active  in
encouraging  accommodati ons for

cyclists.  It is  therefore  important
to  take  stock  of  the  conditions  for  cyclists  as  they  stand  today.
The  A/GFTC  region  currently  is  home  to  a  growing  bicycle  network,
including:
Separated  right ‐of ‐way  trails:  The A/GFTC  area  has
approximately  17  miles  of  trails  which  accommodate  non‐
roadway  travel. The  most  extensive  network  consists  of  the
Warren  County  Bikeway  and  Feeder  Canal  Trails, which  link  the
City  of  Glens  Falls  to  the  Villages  of  Fort  Edward,  Hudson  Falls,
and  Lake  George,  and  the  Towns  of  Queensbury,  Fort  Edward,
and  Ki ngsbur

y.  In addition,  there  are almost  5  miles  of  trail
located  in the  Village  and  Town  of  Granville.  This trail  is
located  along the  D&H  rail  bed  and extends  into  Vermont.
Finally,  the  Betar  Byway  in  South  Glens  Falls  links  the
downtown  to  the  Town  Beach  and  other  destinat ions.
Designated  cycling  routes: There are  currently  about  100
miles  of  on ‐road  bicycle  routes,  located  on  State  highways  and
local  roads  throughout  the  area.  These  include  US  Route  9  in
Saratoga  County,  NY  Route  197  in the  Town  of Moreau,  US
Route  4  and  NYS  22  (both  are elements  of  NYS  Bicycle  Route
9),  as  well  as  local  roads  in  the  Towns  of  Que ensbury,
Lake
Luzerne  and  the  City  of  Gl

ens Falls.  It is  anticipated  that  this
network  of  on ‐road  bicycle  routes  will  continue  to  grow  as
local  communities  adopt  policies  in  support  of  the  A/GFTC
Bicycle  and  Pedestrian  Plan  and  NYS  Complete  Streets
legislation.
There  are also  other  bi cy
cl

e  route  networks  and  facilities
surrounding  the  region,  especially  in  Saratoga,  Essex,  and  Hamilton
Counties.  These  include  networks  such  as  the  Saratoga  County
Heritage  Trail  and  the  “Bike  the  Byways”  network. Creating  and
maintaining  strong  connections  to  these  neighboring  opportunities
is  a  key  aspect  of  this  plan .

Regional Bicycle/Pedestrian Plan
Regional
Bicycle/Pedestrian Plan

Adirondack/Glens
Falls Transportation Council |
Adirondack/Glens
Falls Transportation Council |
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Priority Bicycle Network
The
goal  of  this  plan  is  to  provide  a  framework  for  future
improvements  which  will  result  in  a  more  expansive  and
comprehensive  network of  bicycle  and  pedestrian  facilities  in  the
A/GFTC  region.  Most  of  these  facilities  are  likely  to  be  located
along  existing  roadways.  However,  it is  not  realistic  to assume  tha
t
every  roadway  will be  the  focus  of  bi cycl

e  improvement  projects,
especially  given  current  funding  limitations.
As  such,  an  important  component  of  this  plan  involved  setting
priorities  to  identify  which  roadways  represent  the  highest  priority
for  designation  as  bike  routes  and/or  capital  improvements.  To  set
realistic  and  feasible  actions for  this  pla n,
several  factors  were
considered,  i n

cluding  local  priorities,  the  needs  of  the  cycling
community,  and  transportation  connectivity.
Local Priority  Routes: Many  local  municipalities  have
addressed  the  need  for bicycle  facilities  in  planning
documents.  All  available  local planning  documents  were
reviewed  to  determine  the  stated  bicycle  transportation
priorities  in  each  municipality.  Map  1  illustrates  the  roads
specifically  mentioned  within  a municipal  plan  as  being
suitable  for  current  bike  use  or  desired  for  bike  use  in  th e

future.   This  an a

lysis  highlights  the  fact  that  not  every
community  has  stated  priorities  concerning  cycling.  Some
communities  have  identified  specific  on ‐ and  off‐road
alignments,  while  others  include  a  general  statement  of
support  for  bicycling  issues.  Still  others  make  no mention  of
cycling  at all;  however,  this should  not  infer  that  the
commu

nity  does  not  support  bicycle  infrastructure.  Nothing  in
this  plan  is  intended  to  prevent  local  municipalities  from
supporting  the  establishment  of  additional  bicycle  facilities,
nor  to obligate  communities  to  engage  in projects  in  the
future.
Bicycle  Advocate  Priority  Routes:  Maintaining  and  promoting
safe,  functional  bicycle  facilities  along  the  roads  most  used  by
cyclists  is  a  key  goal  of  this  plan.  To facilitate  this,  several
stakeholder  groups  within  the  region  were  asked  to  generate  a
list  of  cycling  routes  and  desired  connections,  including  the
Warren  County  Safe  &  Quality  Bicycling  Organization  and  the
Cambridge  V a
lley  Cycling  Club.  These  road

ways  represent  the
 Terminology
Terminology

This
plan  makes  frequent  reference  to  two
important  concepts  relating  to  bicycle
networks.  These  include:
Bike Routes: A  system  or  network  of
roads,  streets,  paths  or  ways  that  have
been  designated  by the  jurisdiction
having  authority  with  directional  and/
or  informational  signage  or  pavement
markings.  It  should  not  be implied  that
roadways  not  designated  as  bike
routes  cannot  or  should  not  be  used
by  cyclists.
Bike Facilities:  The physical  surface on
which  the  cyclists  ride.  These  may
include,  but  are not  limited  to,  multi‐
use  trails,  bike  lanes,  road shoulders,
or  vehicle  travel  lanes. A  description  of
the  different  types  of  bicycle  facilities
is  included  in  this  plan.  Bike  facilities
can  also  include  other features
designed  to  accommodate/encourage
cycling,  such  as  bike  parki

ng  facilities.

Regional Bicycle/Pedestrian Plan
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Bicycle/Pedestrian Plan

Adirondack/Glens
Falls Transportation Council |
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Falls Transportation Council |
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5

alignments
of  existing  bike  events,  important
connections  to  recreation  destinations,  and
roadways  which  are enjoyable  to ride  (see Map
1).  Although  recreational  riding  is not  the  focus  of
this  plan,  it  is  important  to  recognize  those  routes
which  are  favored  by  the  biking  community.
The  maps  of  individual  priorities  provide  a  wide  range
of  on–  and  off‐road  options  for  a potential  bicycle
network.  From  among  these,  a  Priority  Bicycle
Network  was  selected  (Ma p 2).  Th

is  Priority  Network
balances  the  needs  of  the  local  municipalities  and
cycling  community  with  A/GFTC’s  focus  on  providing
transportation  options  throughout  the  region.  This
includes  connections  to  destinations  within  the  A/
GFTC  re g

ion,  as  well  as bike  routes  in  adjacent
counties.
This  network  is  intended  to  assist  in  the  decision ‐
making  process  for  both  designating  bicycle  routes
and  selecting  bicycle  improvement  projects.
However,  the  selection  of  capital  projects  involves
other  equally  important  factors.  The  following  section
of  this  pla n
a ddresses  the  design,  feasibility,  and
imple
mentation  of bicycle  improvement  projects.
Priority Bicycle Network
Priority
Bicycle Network

This
network  of  on ‐ and  off‐road  connections  balances
the  needs  of  the  local  municipalities  and  cycling
community  with  regional  transportation  connections.
A  detailed  map of  the  Priority  Bicycle  Network  can  be
found  online  here:
http://www.agftc.org/altern ativetransportation.htm

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Map 1: Municipal/Cyclist Group Bicycle Priority Map
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Map 2: A/GFTC Bicycle Priority Network
A
detailed  map  of  the  Priority  Bicycle Network
can  be  found  online  at
http://www.agftc.org/alternativetransportation.htm
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Design Standards
Design
standards  for  bicycle  facilities  can  apply  to  the  location,
width,  pavement,  and other  features  such  as  drainage  grates  and
protective  railings.  These standards  may  be  applied  to  all  or part  of
an  on ‐road  facility  or  an  multi‐use  trail.
The  selection  of  a  bicycle  facility  depends  on  many  variables:  the
type  of cyclist  likely  to  use  the  facility;  tr affic

mix,  volume,  speed,
parking,  and  sight  distances  (for  on ‐road  facilities);  bicycle  speed,
grade,  multi‐ use capacity,  and  roadway/rail  crossings  (for  off‐road
facilities).  Several  agencies,  including NYSDOT,  FHWA,  and
AASHTO,  have  compiled  manuals  and  guidance  documents  which
can  help  to se lect
the  most  appropriate  design  standards  for  each
type  of  fa

cility.
For  the purposes  of  this  document,  the  most  commonly  applicable
design  standards  have  been  summarized  below. This  summary  is
intended  to  aid  in  the  prioritization  of  improvement  projects,  by
outlining  general  minimum  standards  for  the  types  of  facilities
most  likely  to  be  proposed  in  the  A/GFTC  region.  The design
standards  are  based  on  tho s

e in  the  NYSDOT  Highway  Design
Manual  Chapter  17 (Bicycle  Facility  Design),  and  on  AASHTO’s  2012
Guide  for the Development  of  Bicycle  Facilities.  Please  note that
these  standards  are  general;  specific  design  of  bicycle  facilities
must take  into  account  any  applicable  requirements  for  the
specific  roadway—i.e.  Federal,  State,  or  Local  regulations,  as
appropriate. Standards  for  features  such  as  bridges  or  railings
have  not  been  included;  refer  to  the  appropriate  guidance
document  for  detail  concerning  these  facilities.
This  summary  is  not  intended  to limit  the range  of  potential  bicycle
facilities  in  the  A/GFTC  region.  As  new  standards  are  adopted,  and
different  types  of  bicycle  facilities  teste d
and  de ployed,  it  is
recomme

nded  that these  new  techniques  be  reviewed  to
determine  if  they  may  be  appropriate  to conditions  in  the  A/GFTC
region.
Guidance Documents for
Guidance
Documents for
Bicycle Facility Design
Bicycle
Facility Design
Standards:
Standards:

American
Association  of State
Highway  and  Transportation
Officials  (AASHTO):  Guide for  the
Development  of  Bicycle  Facilities ,
2012
Federal  Highway  Administration
(FHWA):  Bikesafe:  Bicycle
Countermeasure  Selection  System ,
May  2006;  Selecting  Roadway
Design  Treatments  to
Accommodate  Bicycles , 1992
New  York State  Department  of
Transportation:  Highway  Design
Manual,  Chapter  17  Bicycle  Facility
Design,  2006

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Bike
Shoulders (aka Wide Shoulders)
Most appropriate  for:  Rural/suburban  roadways  with limited
sections  of  curbing  and  without  on ‐street  parking.  This  is  a  space
that  can  be  used  by bicycles  but  is  not  specifically  devoted  to
them.
Design  standards:
4’‐wide (min.)  shoulder  for  non ‐curbed
roadways  with  speeds  under  40  MPH.  Width  increased  to 6’  for
higher ‐speed/higher ‐volume roadways,  roads which  exceed  5%
grade  for  6 miles  or  longer,  or  roads  with  curbs  or  other  obstacles
at  the  edge  of  pavement.   No  special  pavement  markings  are
required.
Advantages:

Many bike  shoulders  already  exist
No additional  maintenance  required  beyond  that  which  is
required  for  the roadway
Can sometimes  be  accommodated  via  re ‐striping
Appropriate  for rural  and  suburban  areas
No additional  striping  at  intersections
Disadvantages:

Less comfortable  for beginning/average  cyclists  than  bike  lanes
May require  additional  ROW  width
Cars parked  on  shoulder  can  reduce  space  available  in
shoulder  for  cyclists
6’ ‐ with  curb  4’ ‐ no  curb  Travel  lane
Above:  Wide  shoulder  designated  as a  bicycle  route
Diagram  of  typical  design  of  wide  shoulders

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Bike
Lanes
Most appropriate  for:  Urban  roadways  with  curbing  and  on ‐street
parking.  Unlike  road  shoulders,  bike lanes  are  dedicated  solely  to
use  by  bicycles.
Design  standards:
4’‐wide (with  no  on ‐street  parking/curb)  or  5’‐
wide  (with  on‐street  parking/curb)  striped  lane  located  between
travel  lane  and  parking  lane/curb.   Requires  pavement  markings
and  directional  signage.
Advantages:

Higher profile/visibility  for  cyclists
Channelizes  bike  traffic
More  comfortable  for beginning/average  cyclists to  ride
Minimizes  cars  swerving  into  other  lane  to  avoid  cyclists
Can sometimes  be  accommodated  via  re ‐striping
Disadvantages:

Intersections can  become  complicated  with extra  bike  lane
striping  and  signage  (see  images  below  left)
May  require  additional  ROW  width
Mainly  an  urban  roadway  feature
Can pose  conflict  with  on ‐street  parking
Can be  blocked  by illegally  parked  cars
Top:  Bike  lane  without  on ‐street  parking
Bottom:  Bike  lane  with  on ‐street  parking
(photos  courtesy  of  pedbikeimages.org)
Top:  Striping  for  bike  lanes  at  intersection
Bottom:  Signage  for  bike  lanes
(photos  courtesy  of  pedbikeimages.org)

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Shared
‐Use Lanes (a.k.a. Wide Curb Lanes)
Most appropriate  for:  Roadways  which  allow  bicycles  and  vehicles
to  ride  side‐by‐side,  but  in which  other  bicycle  facilities  cannot  be
accommodated.  Use  only  if  all  other  options  are  unfeasible.
Design  standards:
14’‐wide desired  travel  lane
Advantages:

Minimal striping  or  maintenance  required
Benefits to  non ‐bicycle  traffic:  accommodates  buses  and  truck
turning  movements/emergency  maneuvers
Disadvantages:

Least comfortable  for  beginning/average  cyclists
Wider travel  lanes  can  increase  traffic  speeds
Can pose  conflict  with  on ‐street  parking
No visual  indication  that the  roadway  contains a  bicycle  facility

14’‐wide  lane 14’‐wide  lane Parking  lane:
width  varies
Wide curb lane
(photo  courtesy  of pedbikeimages.org)
Typical  design standard  for  wide  curb  lane

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Shared
‐Lane Markings
Most appropriate  for:  Roadways  with  lanes  less  than  14′  and
speeds  under  40  mph  where  no  other  dedicated  bicycle  facility  can
be  feasibly  accommodated.
Design  standards:
Set by  NYSDOT  supplement  of  the  MUTCD.
Pavement  markings  (“sharrow”)  and  signage  deployed  in
conjunction.
Advantages:

Less expensive  to deploy  than  facilities  which  require  road
widening  or  construction
No physical  changes  needed  to  roadway
Reduces  wrong ‐way cycling
Disadvantages:

Initial deployment  may  be  confusing  to  cyclists  and  motorists
May be  less  comfortable  for beginning/average  cyclists

Multi‐ Use Trail/Path (aka Off‐ Road Trail)
Most  appropriate  for:  Areas  with  existing  linear  ROW (rail/utility
corridors,  for  example)  which  link  destinations
Design  standards:
10’‐wide recommended  for  a two ‐way  path  (12’
preferred)
Advantages:

Least potential  for  vehicle/bike  conflict
Most comfortable  for  beginning/average  cyclists
Potential  to create  direct links
Recreation  amenity
Disadvantages:

Highest cost  to  implement  –  requires  ROW  acquisition,  design,
and  construction
Requires  separate  maintenance;  many  municipalities  may  be
unable  to  provide  maintenance
Top: Signage  for  shared‐ lane roadways
Bottom:  Pavement  marking  for  shared‐ lanes

Multi ‐use  trail

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Bicycle Shoulder Physical Feasibility Analysis
In
addition  to identifying  the  location  of  important  bicycle
connections  (the  Priority  Network),  and  summarizing  the
applicable  design  standards  for  conditions  in  the  A/GFTC  region,
this  plan  also  analyzed  whether roadways  may  currently  have  the
requisite  pavement  width  to  meet  the  Design  Standard
appropriate  to the  context.  A  GIS  map  was  prepared  which
compares  the  existi ng
shoulder  width  to  the  bike  shoulders  Design
Standard.  Th is creates  a  co

nservative  analysis,  as the  width
necessary  for  the wide  shoulder  Design  Standard  is  greater  than or
equal  to  the  dimensions  needed  for  any  other  type  of  bicycle
facility.  As  such,  it  can  be  broadly  assumed  that  a  roadway  which  is
wide  e

nough  to  support  the  Design  Standard  for  bike  shoulders
will  likely  also  be  wide  enough  for shared  lanes,  bike lanes,  and so
forth.
The  existing  shoulder  width  was  based  on  GIS  information,  then
verified  via  inspection  by  A/GFTC  staff.  For  the  purposes  of  this
plan,  th
e average  paved  shoulder  width  was  measu r

ed  for  each
section  of roadway.   Roads  with  on ‐street  parking  were  not
included  in  this  analysis,  nor  were  gravel  shoulders.  This  analysis
does  not  take  into  account  the condition  of  the  pavement.  The
shoulder  width  was  then  compared  to the  posted  speed limit for
the  roadway.  It  sh o
u

ld  be  noted  that the  posted  speed  limit  is not
the  only  relevant  factor  when  determining  the  required  width  of  a
bike  shoulder.  Topography,  functional  classification  of  the
roadway,  traffic volume  and  mix,  and  sight  distance  are  all  other
factors  which  can  influence  the  appropriate  bike  sho ulder
width.
Posted  speed was  chosen  as  the  analysis  method  for

this  plan  to
facilitate  the  GIS  analysis.
The  results  of  this  analysis  are  shown  in  Map  3, which  indicates
that  the  majority  of  priority  roadways  do  not  have  current
sufficient  width to  meet  the  wide  shoulder  Design  Standard.  It is
crucial  to  note  tha t
lack  of  shoulder  width  does  not  im

ply  that  a
roadway  is inherently  unsafe  or  unsuitable  for  use  by  cyclists.  The
intent  of  this  mapping  exercise was  to determine  which,  if  any,
roadways  could  currently  meet  (or  come  close  to  meeting)  this
design  standard.  This  information  can be  usefu l
in  helping  roadw a
y
owners  determine  the  scope  of work  required  to  create  or
enhance  bicycle facilities  in  the  future.
Right
Right


of
of


Way
Way

Throughout
this document,  reference  is
made  to  “right‐of ‐way”, or ROW.   This
refers  to the  land  acquired  for, or
devoted  to,  transportation  purposes.  This
could  be a  road  (possibly  including
sidewalks)  or  a  path  or  trail  not
associated  with the  street  network.
In  many  cases,  the  ROW  is  owned
outright  by  the  enti
ty which  has  a utho
rity
over  the  road  or  trail—a  local
municipality,  a  county,  or  NYSDOT.  The
ROW  is  often  wider  than  the  actual  road
or   trail,  so  that  curbs,  sidewalks,
drainage,  signs,  and other  features  may
be  accommodated.
It   must  also  be  noted  that  many
roadways  in  the  A/GFTC  region  pr eda
t
e
formal  acquisition  by  the  municipality.
These  are  known  as  “user  highways”,
“highways  by  use”,  or “roads  by  use”.  The
public  right‐of ‐way  extends  only  to  the
“extent  of  actual  use”.  A  recent  NYS  court
opinion*  has  determined  that  “extent  of
actual  use  may  include,  in  addition  to  the
traveled  portion,  the  shoulders  an d
whatever

land  is  necessary  for  the safety
of  the   public  and  for  ordinary  repairs and
improvements.”
As  such,  widening  these  types  of  roads
past  the  extent  of  actual  use  usually
involves  acquisition  of  property  from
adjacent  landowners,  which  can
significantly  increase  the  cost  and  time
frame  of  cons truction
projects.
* Op  Atty  Gen (Informal) No.  99‐19
http://www.ag.ny.gov/sites/de fault/files/opinion/I%2099 ‐19%20pw.pdf

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Map 3: Shoulder Width Analysis
Note:
Road  sections  with on ‐street  parking  not  included  in  analysis.
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15

Bicycle Facility Improvement Process
The
priority  network  identified  in  this  plan  is intended  to  serve  as  a
guide  for  the location  of  bicycle  facility  improvements.  However,
several  other  factors  will  play  an important  role  in the  timing  and
selection  of  projects  which  further  this plan.  These  are  listed
below.
Funding  availability. As  of  the  date  of  this  report,  traditional
A/GFTC  fund  sources  for  bicycle  facilities  are  very  limited  and
highly  competitive.  However,  funding through  the  NYS
Coordinated  Funding Application  process  or  other  sources  may
prove  to  be  viable  for  bicycle  projects  until  such  time  as
transportation  funds  through  A/GFTC  are  increased.
Complete Streets/Integration  with  other  transportation
projects.  Given the  current  funding  restrictions  facing  all
aspects  of  transportation,  combining  vehicle  and  bicycle
improvements  in  the  same  project  may  be the  most  efficient
and  effective  course  of  action.  Since  New  York State  recently
enacted  Complete  Streets  legislation  (see  page  20),  it  is  likely
that  bicycle  facilities  will  become  a  more  prominent  element  in
the  design  and  construction  of  roadways  at  the  St at

e and
County  level.  In  addition,  there  may  be opportunities  to  create
or  improve  a  bicycle  facility  during  a local  roadway  or bridge
project  in  the  future,  regardless  of  the  priority  level assigned
as  a part  of  this  plan.  Local  agencies  should  tak e
adv a
ntage of
these  opportunities  as  they  arise.
Target  Cyclist.  Cyclists  can  span  a  wide  range  of experience
levels  and  skill.  Experienced  cyclists  may  feel more
comfortable  using certain  types  of  bicycle  facilities  than  do
children  or less‐experienced  adults.  This  plan  does  not
differentiate  between  types  of  cyclists,  as  the  goal  is  to
encourage  cycling  for  everyone.  However,  the desire  to
accommoda t
e  a  wide  range  of  cy

clists  should  be  balanced  with
the  benefits  of  providing  a facility  where  none  currently  exists,
even  if  the  facility  may  not be  the  most  comfortable  for every
cyclist.  This balance  should be  informed  by  factors  such  as
proximate  land  uses,  location  of  the  proposed  facility, and
physical  constraints  of  the  roadway/trail  area.

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To
further  facilitate  the  decision ‐making process,  a Bicycle  Facility
Improvement  Process  has  been  developed.  The first  step  in  that
process  is  to  select  the  appropriate  Design Standards  for  the
roadway  in question.  Not  every  roadway  will require  a  dedicated
bicycle  facility.  Roads  with  very  low  traffic  volumes,  for  example,
may  operate  adequately  as  bicycle  fa cili
ties without  any  physical
alterations.  The  next  step  is  to  determine  how additional
improvements,  if required,  can  be  funded  and  constructed.  The
flow  chart  on  page  17  is intended  to help  guide  this  process.
Factors  such  as  existing  pavement  width,  the  feasibility  of  off‐road
connections,  and  available  funding progr a
ms are  all  considered.
This  process  anticipates  that  most  roadway  owners  would  require
that  bicycle  facilities  are  largely  consistent  with  the  design
standards  prior  to  designation  as a bike  route;  however,  this  is  not
prerequisite.  The designation  itself  may  be an internal  process,  or
may  be at  the  be hest
of  a  separate  gro
up. For  example,  the
WCS&QBO  recently  petitioned  the  Town  of  Queensbury  to
designate  several  roadways  as  bike  routes;  the  Town  Board  passed
a  resolution  designating  the  roadways  as  this  plan  was  being
drafted.  This  process  could  be  replicated  for any  town  in  the  A/
GFTC  region.  Similarly,  this  group,  or  any  local  m uni
ci
pality, may
choose  to  petition  roadway  owners to  designate  their  roadways  as
bike  routes.
New  York State  maintains  a  separate  system of  bike  routes,
designed  to  encourage  long ‐distance  connections  across  the state.
However,  local  bike  route  signage  may  be added  along  State
roadways  with  appropriate  permit s and  mainte
nance agreements.
An  example  of  this  is  the  Saratoga  County  Heritage  Trail,  which  is
located  along NYS  Routes  9  and  197  in the  Town  of  Moreau.
Is a dedicated bicycle
Is a
dedicated bicycle
facility needed?
facility
needed?

Unless
prohibited  by  law,  bicycles  are
allowed  to travel  on  any  public  roadway.
Although  the  focus  of  this  plan  is  on
providing  facilities which  will  make  bicycle
travel  safer  and  more  comfortable,  there
are  situations  in which  an  existing  roadway
may  represent  an  adequate  facility  for
bicycles,  without  the  need  for  a  dedicated
facility  such  as  a  bike  lane.
These  i

nclude:
Minor roads  with  low  traffic  volumes  (>
1,000  vehicles  per  day)
Low‐speed  roads, such  as  within
neighborhoods
Rural roadways  with  adequate  sight
distance
Roadways  with  no  history  of  bicycle
accidents
Off
Off


Road Facilities
Road
Facilities

In
some  cases, there  may  be an opportunity
to  provide  an  off‐road  facility,  such  as  a
multi ‐use  trail.  This  option  usually  requires
acquisition  of right‐of ‐way, which  drives
costs  up.  However,  given that  multi ‐use
trails  can  sometimes  be  funded  through
alternative  grant  sources  (see  page  33), it
may  someti
mes  be  more  feasible  to
provide  an  off

‐road  connection  than  to
improve  a  roadway.  However,  the  potential
for  increased  costs  and  decreased
connectivity  must  be  weighed  in  this
decision.

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START:
For  all proposed  bicycle  routes,  determine   whether  dedicated/
improved  bicycle facilities  are  warranted  and  desirable*
Ye s  No
Can  the  bicycle  facility  be  created  through  re ‐striping,
roadway  stencils, or  shared ‐lane markings?
Pavement  Width
Alteration  Needed
Is the  roadway  scheduled  for  re ‐paving  or  other  capital
improvement  which  involves  re ‐striping  the  roadway?
Restripe roadway  as  part  of
preservation  project
Designate  roadway  as a Bike
Route;  add  signage
Ensure facility  will  be
maintained,  if  necessary
Pursue funding  for multi‐ use trail
through  TAP,  MTC,  or CF  funding
Ensure facility  will  be  maintained,  if
necessary
Acquire ROW  (if  needed)  and
construct  trail
Could  an off‐ road  facility  feasibly  be
substituted?*
Pursue funding  for capital
improvement  through  TAP, STP,
MTC,  or CF  funding
Construct  facility
Designate  roadway  as a Bike
Route;  add  signage
Is there  a  demonstrated  history  of
bicycle  accidents?
Pursue funding  for capital
improvement  through  HSIP funding
Construct  HSIP  project
Designate  roadway  as a Bike  Route;
add  signage
Designate  roadway  as a
Bike  Route;  add signage
Ye s  No
Ye s  No
Ye s  No
*Note:  See sidebar  on page  16

Key:
TAP =  Transportation  Alternatives Program
STP  = Surface  Transportation  Program (for
Beyond  Preservation  projects)
MTC  = Make  the Connection  Program
CF  = NYS  Consolidated  Funding Solicitation
HSIP  = Highway  Safety Improvement  Program
Ye s
No

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Other Bicycle Improvements
There
are many  opportunities  to  pursue  small‐scale  improvements
which  could  also  improve  the  biking  experience  in  the  A/GFTC
region.  These “spot”  improvements  address  issues which  may  not
require  significant  funding  to  complete.  Several  examples  are
included  below.
Drainage grate pattern
The direction  of  the  grating  pattern on  storm  drains  is  an  often ‐
overlooked  detail. Grate openings  which  run  parallel  to  the  travel
direction  can cause  havoc  for  thin  bicycle  tires.  Ideally,  grates
should  feature  a  “bike ‐friendly”  pattern.  If  this  is  not  feasible,  the
grate  should  be  situated  so  that  the  pattern  r
uns  p erpendi
cular to
the  travel  direction.
Individual hazards
Potholes,  cracks,  and sudden  changes  in  grade  near  utility  access
points  and  drainage  grates  can  be  difficult  for cyclists  to  maneuver,
especially  at  night.  In the  short  term,  pavement  markings  as
specified  in  Chapter  9C  of  the  MUTCD  can help  alert cyclists  that  a
potentially  hazardous  condition  exists.  These  hazards  can  the n
be
eliminated  or  mini mized  as  the  appropri

ate  roadway  or utility
project  is  undertaken  in  the  future.
Pavement overlays
Even if no  re ‐striping  or  widening  is called  for in a  paving  project,
there  may  still be  good  opportunities  to  improve  conditions  for
cyclists.   Ensuring  that  the  seam  of  the  pavement  is  properly
feathered  and  does  not  occur  in the  middle  of  the  shoulder,  will
provide  a  smooth,  regular  surface  for cyclists.

Roadway sweeping
Patches of  gravel,  especially  on corners,  can  pose  a  threat  to
cyclists.  With  the  help  of  the  cycling  community,  it  may  be  possible
to  identify  areas  where  significant  gravel  accumulation  is
hampering  safe  cycling.  Targeted  road  sweeping  can  help  to
reduce  the  potential  hazards.
Bicycle Racks
Although  some  communities  require  provision  of bicycle  racks
during  project  development  approval,  it can  still  be  difficult  for
cyclists  to  find  a  safe  place  to  lock  their  bike. Bike  racks  should  be
provided  near  public  buildings  such  as  schools,  municipal  centers,
and  post  offices,  as well  as in public  parking  areas.  Co mmercial

businesses  an d e

mployment  centers can  also  provide  bike  racks  as
a  service  to  their  customers  and employees.
Top: Grate  pattern  not  bike ‐
friendly
Bottom:  Bike ‐friendly  grate
(photos  courtesy  of  ped‐
bikeimages.org)
Above: MUTCD   standard  for  individual  hazard  striping
Existing  pavement
Existing pavement
Overlay
Overlay
Travel
Lane  Shoulder
Pavement  Overlay  Placement—NOT  Recommended
Pavement  Overlay  Placement—Recommended
Travel Lane  Shoulder

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PEDESTRIAN IMPROVEMENTS
Although
creating  and maintaining  dedicated infrastructure  is  often  the  primary  goal
when  considering  pedestrian issues,  reducing  barriers  can also  make  a  positive  impact.
Typical  barriers  to pedestrian  transportation  include inadequate  space,  facilities  that  fail
to  connect  logical termini,  and  the  proliferation  of  land  use  patterns  and  street  designs
that  emphasize  motor  vehicle  travel.  High  traffic  and  tru c
k volumes  also  can  deter
pedestrian  mobility.
Within  the  A/GFTC  area,  there  are a  variety  of  pedestrian  issues  to  address.  The  City  of
Glens  Falls  and  most  of  the  area’s  villages  and  hamlets  were  built  prior  to the  automobile
era.  In  these  downtown  areas,  the  primary  emphasis  should  be  on  maintaini
ng an
d
preserving  the sidewalk  networks  that  already  exist,  particularly  along  major  streets  and
near  schools,  parks, and  commercial  districts.  The  second  priority  is  to  consider
pedestrian ‐motorist  interaction  at intersections  and  major  destination  points.  Finally,
where  warranted,  connections  need  to be  established  between  existing  pedestrian
facilities  and  areas  of new  developmen t.
In

some  of the  region’s  suburban  areas,  the  pedestrian  provisions  are  not  sufficient  to
meet  demand.  Commercial  areas  are often  designed  as  a singular  destination  and  do  not
include  connections  to  adjacent  developments.  In these  areas,  the  emphasis  should  be  on
establishing  a  continuous  pedestrian  network  t h
rou
ghout  commercial  developments.
New  residential  developments  should  anticipate  and  consider  pedestrian  activity.  Where
demand  exists,  improvements  should  be  made  to  connect  separated  neighborhoods  with
one  another.
Much  of  the  A/GFTC  region  is  rural.  Although  these  areas  are not  often  associated  with
heavy  pedestrian  activity,  there  is  nonetheless  a  need  to  en sure
safe,  accessibl e
accommoda

tion,  especially  near  clusters  of  pedestrian  generators  and  destinations.
Roadway  lighting, shoulder  width,  crosswalks,  and small ‐scale  infrastructure
improvements  can  all  be  key  to  making  sure  that,  when  people  walk  in  the  rural  areas,
they  can  do  so  safely  and  comfortably.
Pedestrian Facilities: Policies and Legislation
There are several  federal,  state,  and  local  laws  and  policies  which  affect  the  provision,
location,  and  design  of  pedestrian  facilities.
The Americans with Disabilities Act
The Americans  with  Disabilities  Act  of  1990  (ADA)  prohibits  discrimination  on  the  basis  of
disability.  Under  ADA,  buildings  and  facilities  are  to  be  designed  and  constructed  to
provide  accessibility  to  people with  disabilities.  This  law  applies  to  State  and  local
government  facilities  as  well  as  places  of  public  accommodations.   In general,  AD A
focuses
mainly  on  bui lding  faciliti

es  and  on  sites,  such as  parking  lots.  ADA  addresses  certain
features  common  to  public  sidewalks,  such as  curb  ramps.  These  standards  are  applied  to
construction  or  alteration  of  buildings  and  facilities.

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The
standards  used  by NYSDOT  for  the design  and  construction  of
all  Department  projects  are  prescribed  within  the  Americans  with
Disabilities  Act  Accessibility  Guidelines  for  Buildings  and  Facilities
(ADAAG).  NYSDOT  requires  that all  pedestrian ‐related
improvements  conform  to  ADAAG  standards.
Transition Plans
To implement  ADA, most public  agencies  are  required  to complete
a  transition  plan.  This  is  intended  to  set  forth  the  agency’s  plan  for
bringing  public  facilities,  including  sidewalks,  into  compliance  with
federal  pedestrian  design  standards.  Transition  plans  can  reduce
liability  related  to ADA  non ‐compliance  claims,  as  long  as  the
agency  is  in  the  process  of  impl
eme n
ting the  plan.  Elements  of  the
plan  include  an inventory  of physical  conditions,   the  methods  that
will  be  used  to  make  the facilities  accessible;  the schedule  for
upgrading  pedestrian  access;  and   naming  the  official  responsible
for  implementation  of  the  plan.
A/GFTC  is  committed  to  assisting  municipalities  with  the  creatio n

and  implementation  of  transition  plans.  Technical  assistance  is
available  to perform  data  collection,  such  as  for  the required
inventory  of physical  obstacles,  which may  be difficult  for  a local
municipality  to  perform  on  its  own.  In  addition,  funding  programs
such  as  the  Make  The  Connection  grants,  can be  us ed
to bring
facilities  in t

o  compliance  with ADA,  thereby  implementing
transition  plans  in  the  local  municipality.
Public Right‐of‐Way Accessibility Guidelines (PROWAG)
Sidewalks, street crossings,  and  other  elements  in  the  public  right ‐
of ‐way  can  pose  specific  challenges  to  accessibility,  which  may  not
be  fully  addressed  in ADA.  As  such,  in  2011,  the  Architectural  and
Transportation  Barriers  Compliance  Board issued  further  guidance
to  address  conditions  and  constraints  unique  to  public  rights‐of‐
way.  This  incl udes
access  for  blind  ped e
strians at  street  crossings,
wheelchair  access to on ‐street  parking,  and  various  constraints
posed  by  space  limitations,  roadway  design practices,  slope,  and
terrain.  The  new  guidelines  will  cover  pedestrian  access  to
sidewalks  and  streets,  including  crosswalks,  curb ramps,  street
furnishings,  pedestrian  signals,  parking,  and  other  components  of
publi c
rights ‐of ‐

way.  These  guidelines  are  anticipated  to be
adopted  as  standards  in  November  2014.
Pedestrian
Pedestrian

Accessibility and
Accessibility
and
Roadway Alterations
Roadway
Alterations

Both
ADA  and PROWAG  are  triggered  by  either
construction  or  alteration  projects.  In
transportation  terms,  the  definition  of
“alteration”  is  an  important  consideration.
According  to  joint  Department  of  Justice/US
Department  of  Transportation  technical
assistance,   alteration  is  defined  as  “a  change
that  affects  or  could  affect  the  usability  of  all
or  part  of  a  building  or  fa
cil i
ty. Alterations  of
streets,  roads,  or  highways  include  activities
such as  reconstruction,  rehabilitation,
resurfacing, widening,  and  projects  of  similar
scale and  effect.”Examples  include,  but  are  not
limited  to:  addition  of  a  new  layer  of  asphalt,
reconstruction,  concrete  pavement
rehabilitation  and  reconstruction,  open‐graded
surface  course,  micro‐surfacing  and  thin  lift
overlays,  cape  seals,  and  in ‐place  asphalt
recycling.  Since  resurfacing  of  streets
constitutes  an  alteration,  it  triggers  the
obligation  to  provide  curb ra
mps  if  it  in v
olves
work  on  a  street  or roadway  spanning  from
one  intersection  to  another,  and  includes
overlays  of  additional  material  to  the  road
surface,  with  or  without  milling.
Maintenance  activities, such  as  filling  potholes,
joint  crack  repairs,  crack  filling  and  sealing,  or
pavement  patching,  do  not  constitute  an
alteration.
For  more  details  concern
ing   ro

adway
alterations  and ADA,  see:
http://www.fhwa.dot.gov/civilrights/
programs/doj_fhwa_ta.cfm

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Complete
Streets Legislation and Policies
Governor  Andrew  M.  Cuomo  signed  the  Complete  Streets  Act  (Chapter
398,  Laws  of  New  York)  on  August  15, 2011,  requiring  state,  county  and
local  agencies  to  consider  the  convenience  and mobility  of  all  users  when
developing  transportation  projects that  receive  state  and  federal  funding.
The  New  York State  Department  of  Transportation  (NYSDOT) is  wo rking  to
ensure  that  its  policies  and  proced

ures  meet  the  new  standards.  The
initiative  presents  an  opportunity  to  expand  upon existing  programs  and
collaborate  with  bicyclists,  pedestrians,  people with disabilities  and  others
to  identify  best  practices  and  designs  for  transportation  facilities.
It  is  important  to  note  that  the  Complete  Streets  le
gislation applies  to
planning,  design,  construction,   reconstruction,   and   rehabilitation
projects.  Resurfacing,  maintenance,  or  pavement  recycling  projects  are
exempt  from  the  law.  In  addition,  the  law  only  requires  that  Complete
Street  elements  be  considered  during  project  development;  the  law  does
not  guarantee  that  design  elements  will  be  included  in  the  finished
project.  Spec i

fically,  the  law  does  not  apply  when  the  any  of the  following
conditions  are  met:
use  by   bicyclists  and  pedestrians  is  prohibited  by  law,  such  as  within
interstate  highway  corridors;
the cost  would  be  disproportionate  to  the  need  as   determined   by
factors   including,  but  not  limited  to, the  following:  land  use  context,
current  and  projected  traffic  volumes,  and  population  density
(  Typically,  excessively  disproportionate  is  defined  as  exceeding  20%
of  the  cost  of  the  larger  transportation  project,  but  it should  be
determined  on  a  proje c
t‐
by‐project  basis);
demonstrated  lack  of  need  as  determined  by   factors,   including,  but
not   limited   to,   land  use,  current  and  projected  traffic  volumes,
including  population  density,  or  demonstrated  lack  of   community
support;
use of  the  design  features  would  have an  adverse  impact  on,  or  be
contrary  to, public  safety.
Local Complete Streets Policies
In addition  to the  New  York  State  legislation,  a  number  of  local
municipalities  have  passed  Complete  Streets  policies.  These  policies  range
in  applicability  from  statements  which  support  Complete  Streets
principles,  to  revisions  in  local  land  use  codes  which  mandate  Complete
Street  design  features.  The  current  list  of  local  Complete  Streets  policies  is
shown  at  lef t
.
 Complete Streets
Complete
Streets

A
Complete  Street  is  a  roadway
which  accommodates  safe,
convenient  access  and mobility  of
all  roadway  users of  all  ages  and
abilities.  This  includes  pedestrians,
bicyclists,  public  transportation
riders,  and motorists;  it  includes
children,  the  elderly,  and persons
with  disabilities.
Complete  Street   design  features
include  sidewalks,  lane striping,
bicycle  lanes,  paved  shoulders
suitable  for  use  by  bicycl
ists,
signage,  crosswalks,  pedestrian
control  si

gnals,  bus  pull ‐outs,  curb
cuts,  raised  crosswalks,  ramps and
traffic  calming  measures.

Municipalities with Complete
Streets Policies
City  of  Glens  Falls
Town  of  Warrensburg
Village of  Lake  George
Village &  Town  of  Fort  Edward
Town of  Lake  Luzerne
Town of  Queensbury
Village of  Hudson  Falls
Town  of  Greenwich
Town of  Kingsbury
Town of  Johnsburg

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Pedestrian Design Features
The
presence  of  an  adequate  and  interconnected  pedestrian
network  can  reduce  the  number  of  trips  that  need  to be  made
with  a  vehicle,  thus  reducing  traffic  congestion,  noise,  and
pollution.  As  with  bicycle  facilities,  there are a  number  of  design
features  intended  to  promote  the  safety  and  comfort  of
pedestrians.  New  innovations  and  design  featur es co
ntinue to  be
developed  as  communities  seek  ways  to  make  the  pedestrian
environment  safer  and  more  inviting.
Sidewalks
As the  key  component  of  urban  pedestrian  circulation  systems,
functional  and accessible  sidewalks enrich  the  quality  of  life  in a
community.  Besides  providing  a transportation  function,  sidewalks
can  also  serve  as  a desirable  design element,  contributing  to  the
character  and strengthening  the  identity  of  a  community.
Sidewalks  are  the  most  common  form  of  pedestrian  facility  in
urbanize d
areas.  Although  most  peop le are  familiar  with  the
concre

te  walkways  found  in  city  and  village  settings,  there  are  a
number  of  design  considerations  which  should  be  taken  into
account  for sidewalk  projects.  These  include:
Sidewalk  width.  The mandated  minimum  width  for  sidewalks
can,  in  certain  limited  circumstances,  be  as  narrow  as 4′,
although  5 ‐6′  sidewalks  are  more  common  and  appropriate  for
neighborhood  environments.  Sidewalks  of  8 ‐12′  in  width  may
be  desirable  in  certain  environments,  especially busy
commercial  areas. This  extra  width  can  accommodate  the
heavier  pe destrian
traffic. A  wider  sidewalk  can  also  contri
bute
to  an  active,  vibrant community  setting,  by  serving  as  outdoor
seating/retail  display  area.
Landscaping/buffer  area.  To increase  the  feeling  of  security,  a
buffer  area  is  often  included  between  the  walkway  and  street.
This  strip  can  be  landscaped  or paved,  and  also  provides  space
for  street  lights,  utility  poles,  trees,  and other  amenities  like
benches,  signage,  and  mailboxes.  If  this  area  is  to  contain
landscaping,  it  is  crucial  th at
enough  soil  volume  is  pr ovided  to
maintain  th

e  health  of  plant  material  as  well  as to prevent
pavement  buckling.  For  sidewalk  buffers  that  are  to  contain
street  trees,  a minimum  width  of  6′  is  recommended.  The
planting  area  can  be  finished  with  turf,  gravel  or  mulch,  or
pavement  types  which  allow  water to  percolate  into  the soil,
Above:  Traditional  concrete  sidewalk  with wide landscaped  buffer.  Photo  courtesy
of  pedbikeimages.org

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such
as  permeable  pavement  or  concrete  bricks. Solid,  non ‐
permeable  pavement is  not  recommended  for  use over  street
tree  buffers  unless  structural  soil  or  other  methods  are  used  to
promote  tree  root  health  and  prevent  pavement  buckling.
Paving material. Concrete  is the  most  common  material  used
for  sidewalks,  and  is  generally  recommended  for  urbanized
environments.  However,  other  materials  can also  be  used,
provided  the  pavement  meets  PROWAG  standards  for  a  stable,
firm,  and  slip ‐resistant  surface.  Highly  textured  pavement,
such  as  stamped  concrete,  is recommended  only  as  an accent
material  and  should  not  be  used  as  a pr imary
materi al on
pedestrian  access  routes,  si

nce it  can  cause  difficulties  for
some  wheelchair  users.  Asphalt  is  not  generally  recommended
for  urbanized  environments,  especially  in  situations  in  which
the  asphalt  walkway  will adjoin  concrete  walkways  or  curbs,  as
this  combination  can  increase  maintenance  due  to  se ttling
of
the  pavement  ma terial.

However,  in more  suburban  or  rural
areas,  especially  adjacent  to  non ‐curbed  roads,  asphalt  may  be
an  adequate  alternative  sidewalk  material.
Sidewalk  replacement.  In many  cases,  a  project  involves
replacing  an  existing  sidewalk.  It is  important  to  consider  that
the  new  sidewalks  will  need  to meet  ADAAG  and  other
applicable  standards.   This  may  result  in  wider  sidewalks  or  a
different  paving  material  than  was  used  previously.  Existing
vegetation,  signage,  and  utilities  will  also  have  to  be  taken  into
account.
Sidewalk  retrofits.  When new  sidewalks  are  added  to  an
existing  roadway,  which commonly  occurs in  suburban  and
rural  environments,  other factors  come  into  play.  The  available
right‐of ‐way is  usually  the  most  important  consideration,  as
this  affects  the  sidewalk  width  and  location.  In  addition,  the
roadway  may have curbs  or  open  drainage,  which  affect  th e

placement  of  sidewalks.  In  suburban  and  rural  areas,  curbs  are
not  ty pically  used,  and  stormwater

runs  freely  to  the  side  of
the  road,  often  collected  in ditches  or  swales.  These
stormwater  features can  take  up a  large  portion  of the
available  right of  way,  which  reduces  the space  available  for
sidewalks.  In  addition,  it  can  be  costly  to  alter  the  slope,  width,
and  surface/s u
b‐

surface  material  of  swales,  adding to  the
potential  cost  of  sidewalk  projects.  Finally,  it  is  important  to
consider  that  installing  new  sidewalks  along  existing  roadways
may  be a  controversial  topic  for  adjacent  landowners.
What is Structural Soil?
What
is Structural Soil?

Structural
or  gap ‐graded  soil  is  a
mixture  of  sized  gravel  and  soil,
which  meets  both  engineering
requirements  for  load ‐bearing  as
well  as providing  soil volume  for
tree  root  growth.  This  mixture  can
be  used  under  pavement  to  provide
more  useable  space  for  trees  in
urban  environments.
Why use Structural Soil?
Why
use Structural Soil?

Trees
in  urban  environments  are
subject  to  a  number  of
environmental  stressors, including
deicing  salts,  soil and  air  pollution,
heat  loads,  and drought.  However,
the  most  significant  issue  is
inadequate  or  compacted  soil. In
addition  to  severely  limiting  the
health  of  the  tree  by  inhibiting  root
growth,  this  can  lead  to  shallow
root  pene tration,
which  ca uses
pavement  buc

kling.
Using  structural  soil  can  alleviate
these  conditions  by  providing
adequate  soil  for  tree  roots  to
penetrate.  In  turn,  this  creates  a
healthier  tree  and  reduces
maintenance  needs  for  adjacent
sidewalks  or  other  pavement.

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Pedestrian
Crossings
Many pedestrian  trips  involve  a street  crossing  at  some  point,
whether  at an  intersection,  a  midblock  location,  or  a  commercial
drive  or  parking  area.  Unlike  sidewalks,  crossings are  spaces  shared
by  vehicles  and  pedestrians.  As  such,  the  potential  for  pedestrian/
vehicle  conflicts  is  much  higher  than  in  strictly  pedestrian  facilities.
There  are a  nu mber
of  cri t
eria to  consider  when  addressing  the
need  for  pedestrians  to  cross  vehicular  travel  lanes.  These  include
volumes  of  pedestrian  and  vehicle  traffic,  vehicular  speed,
intersection  configuration  and  sight  distances,  school zones,
facilities  and  services  for  the elderly,  and surrounding  land  use.
Although  most  crossings  are  located  at  intersections,  midblock
crossings  are  also  sometimes  called  for.  (Details  concerning  th e
specifics  of  crossing

warrants  are discussed  in  the  subsections
below.)  In  some  cases, such  as  low  volume  roadway  intersections,
there  may  be no  need  to provide  a  formal  pedestrian  crossing
treatment  at  all.  However,  in  many  urban  or commercial
environments,  formal  crossings  are  be n
eficial
or  necessary.  Safety
is  also  a  crucial  consideration.  Crossings  should  never  be  located  in
places  where  sight  distance  or  other  physical  conditions  would  put
pedestrians  at  risk.
Once  the  need  for a crossing  is  determined,  there  are  factors
which  influence  the  design  of  a  crossing.  Again,  in  very  general
terms,  the  main  considera t
ion

is  to  allow  pedestrians  to  cross  the
street  safely.  There  are many  options  which  affect  this  issue,
discussed  in greater  detail  below.   In  some  cases,  it  is  beneficial  or
necessary  to  combine  two or  more  of  the  potential  crossing
treatments.  Relevant  regulatory  guidance is note d
whe r
e
applicable.
Marked Crosswalks
The pedestrian  right‐of‐way  across  vehicular  travel  lanes  is  known
as  a crosswalk.  According  to AASHTO,  “An  intersection  crosswalk is
defined  as  the  extension  of  a  sidewalk  or  shoulder  across  an
intersection,  whether  it is  marked  or  not….  It  is  legal  for  a
pedestrian  to  cross  the  street  at  any  intersection,  ev en
if  no
crosswalk  is  marked,  unle

ss  crossing  is  specifically
prohibited.”  (AASHTO,  July  2004)  Pedestrians  and vehicles  must
follow  applicable  right ‐of‐way  requirements  in  these  locations,
regardless  of  whether  a crosswalk  is  defined  by  pavement
markings.
Above: Marked  crosswalk.  Stripes  have  been  located  to  avoid  wheel  paths, which
reduces  maintenance.  Photo  courtesy  of  pedbikeimages.org

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In
many  cases,  it  is  beneficial  or necessary  to  provide  pavement
markings  or  other  treatments  which  designate  the  crosswalk
boundaries,  with  a  visual  and/or  tactile pavement  treatment.
Marked  crosswalks  can  help  channel  pedestrians  to  specific
locations  and  improve  pedestrian  access  and  safety  at  night,  while
serving  to  warn  motorists  of  the  potential  for interaction  with
pedestrians.  However,  ma rked  crossings  can  also  cr

eate a false
sense  of  security  for  pedestrians,  who  may  assume  that the
crosswalk  markings  guarantees  motorist  compliance  with  right  of
way  regulations.
A  number  of  factors  must  be  considered,  prior to  installing  a
marked  crosswalk,  including  volumes  of  pedestrian  and vehicle
traffic,  vehi cular
speed,  in te

rsection  configuration  and  sight
distances,  school zones,  facilities  and  services  for  the elderly,  and
surrounding  land  use.   NYSDOT  sets  guidelines  for  state ‐owned
roads,  and  notes  that  marked  crosswalks  should  be  considered  at
the  following:  (NYSDOT,  2013)
Locations  that  feature  pedestrian ‐actuated traffic signals
Established  school  crossings
Traffic signals  located  within  central  business  districts  or  other
areas  where  crossing  pedestrian  volumes  are  significant
Areas that feature  development  on  both  sides  of  a  highway,
resulting  in  concentrated  pedestrian  volumes  crossing  the
highway  where no  intersection  exists
Signal ‐controlled  entrances to  commercial  properties
Curb Ramps and Blended Transitions
According to the  most  recent  guidelines  for  pedestrian  facilities  in
the  ROW,  curb  ramps,  blended  transitions,  or a  combination  of
curb  ramps  and  blended  transitions  must  connect  the  pedestrian
access  routes at  each  pedestrian  street  crossing.  Typically,  two
curb  ramps  are  provided  at  each  street  corner—one  for each
crosswalk.  In  places  where  existing  ph ysic
al constrai
nts prevent
two  curb  ramps  from being  installed,  a  single  diagonal  curb ramp  is
permitted.  However,  single diagonal  ramps can  be  confusing  for
the  visually  impaired,  as  the  curb  ramp  is  not  entirely  aligned to
the  crosswalk.  This  lack  of  directionality  could  create  a situation
where  pedestrians  walk dia gonally
into  the  in tersecti
on, rather
than  into  the  crosswalk.  As  such,  diagonal  ramps should  be  used
only  where  no  other  option  is  feasible.  Detectable  warnings are  to
be  employed  as required  (see  sidebar).
Detectable Wa r n in g s
Detectable Wa r n in g s

Detectable
warning  surfaces  consist of  small
truncated  domes  built  in  or  applied  to  a
walking  surface  that are  detectable
underfoot,  and  are  intended  for  pedestrians
who  are blind  or  have  low  vision.  On
pedestrian  access  routes,  detectable  warning
surfaces  indicate  the  boundary  between  a
pedestrian  route  and a  vehicular  route
where  there is  a  flush  rather  th
an  a
curbed
connection.  As such,  under  PROWAG,  they
are  required  to  be  installed  at  the  following
locations  on pedestrian  access  routes:
1.  Curb  ramps  and  blended  transitions  at
pedestrian  street  crossings;
2.  Pedestrian  refuge  islands;
3.  Pedestrian  at ‐grade  rail  crossings  not
located  within  a  street  or high way;
There

are  also  requirements  for  detectable
warnings  at  transit  boarding  stations  (See
PROWAG  for  more  details).
In  addition  to  providing  a  tactile  cue,
detectable  warning  surfaces  must  have  a
color  contrast  from the  surrounding
pavement  (light ‐on ‐dark  or  dark‐ on‐light).
Dark  Gray  is  the  default  color,  as  it  provides
good  contrast  with  portla

nd  cement
concrete  sidewalks  and  is  widely  available.
White  or  Safety  Yellow  are recommended
colors  for use  on  asphalt  concrete  or  other
dark  surfaces.  For  more  information  on
appropriate  colors for detectable  warning
surfaces,  see  NYSDOT  Highway  Design
Manual,  chapter  18.

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Midblock
Crosswalks
Where there  is  significant  pedestrian crossing  demand,  crosswalks
can  also  be  marked  at  midblock  locations.  AASHTO  has  included  a
checklist  of  criteria  for  considering  a midblock  crossing:  (AASHTO,
July  2004)
The location  is  already  a source  of  a  substantial  number  of
midblock  crossings.
Where a  new  development  is  anticipated  to  generate  midblock
crossings.
The lane  use  is  such  that  pedestrians  are  highly  unlikely  to
cross  the  street  at  the  next  intersection.
The safety  and  capacity  of  adjacent  intersections  or  large
turning  volumes  create  a situation  where it  is  difficult  to  cross
the  street.
Spacing  between  adjacent  intersections  exceeds  200m  (600ft).
The vehicular  capacity of  the  roadway  may not be  substantially
reduced  by  the  midblock  crossing.
Adequate  sight  distance  for  both  pedestrians  and  motorists.
Since  motorists  are  more  likely  to expect  pedestrians  at
intersections,  midblock crossings  require  special considerations
above  and  beyond  pavement  markings.   Midblock  crossings  should
always  be  used  in conjunction  with  pavement  markings  and
warning  signs  that  concur  with  the  standards  of  the  MUTCD.
Additional  tr eatments
such  as  raised
crosswalks  and  HAWK  signals
are  discussed  in  greater  detail  below.
Care  must  be  taken  when  locating  midblock  crossings.  Defining  too
many  locations  where  pedestrians  are  encouraged  to  cross
roadways  can  cause  unwanted  motor  vehicle  circulation  delays
and  be  counterproductive  to the  aim  of  channeling  pedestrian
traffic.  Overuse  of  pavement  markings  also  may  lead to  a  ge neral

disrespect  of  intended  crossing  facili

ties by  motorists.
It  is  also  important  to  consider  pedestrian  behavior.  Many
pedestrians  will  cross  the  street  mid‐ block  whether  a  formal
crosswalk  is  provided  or  not,  if  the  perception  of  convenience  and
safety  is  sufficient.  In  certa in
cases,  it  may  be  necess
ary to  install
features  that  discourage  pedestrians  from  crossing  mid‐block  ,
such  as  areas  with  inadequate  sight  distance  or  other  safety
concerns.  Although  rarely  needed,  vegetation,  fencing,  or  other
barriers  may  be installed  to  channel  pedestrians  to  appropriate
crossing  locations.
Above: Midblock  crossing  with  refuge  island and  signage.  Photo  courtesy  of  ped‐
bikeimages.org

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Curb Extensions

Curb extensions,  also  known  as  neck‐ downs  or  bulbouts,  are
designed  to  minimize  pedestrian  exposure  to  traffic  by  creating
shorter  crossing  distances.  Curb  extensions  can  also  increase  the
likelihood  that  a pedestrian  wanting  to  cross  will  be  seen  in
addition  to  improving  visibility of traffic  for  the pedestrian  by
allowing  the  pedestrian  to  safely  move  beyond  a row  of  parked
cars  before  crossing.   These features  also  serve  to  cal m traffic,  by
reduci

ng  visual  width  of  the  street  (for  midblock  crossings)  or
tightening  the turning  radii  of  the  intersection.  The  Highway
Design  Manual  recommends  that  curb  extensions  be  used  only  on
low‐ speed  streets  that  fe atu
re parking  lanes.  (NYSDOT,  2013)  Used
in  absence  of  parking  lanes,  curb  extensions  can  create  conflict
with  motor  vehicle  traffic  and  bicyclists,  and  also  can  complicate
transit  operations.
Curb  extensions  are  associated  with certain  infrastructure  and
maintenance  issues.  The  drainage  patterns  of  a  roadway  can be
changed  by creating  cur
b exte nsions,  which  may
require  additional
stormwater  infrastructure.  This  is  especially  important  to  consider
in  cases  where  the  extensions  are  installed  independently  of  a
larger  roadway  reconstruction.  Curb extensions  are  also
sometimes  controversial  because  of  a  perceived  conflict  with  snow
removal.  Although  curb  extensions  do  require  some
accommodation  on  the  part  of  mai nte
nance  crews,  the  impa
cts
can  be  minimized  through careful design.
Refuge Islands
Another way  to  reduce  crossing  distances  is  to  incorporate
pedestrian  refuge  islands.  Refuge  islands are  appropriate  where it
may  be difficult  for  pedestrians  to  cross  the  entire  roadway  all at
once.  Refuge  islands  allow  pedestrians  to  cross  one  segment  of  the
roadway  at a  time  by  providing  a safe  location  (removed  from
travel  lanes)  at  an  i nter
m

ediate  point within  the roadway  crossing.
Islands  may  be defined  by  paint,  curbs,  guideposts,  and  other
devices.  These  facilities  are  appropriate  in  environments  that
feature  50  ft  (15m)  or  wider  crossings  or  more  than  four  travel
lanes.  At  unsignalized  crossing  locations,  refuge  islands  can
actually  reduce ped estrian
crossing  times  by  allowing  for
one
direction  of traffic  to  be  negotiated  at  a  time,  potentially
shortening  the  time  between  gaps  in  traffic.  Refuge  islands  must
be  accessible  to  all  pedestrians,  and are  ideally  designed  with an  at
‐grade  crosswalk  passage  (as opposed  to a  ramp)  to  aid  those
users  with  dis a
bilities.

Minimizing winter
Minimizing
winter
maintenance conflicts
maintenance
conflicts

One
common  objection  to curb
extensions  is  the  perception  of
increased  burden  on  winter
maintenance  crews.  In  addition  to
careful  design of the  width  and
geometry  of  the  bulbout,  the
potential  for  conflicts  with
snowplows  can  be  minimized
through  a  variety  of  methods,
including:
Flush curbs and  /or  pavement
Tapered front  ends
Vertical  delineators  to  alert
snowplow  operators to  lift  their
blades  if  needed
In  addition  to conscientious  design,
additional  training  for  maintenance
crews  may  be  beneficial.
Above: Landscaped  refuge  island. Photo  courtesy  of pedbikeimages.org

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Raised
Crosswalks
In certain  locations,  raised  crosswalks  can  serve  to  slow  traffic  and
increase  pedestrian  visibility.  By  extending  the  crossing  at  the
same  grade as  the  adjacent  sidewalks,  the  raised  crosswalk  acts  as
a  speed  hump. This  type  of facility  must  be  installed  in  conjunction
with  a  marked  crosswalk  and  is  suitable  only  for  low‐speed  local
streets  which  are  not  emergency  routes.   In addition,  if  the  raised
crosswalk  is  i

nstalled  independently  of  a  larger  roadway  project,
drainage  and stormwater  collection may  be  impacted.
Traffic Signals
Pedestrian  signals  are  traffic  signals  which  indicate  when  it is
appropriate  to cross  the  street.  There  are  two  main  types of
pedestrian  signals:  fixed‐time  and pedestrian  actuated.  In  fixed ‐
time  signals,  the  pedestrian  phasing  is pre ‐timed  and runs
concurrently  with  the  vehicular  signal.  The pedestrian  walk/don’t
walk  signal  indications  are  therefore  automatically  displayed  in
conjunction  with  the  gree n signal  for

vehicles.  These  types of
signals  are  appropriate  at intersections  where  the  existing  signal
phasing  provides  ample  opportunity  for  pedestrians  to  cross  the
street.
Pedestrian ‐actuated signals  alter  the  timing  of  the  traffic  light to
accommodate  pedestrian  activity,  either  by  advancing  th e
signal
phase  cy cle,  in

creasing  the  green  time  of the  light,  or  providing
brief  all‐red  phases  to reduce  conflicts  with  vehicle  turning
movements.  Actuation  of these  signals  is  most  commonly  achieved
through  a  pushbutton.  However,  research indicates that  many
pedestrians  ignore  the  button  or believe  that the button  is
malfunctioni n
g if  ther

e  is a  significant  delay (Hughes,  2001).
AASHTO  notes  that  pushbutton  usage  can  be  as  low  as 25‐33%.
Automated  pedestrian  detection  devices  use  microwave  or
infrared  technology  to  sense  waiting  pedestrians  and  then  send  a
signal  to  switch  to  a  pedestrian  WALK  phase  automatically.  These
devices  have  been  shown  to  significan t
ly  reduce  the  nu
mber of
vehicle‐ pedestrian  conflicts  at  intersections.  (Hughes, 2001)
It  is  also  important  to  consider  the  needs  of  the  vision ‐impaired.
Accessible  pedestrian  signals  use  audible  or  tactile  methods  to
transmit  the  WALK  signal  to  vision ‐impaired  pedestrians.   These
are  most  helpful  in  locations  where  th e
sounds  of  par a
llel or
perpendicular  traffic  do  not  provide  sufficient  audible  cues,  such  as
midblock  crossings or  other  locations.
Pedestrian Hybrid
Pedestrian
Hybrid
Beacons
Beacons

The
pedestrian  hybrid beacon  (also  known  as
the  High  intensity  Activated  crossWalK  (or
HAWK))  is  a  pedestrian ‐activated  warning
device  which  can  be  used  at  midblock
pedestrian  crossings.   The pedestrian  hybrid
beacon  is  an  intermediate  option  between  the
operational  requirements  and  effects  of  a
rectangular  rapid  flash  beacon  and  a  full
pedestrian  signal.  It  provid
es a  positive  stop
control  in  are

as  without  the  high  pedestrian
traffic  volumes  that typically  warrant  the
installation  of  a  signal.
Pedestrian  hybrid  beacons  should  only  be  used
in  conjunction  with  a  marked  crosswalk.  In
general,  they  are  appropriate  for locations  in
which  gaps  in  traffic  are  not  ad
equate  to  per m
it
pedestrians  to  cross,  if  vehicle  speeds on  the
major  street  are  too  high  to  permit  pedestrians
to  cross,  or  if  pedestrian  delay  is  excessive.
Currently,  pedestrian  hybrid beacons  are  not
widely  deployed  in  New  York  State.  Since  this  is
a  still ‐unfamiliar  traffic  control  device  to  many,
extensive  educational  out r

each  to  the  public  is
needed  prior  to  implementation,  to  reduce
confusion  for  drivers  and  pedestrians.

Above: Raised  crosswalk.  Photo  courtesy  of pedbikeimages.org

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Multi
‐Use Paths
The discussion  for  pedestrian  facilities  is  usually  focused  on
sidewalks  and  pedestrian  crossings.  However,  in some
environments,  the  most  appropriate  pedestrian facility  is  a  multi ‐
use  path.  These  facilities  can  provide  travel  options  for  cyclists  and
pedestrians  and  are  not  necessarily  dependent on the  road
network.  This  can  be  useful  in  rural  and  suburban  env ironments
where  the  roads  do  not  le

nd  themselves  to  a  traditional  curb  and
sidewalk  treatment.  (See  page  12  for  discussion  about  the  design
of  multi ‐use paths.)  Multi ‐use  paths  are  also  desirable  to  many
cyclists  and  pedestrians  because  vehicle  use  is  restricted.
Pedestrian Facilities in Suburban and Rural
Environments
Sidewalks and  other  pedestrian  facilities are  often  provided  as  a
matter  of  course  in  an  urbanized  area,  such  as  a traditional
downtown  or  city/village  neighborhood.  But  there  are  many  “gray
areas”  in  the  A/GFTC  region  which  may  also benefit  from  the
provision  of some  pedestrian  accommodation.  These  include:
Isolated  suburban  neighborhoods.
Many communities  have
residential  developments  which  are  not  adjacent  to  pedestrian
generators  such as  commercial  areas or schools.  However,  that
doesn’t  mean  people  stop  walking,  either  for  exercise,  as a social
activity,  or  to  and  from  bus  stops.  Providing  sidewalks  in these
areas  confers  several  benefits.  Some suburban  developments
have  streets  with  pavement  wi dths
exceeding  30′.  Th is can  lead  to
higher  vehicle  speeds,  in

creased stormwater  runoff, and  increased
municipal  maintenance  cost.  In  areas  in which  all  homes  have
double ‐wide driveways,  on ‐street  parking  is  not  utilized  on  a
consistent  basis,  and extra  roadway  width is  not  always  necessary.
Providing  two 11′  lanes  and  sidewalks  with  tree  buf fers
mini mize
s
all  of these  impacts,  in  addition  to  creating  an  attractive  and  safe
place  to walk.
Hamlet  areas.
Much of  the  A/GFTC  planning  area is  rural.  In  these
areas,  there  are  often  small  pockets  of  commercial  or  residential
uses  clustered  together.  Since  these  places  can  act  as  a  focal  point
for  the community,  pedestrian  activity  should  be  accommodated.
AASHTO  recommends  that  these  rural  clusters  or  hamlets  may
receive  the  same  consideration
for  ped
estrian facilities  as  more
urban  areas  (AASHTO,  July  2004).  Even  if  sidewalks  are  not
warranted,  pedestrian crossings  should  be  considered.

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Pedestrian Priority Map
One
of  the  biggest  challenges  in  planning  for  pedestrian  facilities  is
to  know  where  they  should  be  located  within  the  community.  In
cases  where  the  infrastructure  already  exists, the  question
becomes  a  matter  of  priority  for  maintenance  and  repair.  Many
agencies  have  issued  criteria  and  thresholds  for  the placement  of
pedestrian  facilities  for  new  develop m
ent. For  example,  NYSDOT
uses  a  Pedestrian  Generator  Checklist  to  determine  if  a  specific
project  warrants  inclusion  of  pedestrian  facilities.  These checklists
are  useful  on  a  project ‐by ‐project  basis,  but do  not  address  larger
pedestrian  needs  outside  of the  project  site.  In  addition,  these
checklists  can  sometimes  provide  a  narrow  picture  of  the
surrounding  environment,  due  to  their  li

mited scope.
Communities  with  limited  resources  struggle to  determine  where
their  pedestrian  improvement  efforts  are  most  needed.  In
addition,  development  patterns  often  drift  across  municipal
boundaries,  creating  situations  where  a  portion  of a  neighborhood
or  commercial  area has  sidewalks  and  the  rest  does  not.  A/ GFTC
has  therefore  creat

ed  a  Pedestrian  Priority  Map.  This  map  is  not
intended  to  indicate  precise  locations  for  pedestrian  facilities,  but
rather  to show  the  general  areas  in which  pedestrian  activity
would  be likely,  if  facilities  existed.  This  takes  into account
proximity  to  community  features  such as  schools,  bus lines,
pharmacies,  groceries, co nvenience
sto r

es, libraries,  and  municipal
centers;  housing  unit  density;  and “community  core”  areas,  such  as
downtowns  and  hamlet  centers,  which  have  a  high  density  of
commercial  uses.
Each  of  these  factors  was  weighted  to account  for relative
importance  in  terms  of  pedestrian  activity.  For example,  proxi m
ity
to  schools  received  more  weight  than  proximity  to  convenience
stores,

since  schools  traditionally  have  higher  rates  of  pedestrian
activity  among  children,  considered  “at ‐risk”  pedestrians.
This  map  can  be  used  to  determine  where  pedestrian  facilities  are
more  likely  to  be  used.  This  can  be  helpful  in  areas  of more  recent
growth  as  well  as along  th e
thr esholds  betwee

n  urban,  suburban,
and  rural  areas.  The  intent  is  not  to  mandate  that sidewalks  be
installed  in  all areas  of high  demand.

 Pedestrian Priority
Pedestrian
Priority
Map
Map

This
map  can  be  used  to  determine
where  pedestrian  facilities  are  more
likely  to  be  used
A  detailed  version of  the  map  can  be
found  online  here:
http://www.agftc.org/
alternativetransportation.htm
Who should use the
Who
should use the
Pedestrian Priority
Pedestrian
Priority
Map?
Map?

Planning
Boards,  when  reviewing
development  proposals  which  may
or  may  not call  for  pedestrian
features
Departments  of  Public  Works , when
planning  capital  improvements
Elected Officials , when  deciding
whether  to appropriate  funds for
pedestrian  improvements  and  when
completing  local  planning  efforts,
such  as  comprehensive  plans,
downtown  plans,  and  transportation
plans
A/GFTC  Policy  and  Technical
Advisory  Committees , when
reviewing  applicable  pedestrian
planning  efforts  and  project
proposals
NYSDOT staff , when  completing  the
pedestrian  generator  checklist

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Falls Transportation Council |
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Map 4: Pedestrian Priority Area Analysis
31
31

A
detailed  map  of  the  Pedestrian  Priority  Areas
can  be  found  online  at
http://www.agftc.org/alternativetransportation.htm

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IMPLEMENTATION
Partnerships
The
improvements  outlined in  this  plan  are  extensive,  and  will  take
a  significant  and focused  effort  to  accomplish.  In  addition,
implementation  will be  at  the  hands  of  many  different  agencies.
For  on‐road  facilities,  the implementation  lead  is  likely  to  be  the
roadway  owner. For  off‐road  facilities,  a  wider  variety  of  lead
agencies  is  possible,  such  as  local  muni cipaliti

es  or  recreation  and
open  space  groups.  Any  projects  which  involve  acquisition  of
easements  or  rights ‐of‐way  will also  involve  the landowners  as  a
key  stakeholder.
In  terms  of maintenance,  it  can  be  assumed  that  on ‐road  bicycle
and  pedestrian  facilities  will be  the  responsibility  of  whichev er
agency  currently  maintains  the  roadway

itself,  unless  other  specific
provisions  are  made.  For multi ‐use  trails,  there  may  be partnership
opportunities  to  provide  some  or all  maintenance  services.  This
can  take  the forms  of  occasional  volunteer  events,  such as  trail‐
cleaning  days, or a  more  fo rmal
maintenance  agr
eement between
agencies  and  groups  to  perform  maintenance.
In  addition,  local  not ‐for‐ profit  organizations,  such as  the  Feeder
Canal  Alliance,  WCS&QBO,  or  Creating  Healthy Places  to  Live,
Work,  and  Play  may  be able  to assist  in  identifying  and
implementing  some  of the  spot  improvements  listed  in  this  plan.
For  example,  creating   an

d  maintaining  an  inventory  of individual
bicycle  and  pedestrian  hazards  may  be useful.  It may  also  be
possible  to  partner  to  perform  events  such  as  targeted  road
sweepings  or  trail  maintenance,  with  help  from the  local  and
county  DPWs.  Sponsored  community  events  would  also  raise  the
profile  of  th e
organizations  and  provide  an  importa n
t community
education  benefit.

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Funding Sources
The
following  funding  sources  have  historically  been  available  for projects  which  involve  bicycle  and  pedestrian
facilities.  Not  all  of these  programs  are  currently  active;  conversely,  new programs  may  arise which  could  be  applied
towards  bicycle  and  pedestrian  facilities.  In  seeking  funding  sources,  it  is  important  to  keep  in  mind  the  stipulations  and
requirem ents of  the  funding  agency.  For

instance,  projects  funded  under NYSDOT’s  Transportation  Alternatives
Program  must  follow  the  State’s  design,  bidding,  and  grant  reporting  process,  which  can  be  very  involved.
Program Granting Agency On ‐ / Off ‐
Road

Eligible  Activities Local
Match

Transportation
Alternatives  Program

NYS  Department
of  Transportation
(NYSDOT)

Both Provision  of  Facilities  for  Bicycles  and  Pedestrians  (on‐  or
off ‐road)

Yes
Make  the  Connection A/GFTC Both Small‐ scale projects  that  improve  the  region’s  bicycle  and
pedestrian  travel  network

Yes
Highway  Safety
Improvement  Projects
(HSIP)

FHWA/NYSDOT Both Safety  improvement  projects  on  any  public  road  or
publically  owned  bicycle  or  pedestrian  pathway  or  trail.

Yes
National  Scenic
Byways  Discretionary
Grants

Federal  Highway
Administration
(FHWA)

On‐ Road Construction  along  a  scenic  byway  of  a  facility  for
pedestrians  and  bicyclists;  safety  improvements  for
deficiencies  resulting from  designation  as  a  Byway

Yes
Consolidated  Local
Street  and Highway
Improvement
Program  (CHIPS)

NYSDOT On‐ Road Local  highway  projects  which  can  include  elements  such
as:  Bike  lanes  and wide  curb  lanes;  shared  use  paths,  and
bike  paths  within  the  highway  ROW

No
Recreational  Trails
Program

NYS  Office  of
Parks,  Recreation,
and  Historic
Preservation  (NYS
OPRHP)

Off ‐Road Acquisition,  development,  rehabilitation  and
maintenance  of  multi‐ use trails

Yes
Local  Waterfront
Revitalization  Program

NYS  Department
of  State  (NYSDOS)

Both Implementation  of  projects  listed  in  a  locally  adopted
Waterfront  Revitalization  Plan;  communities  without  this
type  of  plan  are  not  eligible  to  apply

Yes
Adirondack  Smart
Growth  Grants

NYS  Department
of  Environmental
Conservation
(NYSDEC)

Both Focused  on  planning  and  design  projects  including:
Efficient  transportation  systems;  Main  streets,  including
bicycle  and  pedestrian  access; Public access
improvements,  including  trails

No
Creating  Healthy
Places  to  Live,  Work,
and  Play

NYS  Department
of  Health

Both Small  grants  available  to municipalities  to  pursue
Complete  Streets  projects  or  purchase  bicycle racks,  if
community  has  passed  Complete  Streets  policy

No
Cleaner  Greener
Communities

NYSERDA Both Implementation  of  regional  sustainability  projects,
including  bicycle  and  pedestrian  activities

Yes
Surface  Transportation
Program/National
Highway  Performance
Program*  (STP/NHPP)  FHWA/NYSDOT
On‐Road  Provision  of  Facilities  for  Bicycles  and  Pedestrians  (as  part
of  concurrent  construction  of  roadway  or  bridge
Yes

*Note:  STP/NHPP  funding  currently  constrained  by  preservation  funding  targets  set  by  NYSDOT

Bay / Sanford Intersection Evaluation

Bay Street & Sanford Street
Glens Falls, NY INTERSECTION SAFETY STUDYDecember 2013
prepared for:
Prepared by: 3 Winners Circle
Albany, NY 12205CHA File: 25857

Bay St. and Sanford St. Safety Study, Glens Falls, NY i TABLE OF CONTENTS
EXECUTIVE SUMMARY
1.0INTRODUCTION …………………………………………………………………………………………………………… 4
2.0EXISTING CONDITIONS …………………………………………………………………………………………………. 4
A. SITE AREA …………………………………………………………………………………………………………….. 4
B. SITE OBSERVATIONS / POTENTIAL FACTORS ……………………………………………………………….. 8
C. ACCIDENT HISTORY ………………………………………………………………………………………………… 9
D. TRAFFIC VOLUMES ……………………………………………………………………………………………….. 10
E. LEVEL OF SERVICE AND CAPACITY ANALYSIS …………………………………………………………….. 13
3.0IMPROVEMENT INITIATIVES ………………………………………………………………………………………… 14
4.0CONCLUSION …………………………………………………………………………………………………………….. 16
LIST OF TABLES
Table 1: Types of Collisions ………………………………………………………………………………………………………. 9
Table 2: Traffic Volumes ………………………………………………………………………………………………………… 10
Table 3: HCM Intersection LOS ……………………………………………………………………………………………….. 13
Table 4: LOS Summary – PM peak period ………………………………………………………………………………….. 13
LIST OF FIGURES
Figure 1: Bay Street and Sanford Street ……………………………………………………………………………………… 5
Figure 2: AADT Hourly Traffic Volumes …………………………………………………………………………………….. 11
Figure 3: PM Peak Hour Volumes …………………………………………………………………………………………….. 12
Figure 4: Backplate with Retroreflective Border …………………………………………………………………………. 15
LIST OF PHOTOS
Photo 1: On Bay Street looking south at Sanford Street ………………………………………………………………… 6
Photo 2: Pedestal pole on southeast corner………………………………………………………………………………… 6
Photo 3: On Bay Street looking north (Hunter St. on Right) …………………………………………………………… 7
Photo 4: On Hunter Street looking westbound toward Bay St. ……………………………………………………….. 7
Photo 5: On Sanford Street at stop line looking westbound …………………………………………………………… 8
Photo 6: On Hunter St. at stop bar and sign looking north …………………………………………………………….. 8
Photo 7: On Sanford Street looking westbound …………………………………………………………………………… 8
Photo 8: Signal Pole at northeast corner …………………………………………………………………………………… 14
LIST OF APPENDICES
Appendix A-Accident Evaluation
Appendix B – Traffic Volume Data

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 1 EXECUTIVE SUMMARY
CHA conducted a study to evaluate the accident history and identify measures to improve safety at the
Bay Street and Sanford Street intersection, located in Glens Falls, New York. The tasks performed for
this traffic study included the following:
1.Review of accident data for a 5-year period to determine the most frequent types of accidents
and common contributing factors in those accidents.
2.Collection of traffic data by means of field visit including manual turning movement counts,
geometric measurements and signal timing and phasing.
3.Analysis of collected traffic data.
4.Development of measures to improve traffic and safety conditions at this intersection.
Bay Street and Sanford Street intersect at a four-way intersection operating under traffic signal control.
Each approach consists of a shared left/ through/right turn lane with parking permitted on both sides of
all approaches. Bay Street and Sanford Street are essentially straight and level. Pedestrians are
accommodated through a sidewalk on the both sides of Bay Street and Sanford Street with a utility strip
separating the concrete curb from the sidewalk. Pedestrian signals exist to accommodate crossings on
all approaches. There are no separate bicyclist accommodations. Bus stops exist on both the Bay Street
north and south approaches. There is street lighting and overhead utilities that run along the south side
of Sanford Street and the west side of Bay Street. The posted speed limits of Bay Street and Sanford
Street are 30 mph. Approximately 145 ft. south of this intersection, Hunter Street intersects Bay Street
at an unsignalized “T” intersection.
The accident analysis was performed for the Bay Street and Sanford Street intersection using accident
data provided by the City of Glens Falls Police Department. The analysis includes crashes for a five year
period that occurred from April 24, 2008 through April 24, 2013. Detailed accident summary sheet,
collision diagram, and detailed accident history are included in Appendix A.
There were 25 accidents at the Bay Street and Sanford Street intersection over the last five years. Based
on the data, 16 of these accidents occurred within the last three year period. There were 9 (36%)
injury, 13 (52%) property damage only, and 3 (12%) non-reportable or unknown accidents. There were
no fatalities. There were 5 accidents (20%) that occurred at the Bay Street and Hunter Street
intersection. The two predominate types of accidents were angle vehicle crashes and rear-end crashes,
although there was no identifiable pattern associated with the rear-end accidents. See Section 2.0C for
a complete discussion of the accident history.
A capacity analysis was performed for the PM peak period which shows that the intersection is
operating at an overall LOS B with all approaches operating at LOS A or B. See Sections 2.0D and 2.0E
for a complete discussion of the traffic volumes and capacity analysis.
Based upon a site visit and a review of the existing geometrics, operations and accident history, several
observations and potential contributing factors were identified and are discussed in Section 2.0B.
Among the observations are limited visibility of the traffic signals for the Sanford Street approaches and
close spacing and limited visibility for Hunter Street. Although the accident data did not indicate a
safety issue associated with pedestrians, some of the pedestrian signals were not functioning according

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 2 to the intended operation and the pedestrian signal at the northwest corner of the intersection was
missing at the time of this study due to an accident that occurred in April 2013.
Improvements have been identified for the City of Glens Falls’ consideration to improve safety at this
intersection. Detailed descriptions of the recommended improvements are provided in Section 3.0 of
this report. These improvements include removing vegetation, modifying the pedestrian signals,
modifying the vehicular signals, removing or delineating the parking spaces and providing access
management.
A brief description of these improvements is as follows:
Vegetation
Trees, bushes and overgrown vegetation limit visibility at the northeast corner of the Bay Street and
Hunter Street intersection and along Sanford Street on the north side of the westbound approach. Lines
of sight should be maintained by trimming and removing as necessary, the trees, bushes and overgrown
vegetation.
Pedestrian Signals
While the accident data did not indicate a safety issue, the pedestrian signals at the southwest and
southeast corners are not functioning according to the intended operation. The pushbuttons at the
southwest corner operate the opposite approach than designated by placement and signage (e.g.
button to cross Bay Street south leg operates Sanford Street west leg and the button to cross the
Sanford Street west leg operates the Bay Street south leg) and there is no accommodation to cross the
Bay Street south leg from the southeast corner, since the pedestrian button at the southeast corner
controls the Sanford Street west leg crossing. In addition, the pedestrian signal at the northwest corner
of the intersection is missing due to an accident that occurred in April 2013. The pushbuttons, signs and
pedestrian signals at the southeast and southwest corners should be corrected and the signal at the
northwest corner installed to accommodate pedestrian crossings through the intersection.
Vehicular Signals
Sections 2.0B and 3.0 provide a detailed discussion of the placement, layout and visibility of the
vehicular traffic signals. Given the longitudinal positioning and the mounting height over the pavement,
the visibility of the signals may be a contributing factor in the accidents at this intersection.
Adjust Signal Head PositionThe signals controlling the westbound approach should be lowered at least 2.5 to 3 feet. The signals
controlling the eastbound approach should be lowered at least 1.5 to 2 feet. Determination of the
need for lowering the mast arm, installing new or providing signal brackets to effectively lower the
signals should be assessed. A detailed evaluation of the signals and the structural capacity of the
supports will be necessary prior to implementing this measure. This evaluation could be
approached by having a structural engineer review and evaluate the design shop drawings of the
mast arm poles that were installed and/or work with the pole manufacturer to determine the ability
of the poles to accept loading revisions based on their design load.

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 3 Install backplates Backplates with retroreflective borders is a low cost safety treatment that can be added to the
existing traffic signal indication. A signal head equipped with a backplate with a retroreflective
border enhances the visibility of the illuminated signal faces, in both daytime and nighttime
conditions, which has the potential to reduce unintentional red-light running crashes. Prior to
implementing this measure, the structural capacity of the supports will need to be evaluated. An
average estimated cost for a backplate with yellow retroreflective border is $120 to $150 per
backplate.
Access Management
Five of the 25 accidents over the 5 year period occurred at the Bay Street and Hunter Street
intersection. Long term, evaluation of permitting only right turns in and right turns out of Hunter Street
and restricting left turn movements could be considered. This evaluation would need to consider the
impact the diverted left turn movements would have to the adjacent intersections.

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 4 1.0INTRODUCTION
CHA conducted a study to evaluate and recommend measures to improve safety at the Bay Street and
Sanford Street intersection located in Glens Falls, New York. The study was initiated by a request from
the Glens Falls Police Department to the Adirondack/ Glens Falls Transportation Council (AGFTC) to
evaluate safety concerns at this intersection, which has been the location of several accidents over the
last few years. To address the concerns, AGFTC retained CHA to perform an analysis of existing traffic
and safety conditions at this intersection and to develop engineering solutions that will result in
improvements of the safety for all users, while minimizing impacts to the local community. Tasks
performed for this traffic study included the following:
1.Review of accident data for a 5-year period to determine the most frequent types of accidents
and common contributing factors in those accidents.
2.Collection of traffic data by means of site visit including manual turning movement counts,
geometric measurements and signal timing and phasing.
3.Analysis of collected traffic data.
4.Development of alternatives to improve traffic and safety conditions at this intersection.
2.0EXISTING CONDITIONS
A.SITE AREA
Bay Street [CR 7] and Sanford Street are classified as Urban Minor Arterials. Bay Street is a north-south
roadway that intersects at Glen Street (US Route 9) at its southern end and extends northerly beyond
Douglas Street where it becomes Bay Road. It is generally a two-lane roadway that widens at various
intersections to accommodate turn lanes.
Sanford Street is an east-west roadway that intersects with Quaker Road (State Route (SR) 254) at its
easterly end and at Glen Street (US Route 9) at its westerly end. It is generally a two-lane roadway that
widens at select intersections to accommodate turn lanes. Sanford Street provides access to the old
Sanford Street School, now occupied by BOCES, which is located at the corner of Sanford Street and Ash
Avenue, west of the Sanford Street and Bay Street intersection. Sanford Street is a well-traveled
pedestrian route through the City to the Glens Falls High School, Glens Falls Middle School, and Jackson
Heights Elementary Schools.
The Bay Street and Sanford Street intersection is located in a highly urbanized setting. Land use of the
area within the intersection includes commercial establishments consisting of Bay Optical of Glens Falls
on the northwest corner, a strip building on the southwest corner consisting of multiple uses including
Bellaggio Pizza and Bellissima Salon, Global Tech & Media, Inc. on the north east corner and Main Moon
Chinese Restaurant on the southeast corner. Beyond the intersection along Bay Street, both to the
north and south, the land use is commercial and along Sanford Street, to the east and west the land use
is residential. The intersection is shown in the following Google aerial image below.

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 5 Figure 1: Bay Street and Sanford Street
Bay Street and Sanford Street are essentially straight and level. The two streets are nearly
perpendicular but there is a slight horizontal curve on Sanford Street just west of the intersection.
Bay Street and Sanford Street intersect at a four-way intersection operating under traffic signal control.
Each approach consists of a shared left/ through/right turn lane with parking permitted on both sides of
all approaches. Parking areas on Bay Street are highlighted with a single white edge line but individual
spaces are not designated within these areas. On street parking is also permitted on both sides of
Sanford Street although no parking areas are defined with pavement markings. Pedestrians are
accommodated through a sidewalk on the both sides of Bay Street and Sanford Street with a utility strip
separating the concrete curb from the sidewalk. There are no separate bicyclist accommodations.
Each approach is controlled by a pair of standard 3-section vehicular signal heads vertically mounted on
mast arms. The mast arm poles are located on the northeast and southwest corners of the intersection
and are angled diagonally through the intersection. The existing operation of the signals consists of two
phases (Bay Street north/south and Sanford Street east/west). The north/south phase was observed to
be approximately 35 seconds with the east/west phase observed to be approximately 18 seconds for a
total cycle length of 65 seconds. Each phase included approximately 4 seconds yellow and 2 seconds all
red. The signal is not part of a coordinated system. No Turn on Red signs are mounted on the mast
arms for each of the approaches to the intersection. See Photo 1.Glens Falls Bay OpticalMain MoonChineseGlobal Text &MediaBellaggio Pizza andBellissima Salon

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 6 Photo 1: On Bay Street looking south at Sanford Street
The height of the signals, from the top of pavement to the bottom of the signal head housing was
measured in the field. The signals that control the northbound and westbound approaches were at 20.5
ft. and 20.9 ft. The signals that control the southbound and eastbound approaches were approximately
19.5 ft. and 20 ft.
Pedestrian signals exist on each of the corners, consisting of one-section pedestrian signal heads with
the upraised hand and walking person symbol overlaid
upon each other. No countdown timers exist at this
intersection. The pedestrian signal heads, buttons and
signs are mounted on the mast arm at the northeast and
southwest corners. At the southeast corner, the pedestrian
signals, pushbuttons and signs for crossing the south leg of
Bay Street and the east leg of Sanford Street are both
mounted on the same pedestal pole. At the time of this
study, the pedestrian signal at the northwest corner, which
would have consisted of the pedestrian signals,
pushbuttons and signs for crossing the north leg of Bay
Street and the west leg of Sanford Street, both mounted on
the same pedestal pole, was missing due to a recent accident that occurred which demolished the Bay
Optical sign and the pedestrian signals.Photo 2: Pedestal pole on southeast corner

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 7 In addition, some of the existing pedestrian push buttons were not operating the intended approach as
noted below:
Southwest corner pedestrian signal·Pushbutton to cross the Bay Street south leg operates the Sanford Street west leg crossing.
·Pushbutton to cross the Sanford Street west leg operates the Bay Street south leg crossing.
Southeast corner pedestrian signal·Pushbutton to cross the Bay Street south leg operates the Sanford Street west leg crossing.
Hence, there is no accommodation for pedestrians to cross the Bay Street south leg from the
southeast corner of the intersection.
Double yellow centerline and white lane line pavement markings along with the stop bars and crosswalk
markings exist on Bay Street. A double yellow centerline pavement marking exists for a minimal
distance along Sanford Street on both the east and west legs of the intersection with no other pavement
markings beyond that, aside from the stop bar and crosswalk lines.
A bus stop exists on both the Bay Street north and south approaches. There is street lighting and
overhead utilities that run along the south side of Sanford Street and the west side of Bay Street. The
posted speed limits of Bay Street and Sanford Street are 30 mph.
Hunter Street intersects Bay Street approximately 145 feet south of the Bay Street and Sanford Street
intersection. See Photo 3. Hunter Street is a two-lane east-west roadway that is Stop controlled and
intersects Bay Street forming an unsignalized “T” intersection. See Photo 4. The Hunter Street
westbound approach consists of a shared left/ right turn lane. Pedestrians are accommodated through
a sidewalk on both sides of Hunter Street with a grassed utility strip separating the concrete curb from
the sidewalk. There are no separate bicyclist accommodations. There are no pavement markings on
Hunter Street. Overgrown brush and vegetation on the northeast corner of the intersection limit the
intersection sight distance.
Photo 3: On Bay Street looking north (Hunter St. on Right) Photo 4: On Hunter Street looking westbound toward Bay St.

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 8 B.SITE OBSERVATIONS / POTENTIAL FACTORS
The following is a summary of some observations from the field visits:
·Pedestrian pushbuttons are not operating as intended. The pedestrian signal at the northwest
corner is missing, the pushbuttons at the southwest corner operate the opposite approach than
designated by placement and signage (e.g. button to cross Bay Street south leg operates Sanford
Street west leg), and there is no accommodation to cross the Bay Street south leg from the
southeast corner, since the pedestrian button at the southeast corner controls the Sanford
Street west leg crossing. See Section 2.0A.
·Visibility of the signals and signage for
vehicles at the Sanford Street eastbound and
westbound approach stop lines is limited due
to the height and longitudinal placement of
the signals.

·Visibility of the signal and overhead signage is
impeded for Sanford Street westbound
vehicles due to the tree canopy overhanging
the Sanford Street westbound approach. See
Photo 7.
·Visibility of southbound vehicles, pedestrians
and bicyclists on Bay Street is impeded for the
Hunter Street vehicles due to the northbound
queue at Sanford Street, on-street parking
and overgrown bushes at the northwest corner of the Hunter Street and Bay Street intersection.
See Photos 2 and 6.
·Vehicles use the parking lanes on the Bay Street north and south approaches to overtake the
leading vehicles waiting to turn left at the intersection.
·The unmarked eastbound and westbound approach lanes are wide enough to allow vehicles to
overtake other vehicles stopped and turning left on these approaches. As a result, drivers may
overtake the leading vehicles waiting to travel through or turn left at the intersection. See
Photo 1 above.Photo 6: On Hunter St. at stop bar and sign looking north Photo5: On Sanford Streetat stop line looking westboundPhoto7: On Sanford Street looking westbound

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 9 ·Bicyclists ride both on the sidewalk and on the roadway.
·Parking within the immediate vicinity of the intersection was not observed during the field visits.
However, on-street parking provided close to the intersection would impede sight distance. The
parallel parking maneuvers increases potential for collisions between vehicles parking and those
following who might need to suddenly stop as well as for those parked vehicles entering traffic
which may force vehicles to stop abruptly.
·The close spacing of Hunter Street to the Bay Street and Sanford Street intersection and the
volumes southbound on Bay Street has the potential to increase accidents due to the turning
maneuvers into and out of this Hunter Street intersection.
C.ACCIDENT HISTORY
An accident analysis was performed for the Bay Street and Sanford Street intersection using accident
data provided by the City of Glens Falls Police Department. The analysis includes crashes for a five year
period that occurred from April 24, 2008 through April 24, 2013. Table 1 summarizes the accident
history at the study area intersection. In addition, a detailed accident summary sheet and a collision
diagram are included in Appendix A.
There were 25 accidents at the Bay Street and Sanford Street intersection over the last five years. Based
on the data, 16 of these accidents occurred within the last three year period. There were 9 (36%)
injury, 13 (52%) property damage only, and 3 (12%) non-reportable or unknown accidents. There were
no fatalities.
Table 1: Types of CollisionsType of CollisionNumberPercentageRear-End832%Right Angle936%Left Turn28%Sideswipe312%Overtaking14%Pedestrian/Bicyclist28%Total25100%The data also shows the following:
·Eighty percent (80%) of the accidents occurred in daylight which suggests that night-time
visibility is not the primary contributing factor of the crash history.
·Seventeen accidents (68%) occurred with dry pavement conditions, with the remaining 8
accidents (32%) occurring with wet (5), snow/ice (2), slush (1) conditions.
·Five accidents (20%) occurred at the Hunter Street intersection.
·There was no distinct pattern of the rear-end accidents as 5 occurred at the Bay and Sanford
Street intersection (2 on each of the northbound and southbound approaches and 1 on the
westbound approach) and 3 occurred at the Bay Street and Hunter Street intersection (2 on the
Bay Street southbound and 1 on the northbound approaches).
·The two bicyclist accidents involved a westbound vehicle from Sanford Street and Hunter Street
and a southbound bicyclist traveling against traffic.
·One of the right angle accidents involved alcohol.

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 10 ·The predominate type of angle accidents involved eastbound vehicles with either the north- or
southbound Bay Street vehicles.
The intersection accident rate was calculated and compared to the statewide average for intersections
on state roads with similar geometry and traffic control. The accident rate for the subject intersection
(not including the 5 Hunter Street accidents) is approximately 0.80 accidents per million entering
vehicles (acc/MEV) as compared to the statewide average of 0.34 acc/MEV. It is noted that the
statewide average is calculated for state roadways only and that since the Bay Street and Sanford Street
are county and local roads, respectively, the characteristics may be slightly different. In addition,
accident rates are typically reported for a 3-year rather than a 5-year period.

D.TRAFFIC VOLUMES
The New York State Department of Transportation (NYSDOT) Traffic Volume Data Viewer was used to
obtain the Average Annual Daily Traffic Volume (AADT) data for Bay Street and Sanford Street. Table 2
below summarizes the 2010 AADT. Figure 2 below shows hourly volumes approaching the intersection.
See Appendix B for the Traffic Hourly Data Report.
Table 2: Traffic VolumesStreetFrom – ToAADTAM PeakHourPM PeakHourNB/ EB1SB/ WB1TotalBay StreetWashington St. to Sanford St5022537510397683897Bay StreetSanford St. to City Line4845546110306615857Sanford Street Bay Street to Ridge Street1816186536812583371
northbound (NB) and southbound (SB) directions for Bay Street and eastbound (EB) and westbound (WB) directions for Sanford Street.
The Traffic Volume Report provided vehicle classification and speed data for Bay Street for the roadway
segment of Sanford Street to the City Line. NYSDOT used an automatic traffic recorder (ATR) device,
placed just north of Hope Avenue to collect the data. Vehicle classification data showed that
approximately 4% of the daily traffic on this segment of Bay Street was heavy vehicles, comprised as 3%
traveling north and 5% traveling south. The speed data showed that the 85th
percentile speed was 35.9
mph in the north direction and 36.8 mph in the south direction with a 50th
percentile speed of
approximately 31.5 mph for each of the directions.
Three signalized intersections exist on Bay Street between Washington Street and Sanford Street (at
Washington Street, Grand Street, Sanford Street). No signalized intersections exist on Bay Street north
of Sanford Street to the City line. North of the City line, there is one midblock crossing, to accommodate
the Warren County Bikeway, and a signalized intersection at NYS Route 254. The data indicates that
motorists travel at a slightly higher 85th
percentile speed in the southbound direction than the
northbound direction. This suggests that the motorists are traveling at a slightly higher speed in the
roadway segment where there is uninterrupted flow and a slightly lower speed in the roadway segment
where there is interrupted flow due to the signals. Bay Street is posted 30 mph so the results of the
speed study are consistent with expected 50th
and 85th
percentile speeds for this posted speed limit and
the character of this area of Bay Street.

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 11 Figure 2: AADT Hourly Traffic Volumes
Intersection turning movement traffic counts were conducted at the Bay Street and Sanford Street and
Hunter Street intersections on July 30, 2013 during the weekday PM peak period from 4:00 pm to 6:00
pm. Traffic counts were recorded at 15-minute increments. Pedestrian counts were also recorded at
the intersections concurrently with the vehicle counts. The PM peak hour occurred from 4:30 pm to
5:30 pm. See Figure 3 below for the PM peak period volumes. The traffic volumes are included in
Appendix B.
0 50 100 150 200 250 300 350 400 450 500HourlyTrafficVolume
Time of Day Average Weekday Traffic Volume: 2010
Bay Street and Sanford Street IntersectionBay Street
NorthboundBay Street
SouthboundSanford Street
Westbound

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 12 The volumes show the following:
·The two-way PM peak period volume on Bay Street is approximately 820 vehicles, which is more
than twice the two-way PM peak period volume on Sanford Street (375 vehicles).
·Approximately 60% of the traffic entering Hunter Street is from the north (turning left).
·Approximately 85% of the traffic exiting Hunter Street is to the north (turning right).
·The primary pedestrian movement during the PM peak period was from the south (17
pedestrians).

415
402
39
353
27
Sanford Street
211
29
28
178
103
131
164
32
19
158
45
345
28
404
418
382
22
Hunter
Street
32
38
6
35
386
13
388
399
BayStreetFigure 3: PM Peak Hour Volumes

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 13 E.LEVEL OF SERVICE AND CAPACITY ANALYSIS
Intersection capacity analyses were conducted for the intersection using methodology outlined in the
Highway Capacity Manual 2000 (HCM 2000) published by the Transportation Research Board. Level of
service (LOS) criteria are measured in average delay per vehicle (seconds), and range from LOS A to LOS
F. LOS range from A to F with LOS A considered excellent with very little vehicle delay while level of
service F generally represents conditions with long vehicle delays. Table 3 identifies the levels of service
and associated delay ranges for each type of traffic control.
Capacity analyses were performed for the 2013 Existing PM peak period conditions. Summaries of these
analyses are shown in Table 4. See Appendix B for the LOS analyses. The analyses show that the
intersection operates at overall LOS B with each approach operating at LOS A or B. No geometric
improvements are necessary to accommodate the operations at this intersection.
Table 3: HCM Intersection LOSLOSSignalizedControl Delay per Vehicle (second)A≤ 10B> 10-20C> 20-35D> 35-55E> 55-80F> 80Table 4: LOS Summary – PM peak periodIntersection & ApproachLaneGroup2013 ExistingLOSDelayBay Street and Sanford StreetEastbound
Westbound
Northbound
SouthboundLTR
LTR
LTR
LTRB
B
A
A19.4
19.7
9.6
9.6OverallB12.8

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 14 3.0IMPROVEMENT INITIATIVES
Based on a review of the existing traffic conditions and accident analysis, several improvements have
been identified as discussed below.
Vegetation
While most of the intersection and surrounding area is open (Photo 1), there are a few locations where
trees and vegetation have become overgrown impairing visibility. At the northeast corner of the Bay
Street and Hunter Street intersection, there is a bush and some overgrown vegetation that limits
visibility (Photo 6) to pedestrians and bicyclists riding on the sidewalk.
Likewise, the trees along the north side of the Sanford Street westbound approach have canopies that
are overhanging the roadway and impacting the view of the traffic signal. The overhead No Right Turn
on Red sign is not visible due to the canopy from these trees (Photo 7). Trees and brush should be
trimmed and removed as necessary to maintain adequate lines of sight.
Pedestrian Signals
While the accident data did not indicate a pedestrian/bicycle safety issue, the pedestrian signals are not
functioning according to the intended operation. In addition, the pedestrian signal at the northwest
corner of the intersection is missing due to an accident that occurred in April 2013. As discussed in
Section 2.0B, the pedestrian signals at the southwest and the southeast are not functioning correctly.
The pushbuttons, signs and pedestrian signals at the northeast corner (Photo 8) are functioning
correctly.
Photo 8: Signal Pole at northeast corner
The pushbuttons, signs and pedestrian signals at the southeast and southwest corners should be
corrected so that the buttons activate the correct signals, and the damaged/missing signals at the
northwest corner should be re-installed to accommodate pedestrian crossings through the intersection.
Vehicular Traffic Signals
The traffic signals that control the Sanford Street eastbound and westbound approaches exceed the
maximum standard for mounting heights of signal faces, as noted in Section 4D.15 of the MUTCD and
NYS Supplement. In accordance with these documents, vehicular signal faces located over any portion

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 15 of a highway that can be used by motor vehicles shall be at least 15 feet above the pavement and not
more than 19 feet. All of the existing vehicular signal faces exceed this maximum mounting height with
the signals ranging in height from 19.5 feet to 20.9 feet (from top of pavement to bottom of signal
housing). Since all of the signals exceed the maximum height to the bottom of the signal housing,
several of the signals also exceed the maximum top of signal head mounting height.
Visibility of the signals, given the longitudinal positioning and the mounting height over the pavement,
may be a contributing factor in the accidents at this intersection.
Adjust Signal Head PositionsThe signals controlling the westbound approach should be lowered at least 2.5 to 3 feet. The signals
controlling the eastbound approach should be lowered at least 1.5 to 2 feet. Determination of the
appropriate method to lower the signal heads, including the use of new signal brackets, lowering the
mast arm, or installing new signals should be assessed. A detailed engineering evaluation, including
an assessment of the structural capacity of the supports, impact on utilities, and visibility of the
signal heads will be necessary prior to implementing this measure. This evaluation could be
approached by having a structural engineer review and evaluate the design shop drawings of the
mast arm poles that were installed and/or work with the pole manufacturer to determine the ability
of the poles to accept loading revisions based on their design load.
Install backplates Backplates with retroreflective borders is a low cost safety treatmentthat
can be added to the existing traffic signal indication. A signal head equipped
with a backplate with a retroreflective border enhances the visibility of the
illuminated face of the signals, in both daytime and nighttime conditions,
which has the potential to reduce unintentional red-light running crashes.
Prior to implementing this measure, the structural capacity of the supports
will need to be evaluated.
Access Management
Five of the 25 accidents over the 5 year period occurred at the Bay Street and Hunter Street
intersection. Long term, evaluation of permitting only right turns in and right turns out of Hunter Street
and restricting left turn movements could be considered. This evaluation would need to consider the
impact the diverted left turn movements would have to the adjacent intersections.Figure4: Backplate withRetroreflective Border

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 16 4.0CONCLUSION
This report summarizes the results of an accident analysis for the Bay Street and Sanford Street
intersection and identifies several improvements that can be implemented to improve safety and bring
existing vehicular and pedestrian signal in compliance with the MUTCD and NYS Supplement.
Tasks performed for this traffic study included the following:
1.Review of accident data for a 5-year period to determine the most frequent types of accidents
and common contributing factors in those accidents.
2.Collection of traffic data by means of site visit including manual turning movement counts,
geometric measurements and signal timing and phasing.
3.Analysis of collected traffic data.
4.Development of alternatives to improve traffic and safety conditions at this intersection.
An accident analysis was performed for the Bay Street and Sanford Street intersection using accident
data provided by the City of Glens Falls Police Department. The analysis includes crashes over a five
year period that occurred from April 24, 2008 through April 24, 2013. Detailed accident summary sheets
and a collision diagram are included in Appendix A. A summary of the data showed that there were 20
accidents at the Bay Street and Sanford Street intersection and 5 accidents at the Bay Street and Hunter
Street intersection over the last five years. Based on the data, 16 of these accidents occurred within the
last three year period. There were 9 (36%) injury, 13 (52%) property damage only, and 3 (12%) non-
reportable or unknown accidents. There were no fatalities.
Based on the accident analysis, the intersection crash rate is more than two times higher than the
statewide average for similar intersections. The analysis shows that the two primary accident patterns
at the intersection were rear end accidents and angle accidents between the eastbound approach and
either the north- or southbound approaches. Although 32% of the accidents were rear- end accidents,
there was no pattern associated with these types of accidents.
While the accident data did not indicate a pedestrian/bicycle safety issue, the pedestrian signals at the
southwest and southeast corners are not functioning according to the intended operation and the
pedestrian signal at the northwest corner of the intersection is missing due to an accident that occurred
in April 2013. The pushbuttons, signs and pedestrian signals at the southeast and southwest corners
should be corrected and the signal at the northwest corner installed to accommodate pedestrian
crossings through the intersection.
Average Annual Daily Traffic Volume (AADT) data were obtained from the New York State Department
of Transportation (NYSDOT) Traffic Volume Data Viewer and turning movement counts were performed
for the PM peak period (4 pm to 6 pm) on July 30, 2013. Based upon the existing traffic volumes and
capacity analysis, there is sufficient capacity and acceptable operations at this intersection such that no
geometric improvements are necessary. The capacity analyses performed for the 2013 Existing PM peak
period conditions show that the intersection operates at overall LOS B with each approach operating at
LOS A or B. The traffic volume data is included in Appendix B.

Bay and Sanford Street, Glens Falls, NY: Safety StudyPage 17 Several measures have been identified for the City of Glens Falls’ consideration to improve safety at this
intersection including:
·Removing vegetation along the east side of Bay Street between Hunter Street and Sanford
Street and trim the trees along the north side of the Sanford Street eastbound approach
between Stoddard Avenue and Bay Street.
·Modifying the pedestrian signals at the southwest and southeast corners and install the
pedestrian signal at the northwest corner.
·Lower the signal heads to comply with MUTCD standards.
·Install signal backplates (subject to confirmation of design loads).
·Providing access management.

APPENDIX A
ACCIDENT DATA

No. of
Accidents
% of AccidentNo. ofAccidents% of AccidentNo. ofAccidents% of Accident
00%832%526%
936%28%421%
1352%936%00%
14%312%15%
28%00%421%
25100%14%316%
28%211%
00%00%
00%00%
00%
19100%
25100%No. ofAccidents% of AccidentNo. ofAccidents% of AccidentNo. ofAccidents% of Accident
312%00%832%
312%312%520%
728%728%624%
312%936%624%
728%624%
28%00%
25100%25100%25100%
No. of
Accidents% of AccidentNo. of
Accidents% of AccidentNo. of
Accidents% of Accident
1456%1768%2080%
728%520%00%
312%00%14%
14%28%416%
00%14%00%
00%00%00%
00%00%
25100%25100%25100%No. ofAccidents% of AccidentNo. ofAccidents% of AccidentNo. ofAccidents% of Accident
25100%728%521%
00%416%1354%
00%624%625%
00%28%24100%
00%312%
00%28%
14%
25100%25100%Wednesday>55
ThursdayTotal Straight and Level
Straight and Grade
Staright at Hillcrest
Curve and Level
Curve and Grade
Curve at Hillcrest
TotalMonday16-25
Tuesday26-55
Sunday
Total TotalTotalTotal
Day of WeekAge of Driver
Friday
Saturday Roadway CharacteristicsFog/Smog/SmokeFloodedUnknown
UnknownOther/Unknown SnowSnow/IceDark Road – Lighted
Sleet/Hail/Freezing RainSlushDark Road – Unlighted CloudyWetDawn
RainMuddyDusk WeatherPavementLight Conditions
ClearDryDaylight 2012
Unknown
TotalTotalTotal 20114 PM – 7 PMFall (Sept.- Nov.)
7 PM – 12 AM
2013 20096 AM – 10 AMSpring (Mar. – May)
201010 AM- 4 PMSummer (June – Aug.) YearTime of DayTime of Year
200812 AM – 6 AMWinter (Dec. – Feb.) TotalOvertaking
Other
TotalTotal Pedestrian/Bicyclist Non-ReportableSideswipeWest
UnknownHead-on
Unknown AnimalNorth & West
North & East Property Damage OnlyRight AngleEast25857Accident Summary SheetSeverityTypeDirection
FatalRear-EndNorth April 24, 2008 to April 24, 2013Sanford StreetSUMMARY OF ACCIDENT HISTORYApril 24, 2008 – April 24, 2013PIN
CHA Project No. 25857Route No. or Street Name:
Bay Street
South & West
Fixed ObjectSouth & East City
Glens Falls
DateCHA Project No. Project Name:
AGFTC Safety Study
County
WarranAt Intersection with / or Between
InjuryLeft TurnSouth

TE 213 (Equivalent)
Diagram No.:
County: WarrenPIN:Route No. or Street Name:Case No:
Town:Bay StreetFile:
City:Glens FallsAt Intersection with/ or Between:By:AGFTC
Village of:Sanford StreetDate:6/4/2013
Time Period
From:04/24/08
To:04/24/13SeverityApparent
No. of Months:60(NR, PDO,Contributing
ID No.DateTimeINJ, FAT)FactorsTypeDirectionDescriptionLocation
104/24/1311:492PDO11119REN, NBay / Hunter
24/8/1316:122INJ11112RAN,WBay / Sanford
312/8/129:262PDO11227LTSW, SEBay / Hunter
411/16/1212:362UNK111118, 7OTNE, NEMV 1 entered path of MV 2 and was struck by MV 2.Bay / Sanford
511/09/1210:292PDO11117,4LTW, NMV 1 struck MV 2 as MV 2 was turning left in front of MV 1Bay / Sanford
607/17/1215:132UNK111113, 13SSN, NMV 1 struck MV 2 in the parking laneBay / Sanford
707/16/1217:452INJ11117, 42RAS, WMV 1 failed to yield ROW to MV 2Bay / Hunter
804/17/1220:102INJ41124,9REW,WMV 1 struck MV 2Bay / Sanford
903/16/1213:252INJ11232,17RANW, SWDriver of MV 1 intoxicated, ran red light, struck MV 2, MV 2 struck building.Bay / Sanford
1011/09/1119:182PDO411117RAE, NMV 1 failed to yield ROW to MV 2; MV 1 struck MV 2Bay / Sanford
1110/29/1117:322PDO311217, 4RAN, WMV 1 disregarded traffic device and collided with MV 2Bay / Sanford
1201/24/118:512PDO115117RAE,NMV 1 skidded through red light and struck MV 2Bay / Sanford
1311/04/1015:362PDO11239RES, SMV 1 struck MV 2 from behind as MV 2 was attempting LTBay / Sanford
1408/24/1015:192INJ11119RES, SMV 1 struck MV 2Bay / Hunter
1507/19/1014:523PDO11129RES,S,SMV 1 struck MV 2, forcing MV 2 to strike MV 3 while MV 3 waiting to make LTBay / Hunter
1604/12/1014:512PDO11119REN, NMV 1 struck MV 2 from behindBay / Sanford
1702/24/1011:102INJ11444, 66REN,NMV 1 struck MV 2 from behindBay / Sanford
1802/03/1014:373PDO11214RES, SMV 1struck MV 2 from behind, forcing MV 2 to strike MV 3Bay / Sanford
1901/17/1013:522INJ111217, 4RANE, SMV 2 failed to obey red light and struck MV 1Bay / Sanford
2012/23/0912:402NR111213SSS,SWMV 1 was struck by MV 2 while MV 1 attempted to pass MV 2 on rightBay / Sanford
2108/25/098:422PDO111114RASE, NMV 1 was truck by MV 2 (bicyclist)Bay / Sanford
2202/09/0915:442INJ112117RAE, SMV 1 struck MV 2Bay / Sanford
2312/24/0822:162PDO414317, 66RAN, WMV 1 ran red light, struck MV 2Bay / Sanford
2410/20/0820:412PDO411213SSS, SMV 1 was struck by MV 2 while MV 1 attempted to pass MV 2 on rightBay / Sanford
2508/21/0816:522INJ111217RAS, WMV 1 ran red light, struck MV 2Bay / Sanford
26
27
28
29
30
31
unk – unknownContributing Factors Legendnr = non reportable2=alcohol
4 = Driver Inattention19 = Unsafe Speed
Accident Type Legend7 = Failure to Yield Right-of Way20 = Unsafe Lane Changing
RA – Right Angle9 = Follwing Too Closely42 = Brakes defective
RE – Rear End13= passing or lane usage improper66 = Pavement Slippery
LT – Left Turn17 = Traffic Control Disregarded
OT – Overtaking18 = Turning Improperly
SS – SideswipeDETAILS OF ACCIDENT HISTORY FOR LOCATION
MV 1 struck MV 2
MV 1 entered path of MV 2 and was struck by MV 2. MV1 struck MV2LightConditions
Roadway
Character
Roadway
Surface
Condition
Weather
No.ofVeh.V:ProjectsANYK325857DataOtherTrafficTE 213 Accident Summary_bay_sanfordPage 1 of 1

APPENDIX B
TRAFFIC DATA

SHORT REPORT
General Information
Site Information
Analyst
Agency or Co.
CHA
Date Performed
8/6/2013
Time PeriodPM peak period IntersectionBay St. / Sanford St. Area TypeAll other areas JurisdictionCity of Glens Falls Analysis Year2013 Volume and Timing InputEBWBNBSBLTTHRTLTTHRTLTTHRTLTTHRT Number of Lanes010010010010 Lane GroupLTRLTRLTRLTR Volume (vph)2910332191312845345282735339 % Heavy Vehicles010000000010 PHF0.830.830.830.820.820.820.960.960.960.930.930.93 Pretimed/Actuated (P/A)AAAAAAAAAAAA Startup Lost Time2.02.02.02.0 Extension of Effective Green2.02.02.02.0 Arrival Type3333 Unit Extension3.03.03.03.0 Ped/Bike/RTOR Volume2003001700700 Lane Width16.014.012.012.0 Parking/Grade/ParkingN0NN0NN0NN0N Parking/Hour Bus Stops/Hour0000 Minimum Pedestrian Time3.23.23.33.2 PhasingEW Perm020304NS Perm060708 Timing G =18.0 G = G = G = G =35.0 G =0.0 G =0.0 G =0.0 Y =6 Y = Y = Y = Y =6 Y =0 Y =0 Y =0 Duration of Analysis (hrs) =0.25 Cycle Length C =65.0 Lane Group Capacity, Control Delay, and LOS DeterminationEBWBNBSB Adjusted Flow Rate198217435451 Lane Group Capacity525522932960 v/c Ratio0.380.420.470.47 Green Ratio0.280.280.540.54 Uniform Delay d
119.019.29.29.3 Delay Factor k0.110.110.110.11 Incremental Delay d
20.50.50.40.4 PF Factor1.0001.0001.0001.000 Control Delay19.419.79.69.6 Lane Group LOSBBAA Approach Delay19.419.79.69.6 Approach LOSBBAA Intersection Delay12.8Intersection LOSBCopyright©2007 University of Florida, All Rights ReservedHCS+TM
Version 5.3Generated: 8/6/2013 8:26 AMPage1 of1Short Report8/6/2013file://C:Usersô4AppDataLocalTemps2k329F.tmp

STATION:
174936 New York State Department of Transportation
Traffic Count Hourly Report
Page 1 of 2
ROAD #:
0100ROAD NAME:
BAY ST FROM:
SANFORD ST TO:
CITY LINE COUNTY:
Warren
DIRECTION: Northbound FACTOR GROUP: 30 REC. SERIAL #: 2573 FUNC. CLASS: 16 CITY:
GLENS FALLS
STATE DIR CODE: 1 WK OF YR: 40 PLACEMENT: 105FT N OF HOPE AVE NHS: no LION#:
DATE OF COUNT: 10/01/2010 @ REF MARKER: JURIS: City BIN:
NOTES LANE 1: WEEK 40 NB ADDL DATA: Class Speed CC Stn: RR CROSSING:
COUNT TYPE: VEHICLES BATCH ID: DOT-R1ww40b HPMS SAMPLE:
COUNT TAKEN BY: ORG CODE: TST INITIALS: BJF PROCESSED BY: ORG CODE: DOT INITIALS: mab
12
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
1212
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
12DAILY DAILY
DAILY HIGH HIGH
AMPM
DATE
DAY
TOTAL
COUNT
HOUR
1F
2S
3S
4M
5T
6W
7T
8F
9S
10 S
11 M
12 T
13 W
14 T
15 F
16 S
17 S
18 M
19 T
20 W
21 T
22 F
23 S
24 S
25 M
26 T
27 W
28 T
29 F
30 S
31 S379 388 471 381 444 494 439 328 292 203 126 115 116 56
31 28 16 26 22 22 42 101 178 256 291 319 316 244 255 235 232 237 190 164 106 115 69 503545 319 11
28 21 17 25 20 23 38 57 137 160 218 276 260 229 212 227 217 192 159 148 101 54 44 322895 276 11
12 18 7 15 53 69 100 279 391 353 340 401 478 449 366 430 424 379 223 173 116 89 66 375268 478 12
21 9 11 25 53 69 113 299 369 388 350 346 396 405 363 435 420 385 257 182 132 102 58 405228 435 15
23 9 8 13 52 69 102 293 366 319 300 317 427 414 381 410 396 341 254 191 146 84 58 345007 427 12
26 12 16 24 50 67 105 273 344 388 358 397
AVERAGE WEEKDAY HOURS (Axle Factored, Mon 6AM to Fri Noon) ADT
23 10 12 21 52 68 105 286 368 362 345 370 434 423 370 425 413 368 245 182 131 92 61 37 5203
DAYS
Counted
7HOURS
Counted
146WEEKDAYS
Counted
4WEEKDAY
Hours
80AVERAGE WEEKDAY
High Hour
434% of day
8%Axle Adj.
Factor
1.000Seasonal/Weekday
Adjustment Factor
1.074ESTIMATED (one way)
AADT
4845
ROAD #:
0100ROAD NAME:
BAY ST FROM:
SANFORD ST TO:
CITY LINE COUNTY:
Warren
STATION:
174936STATE DIR CODE:
1PLACEMENT:
105FT N OF HOPE AVE DATE OF COUNT: 10/01/2010

STATION:
174936 New York State Department of Transportation
Traffic Count Hourly Report
Page 2 of 2
ROAD #:
0100ROAD NAME:
BAY ST FROM:
SANFORD ST TO:
CITY LINE COUNTY:
Warren
DIRECTION: Southbound FACTOR GROUP: 30 REC. SERIAL #: 2573 FUNC. CLASS: 16 CITY:
GLENS FALLS
STATE DIR CODE: 2 WK OF YR: 40 PLACEMENT: 105FT N OF HOPE AVE NHS: no LION#:
DATE OF COUNT: 10/01/2010 @ REF MARKER: JURIS: City BIN:
NOTES LANE 1: WEEK 40 SB ADDL DATA: Class Speed CC Stn: RR CROSSING:
COUNT TYPE: VEHICLES BATCH ID: DOT-R1ww40b HPMS SAMPLE:
COUNT TAKEN BY: ORG CODE: TST INITIALS: BJF PROCESSED BY: ORG CODE: DOT INITIALS: mab
12
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
1212
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
12DAILY DAILY
DAILY HIGH HIGH
AMPM
DATE
DAY
TOTAL
COUNT
HOUR
1F
2S
3S
4M
5T
6W
7T
8F
9S
10 S
11 M
12 T
13 W
14 T
15 F
16 S
17 S
18 M
19 T
20 W
21 T
22 F
23 S
24 S
25 M
26 T
27 W
28 T
29 F
30 S
31 S417 473 472 479 572 520 530 478 418 276 199 179 127 75
52 33 18 17 10 20 40 86 145 241 270 276 324 331 282 329 299 286 287 180 177 135 136 654039 331 13
39 35 18 22 14 19 28 64 98 135 192 248 285 290 246 280 282 285 250 196 150 90 40 393345 290 13
13 17 9 16 15 45 96 236 305 340 401 396 487 511 545 493 490 439 325 260 170 163 103 495924 545 14
32 19 10 15 15 54 118 254 308 316 317 412 451 417 492 486 544 480 352 241 194 155 97 515830 544 16
28 17 8 10 13 55 108 229 278 301 351 398 530 503 484 448 487 435 346 229 201 146 129 545788 530 12
24 26 8 14 22 43 105 240 299 291 330 378
AVERAGE WEEKDAY HOURS (Axle Factored, Mon 6AM to Fri Noon) ADT
28 21 9 13 17 51 107 240 298 312 363 411 489 477 507 476 507 451 341 243 188 155 110 51 5865
DAYS
Counted
7HOURS
Counted
146WEEKDAYS
Counted
4WEEKDAY
Hours
80AVERAGE WEEKDAY
High Hour
507% of day
9%Axle Adj.
Factor
1.000Seasonal/Weekday
Adjustment Factor
1.074ESTIMATED (one way)
AADT
5461
ROAD #:
0100ROAD NAME:
BAY ST FROM:
SANFORD ST TO:
CITY LINE COUNTY:
Warren
STATION:
174936STATE DIR CODE:
2PLACEMENT:
105FT N OF HOPE AVE DATE OF COUNT: 10/01/2010

New York State Department of Transportation
Classification Count Average Weekday Data Report
ROAD #: 0100 ROAD NAME: BAY ST YEAR: 2010 STATION:174936COUNTY NAME: Warren MONTH: October
REGION CODE: 1
FROM: SANFORD ST
TO: CITY LINE
REF-MARKER:
END MILEPOINT: 0110103 NO. OF LANES: 2
FUNC-CLASS: 16 HPMS NO:
STATION NO: 4936 LION#:
COUNT TAKEN BY: ORG CODE: TST INITIALS: BJF
PROCESSED BY: ORG CODE: DOT INITIALS: mab BATCH ID: DOT-R1ww40bDIRECTION
NUMBER OF VEHICLES
NUMBER OF AXLES
% HEAVY VEHICLES (F4-F13)
% TRUCKS AND BUSES (F3-F13)
AXLE CORRECTION FACTORNorth
5197
10447
2.91%
20.63%
0.99South
5844
11753
5.30%
23.13%
0.99TOTAL
11041
22200
4.18%
21.95%
0.99
VEHICLE CLASS F1 F2 F3 F4 F5 F6 F7 F8 F9 F10 F11 F12 F13 TOTAL
NO. OF AXLES 2 2 2 2.5 2 3 4 3.5 5 6 5 6 8.75
ENDING HOUR
DIRECTION
North
ENDING HOUR
DIRECTION
South1:00 0 20 3 0 0 0 0 0 0 0 0 0 0
23
2:00 0 7 3 0 0 0 0 0 0 0 0 0 0
10
3:00 0 9 2 0 0 0 0 0 0 0 0 0 0
11
4:00 0 18 3 0 0 0 0 0 0 0 0 0 0
21
5:00 0 39 11 0 1 0 0 0 0 0 0 0 0
51
6:00 1 52 14 1 1 0 0 0 0 0 0 0 0
69
7:00 1 79 22 0 2 0 0 0 0 0 0 0 0
104
8:00 3 225 45 2 8 2 0 1 0 0 0 0 0
286
9:00 2 284 70 0 8 1 0 1 0 0 0 0 0
366
10:00 3 271 70 0 14 1 1 1 0 0 0 0 0
361
11:00 3 262 68 0 9 1 0 1 1 0 0 0 0
345
12:00 7 280 69 1 8 2 0 1 1 0 0 0 0
369
13:00 6 352 69 1 10 2 0 1 0 0 0 0 0
441
14:00 5 335 71 1 7 0 0 1 0 0 0 0 0
420
15:00 5 283 66 1 9 3 1 1 1 1 0 0 0
371
16:00 9 328 77 0 8 2 0 0 0 0 0 0 0
424
17:00 5 331 67 0 7 3 0 0 0 0 0 0 0
413
18:00 4 289 67 0 6 1 0 0 0 0 0 0 0
367
19:00 3 192 46 0 3 1 0 0 0 0 0 0 0
245
20:00 0 141 36 1 3 0 0 0 0 0 0 0 0
181
21:00 0 109 19 0 2 1 0 0 0 0 0 0 0
131
22:00 1 79 10 0 1 0 0 0 0 0 0 0 0
91
23:00 0 53 7 0 0 0 0 0 0 0 0 0 0
60
24:00 0 29 6 0 2 0 0 0 0 0 0 0 0
37
TOTAL VEHICLES
TOTAL AXLES58
1164067
8134921
18428
20109
21820
602
88
283
151
60
00
00
05197
10447
1:00 0 24 4 0 0 0 0 0 0 0 0 0 0
28
2:00 0 18 2 0 0 0 0 0 0 0 0 0 0
20
3:00 0 6 2 0 0 0 0 1 0 0 0 0 0
9
4:00 0 11 2 0 0 0 0 0 0 0 0 0 0
13
5:00 0 13 3 0 0 0 0 0 0 0 0 0 0
16
6:00 1 35 11 0 4 0 0 0 0 0 0 0 0
51
7:00 1 81 18 0 4 2 0 0 0 0 0 0 0
106
8:00 4 165 45 2 19 2 0 0 1 0 0 0 0
238
9:00 3 222 52 0 17 2 0 0 1 0 0 0 0
297
10:00 2 211 74 0 19 2 0 2 0 0 0 0 0
310
11:00 3 255 80 0 22 1 0 1 0 0 0 0 0
362
12:00 7 299 83 1 17 3 0 1 0 0 0 0 0
411
13:00 7 373 78 2 19 4 0 1 0 0 0 0 0
484
14:00 5 351 94 2 19 3 0 1 0 0 0 0 0
475
15:00 4 377 102 0 19 2 0 2 0 0 0 0 0
506
16:00 5 355 84 1 22 4 0 3 0 0 0 0 0
474
17:00 5 394 80 0 23 2 0 1 1 0 0 0 0
506
18:00 5 358 73 0 12 2 0 1 0 0 0 0 0
451
19:00 4 271 51 0 14 0 0 0 0 0 0 0 0
340
20:00 1 189 41 0 10 0 0 1 0 0 0 0 0
242
21:00 2 156 24 0 5 1 0 0 0 0 0 0 0
188
22:00 1 132 18 0 4 0 0 0 0 0 0 0 0
155
23:00 1 93 13 0 3 0 0 0 0 0 0 0 0
110
24:00 0 42 8 0 2 0 0 0 0 0 0 0 0
52
TOTAL VEHICLES
TOTAL AXLES61
1224431
88621042
20848
20254
50830
900
015
523
150
00
00
00
05844
11753
GRAND TOTAL VEHICLES
GRAND TOTAL AXLES119
2388498
169961963
3926
16
40363
72650
1502
823
806
301
60
00
00
011041
22200
— North – -South
PEAK HOUR DATA
DIRECTION HOUR COUNT 2-WAY HOUR COUNT
North 13 441 A.M. 12 780
South 15 506 P.M. 13 925VEHICLE CLASSIFICATION CODES:
F1. Motorcycles
F2. Autos*
F3. 2 Axle, 4-Tire Pickups, Vans, Motorhomes*
F4. Buses
F5. 2 Axle, 6-Tire Single Unit Trucks
F6. 3 Axle Single Unit Trucks
F7. 4 or More Axle Single Unit Trucks
F8. 4 or Less Axle Vehicles, One Unit is a Truck
F9. 5 Axle Double Unit Vehicles, One Unit is a Truck
F10. 6 or More Double Unit Vehicles, One Unit is a Truck
F11. 5 or Less Axle Multi-Unit Trucks
F12. 6 Axle Multi-Unit Trucks
F13. 7 or More Axle Multi-Unit Trucks
* INCLUDING THOSE HAULING TRAILERS
FUNCTIONAL CLASS CODES:
RURAL URBAN SYSTEM
01
02
02
06
07
08
0911
12
14
16
17
17
19PRINCIPAL ARTERIAL-INTERSTATE
PRINCIPAL ARTERIAL-EXPRESSWAY
PRINCIPAL ARTERIAL-OTHER
MINOR ARTERIAL
MAJOR COLLECTOR
MINOR COLLECTOR
LOCAL SYSTEM
SOURCE: NYSDOT DATA SERVICES BUREAU

— North
– – South
New York State Department of Transportation Page 1 of 2
Speed Count Average Weekday Report Date: 12/09/2010
Station: 174936 Start date: Fri 10/01/2010 10:00 Count duration: 147 hours
Road #: 0100 Road name: BAY ST End date: Thu 10/07/2010 12:45 Functional class: 16
From: SANFORD ST County: Warren Factor group: 30
To: CITY LINE Town: GLENS FALLS Batch ID: DOT-R1ww40b
Direction: NorthCount taken by: Org: TST Init: BJF Speed limit: 30
LION#: Processed by: Org: DOT Init: mab
Counts have been summarized into NYSDOT EI standard bins
Speeds, mph
0.0- 20.1- 25.1- 30.1- 35.1- 40.1- 45.1- 50.1- 55.1- 60.1- 65.1- 70.1- 75.1- % Exc % Exc % Exc % Exc % Exc
Hour 20.0 25.0 30.0 35.0 40.0 45.0 50.0 55.0 60.0 65.0 70.0 75.0 95.0 45.0 50.0 55.0 60.0 65.0 Avg 50th% 85th% Total
1:00 1 2 4 10610000000 0.00.00.00.00.030.0 32.6 37.9 24
2:00 0016300000000 0.00.00.00.00.033.2 33.4 37.6 10
3:00 0115320000000 0.00.00.00.00.033.2 34.0 40.6 12
4:00 0 0 2 12510000000 0.00.00.00.00.033.4 33.4 38.0 20
5:00 0 2 8 25 16 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 32.5 33.2 37.9 52
6:00 3 3 10 33 18 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.5 32.9 37.7 69
7:00 5 6 16 48 24 6 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.2 32.7 38.0 105
8:00 12 14 72 126 52 8 1 0 0 0 0 0 0 0.4 0.0 0.0 0.0 0.0 29.6 31.8 36.8 285
9:00 17 26 91 171 55 6 1 0 0 0 0 0 0 0.3 0.0 0.0 0.0 0.0 29.1 31.5 35.7 367
10:00 15 18 92 172 58 7 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 29.5 31.7 36.0 362
11:00 19 28 99 149 45 5 1 0 0 0 0 0 0 0.3 0.0 0.0 0.0 0.0 28.4 31.0 35.0 346
12:00 22 21 100 170 50 6 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 28.5 31.3 35.1 369
13:00 31 17 145 202 46 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 28.0 30.8 34.6 443
14:00 34 25 142 171 46 5 1 0 0 0 0 0 0 0.2 0.0 0.0 0.0 0.0 27.4 30.4 34.7 424
15:00 24 19 100 172 48 6 1 0 0 0 0 0 0 0.3 0.0 0.0 0.0 0.0 28.4 31.3 35.0 370
16:00 23 28 113 194 58 8 1 0 0 0 0 0 0 0.2 0.0 0.0 0.0 0.0 28.7 31.3 35.3 425
17:00 22 13 91 206 77 4 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 29.5 32.0 36.3 413
18:00 23 23 69 181 65 8 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 28.9 32.0 36.4 369
19:00 9 14 66 113 38 4 1 0 0 0 0 0 0 0.4 0.0 0.0 0.0 0.0 29.5 31.5 35.9 245
20:00 8 14 37 87 32 3 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 29.3 31.9 36.3 181
21:00 4 10 32 54 27 3 1 0 0 0 0 0 0 0.8 0.0 0.0 0.0 0.0 29.9 31.9 37.2 131
22:00 5 5 18 40 19 4 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 29.5 32.2 37.5 91
23:00 1 5 11 26 17 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.9 32.6 37.7 61
24:00 0 3 7 18721000000 2.60.00.00.00.031.8 32.6 38.1 38
Avg. Daily Total 278 297 1327 2391 815 95 9 0 0 0 0 0 05212 0.2 0.0 0.0 0.0 0.0 29.0 31.5 35.9
Percent
Cum. Percent
Average hour5.3%
5.3%
125.7%
11.0%
1225.5%
36.5%
5545.9%
82.4%
10015.6%
98.0%
341.8%
99.8%
40.2%
100.0%
00.0%
100.0%
00.0%
100.0%
00.0%
100.0%
00.0%
100.0%
00.0%
100.0%
00.0%
100.0%
0217
Avg. Speed 50th% Speed 85th% Speed
North 29.0 31.5 35.9
South 28.8 31.6 36.8
Peak Hour Data
Direction Hour Count 2-way Hour Count
North 13 443 A.M. 12 780
South 17 506 P.M. 13 928

— North
– – South New York State Department of Transportation Page 2 of 2
Speed Count Average Weekday Report Date: 12/09/2010
Station: 174936 Start date: Fri 10/01/2010 10:00 Count duration: 147 hours
Road #: 0100 Road name: BAY ST End date: Thu 10/07/2010 12:45 Functional class: 16
From: SANFORD ST County: Warren Factor group: 30
To: CITY LINE Town: GLENS FALLS Batch ID: DOT-R1ww40b
Direction: SouthCount taken by: Org: TST Init: BJF Speed limit: 30
LION#: Processed by: Org: DOT Init: mab
Counts have been summarized into NYSDOT EI standard bins
Speeds, mph
0.0- 20.1- 25.1- 30.1- 35.1- 40.1- 45.1- 50.1- 55.1- 60.1- 65.1- 70.1- 75.1- % Exc % Exc % Exc % Exc % Exc
Hour 20.0 25.0 30.0 35.0 40.0 45.0 50.0 55.0 60.0 65.0 70.0 75.0 95.0 45.0 50.0 55.0 60.0 65.0 Avg 50th% 85th% Total
1:00 0 0 5 14710000000 0.00.00.00.00.032.8 33.1 37.9 27
2:00 1149500000000 0.00.00.00.00.029.6 32.3 37.0 20
3:00 0014210000000 0.00.00.00.00.033.9 33.8 39.6 8
4:00 0144410000000 0.00.00.00.00.031.6 32.6 38.7 14
5:00 1 0 4 10100000000 0.00.00.00.00.028.8 31.6 34.4 16
6:00 3 2 8 24 13 1 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 29.8 32.7 37.5 51
7:00 4 8 12 46 27 8 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.7 33.1 38.6 105
8:00 17 25 50 88 50 10 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 28.3 31.6 37.4 240
9:00 14 21 61 120 65 14 2 0 0 0 0 0 0 0.7 0.0 0.0 0.0 0.0 29.7 32.2 37.9 297
10:00 20 17 73 130 62 8 1 0 0 0 0 0 0 0.3 0.0 0.0 0.0 0.0 28.9 31.8 37.0 311
11:00 20 27 96 151 61 7 1 0 0 0 0 0 0 0.3 0.0 0.0 0.0 0.0 28.7 31.3 36.2 363
12:00 30 28 105 170 66 11 1 0 0 0 0 0 0 0.2 0.0 0.0 0.0 0.0 28.2 31.3 36.3 411
13:00 36 36 131 192 83 6 1 0 0 0 0 0 0 0.2 0.0 0.0 0.0 0.0 28.0 31.1 36.1 485
14:00 42 36 122 186 82 9 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 27.6 31.1 36.2 477
15:00 34 46 132 200 80 11 2 0 0 0 0 0 0 0.4 0.0 0.0 0.0 0.0 28.1 31.1 36.1 505
16:00 33 30 119 202 79 11 1 1 0 0 0 0 0 0.4 0.2 0.0 0.0 0.0 28.4 31.4 36.4 476
17:00 26 39 118 221 89 12 1 0 0 0 0 0 0 0.2 0.0 0.0 0.0 0.0 29.0 31.6 36.5 506
18:00 24 30 104 195 85 12 1 0 0 0 0 0 0 0.2 0.0 0.0 0.0 0.0 29.1 31.8 36.8 451
19:00 16 30 81 146 59 9 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 29.0 31.5 36.5 341
20:00 6 16 50 123 41 6 1 0 0 0 0 0 0 0.4 0.0 0.0 0.0 0.0 30.3 32.1 36.5 243
21:00 8 14 39 86 35 6 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 29.6 32.0 36.9 188
22:00 5 9 26 67 39 7 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.7 32.8 38.0 153
23:00 2 7 15 50 30 5 1 0 0 0 0 0 0 0.9 0.0 0.0 0.0 0.0 31.6 33.2 38.3 110
24:00 2 2 10 25 10 2 0 0 0 0 0 0 0 0.0 0.0 0.0 0.0 0.0 30.3 32.4 37.2 51
Avg. Daily Total 344 425 1370 2463 1075 158 13 1 0 0 0 0 05849 0.2 0.0 0.0 0.0 0.0 28.8 31.6 36.8
Percent
Cum. Percent
Average hour5.9%
5.9%
147.3%
13.1%
1823.4%
36.6%
5742.1%
78.7%
10318.4%
97.1%
452.7%
99.8%
70.2%
100.0%
10.0%
100.0%
00.0%
100.0%
00.0%
100.0%
00.0%
100.0%
00.0%
100.0%
00.0%
100.0%
0244
Avg. Speed 50th% Speed 85th% Speed
North 29.0 31.5 35.9
South 28.8 31.6 36.8
Peak Hour Data
Direction Hour Count 2-way Hour Count
North 13 443 A.M. 12 780
South 17 506 P.M. 13 928

STATION:
174954 New York State Department of Transportation
Traffic Count Hourly Report
Page 1 of 2
ROAD #:
0100ROAD NAME:
BAY ST FROM:
WASHINGTON ST TO:
SANFORD ST COUNTY:
Warren
DIRECTION: Northbound FACTOR GROUP: 30 REC. SERIAL #: 0051 FUNC. CLASS: 16 CITY:
GLENS FALLS
STATE DIR CODE: 1 WK OF YR: 47 PLACEMENT: 81FT SOUTH OF HUNTER NHS: no LION#:
DATE OF COUNT: 11/16/2010 @ REF MARKER: JURIS: City BIN:
NOTES LANE 1: WEEK 47 NB ADDL DATA: CC Stn: RR CROSSING:
COUNT TYPE: AXLE PAIRS BATCH ID: DOT-R1_SC_WW47 HPMS SAMPLE:
COUNT TAKEN BY: ORG CODE: TST INITIALS: BJF PROCESSED BY: ORG CODE: DOT INITIALS: JSR
12
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
1212
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
12DAILY DAILY
DAILY HIGH HIGH
AMPM
DATE
DAY
TOTAL
COUNT
HOUR
1M
2T
3W
4T
5F
6S
7S
8M
9T
10 W
11 T
12 F
13 S
14 S
15 M
16 T
17 W
18 T
19 F
20 S
21 S
22 M
23 T
24 W
25 T
26 F
27 S
28 S
29 M
30 T377 303 479 387 371 437 402 390 226 154 147 114 69 49
17 16 11 18 52 60 77 240 402 299 351 354 440 433 394 468 522 391 246 202 135 96 62 375323 522 16
29 11 12 22 42 59 86 255 364 339 329 377 473 391 406 457 470 399 258 196 146 100 88 525361 473 12
21 19 21 29 61 46 74 245 352 357 347 385 427 399 420 449 416 362 222 198 168 129 92 745313 449 15
57 32 22 21 15 26 40 85 121 218 307 339 299 266 266 204 244 239 153 158 116 95 84 543461 339 11
40 31 26 22 10 25 26 58 92 117 176 219 225 163 219 243 215 177 136 116 114 60 48 342592 243 15
19 12 13 20 38 48 80 252 397
AVERAGE WEEKDAY HOURS (Axle Factored, Mon 6AM to Fri Noon) ADT
22 15 15 22 51 54 77 243 371 325 343 347 454 395 381 444 455 384 238 180 140 101 71 45 5173
DAYS
Counted
7HOURS
Counted
143WEEKDAYS
Counted
4WEEKDAY
Hours
77AVERAGE WEEKDAY
High Hour
455% of day
9%Axle Adj.
Factor
0.978Seasonal/Weekday
Adjustment Factor
1.030ESTIMATED (one way)
AADT
5022
ROAD #:
0100ROAD NAME:
BAY ST FROM:
WASHINGTON ST TO:
SANFORD ST COUNTY:
Warren
STATION:
174954STATE DIR CODE:
1PLACEMENT:
81FT SOUTH OF HUNTER DATE OF COUNT: 11/16/2010

STATION:
174954 New York State Department of Transportation
Traffic Count Hourly Report
Page 2 of 2
ROAD #:
0100ROAD NAME:
BAY ST FROM:
WASHINGTON ST TO:
SANFORD ST COUNTY:
Warren
DIRECTION: Southbound FACTOR GROUP: 30 REC. SERIAL #: 0098 FUNC. CLASS: 16 CITY:
GLENS FALLS
STATE DIR CODE: 2 WK OF YR: 47 PLACEMENT: 81FT SOUTH OF HUNTER NHS: no LION#:
DATE OF COUNT: 11/16/2010 @ REF MARKER: JURIS: City BIN:
NOTES LANE 1: WEEK 47 SB ADDL DATA: CC Stn: RR CROSSING:
COUNT TYPE: AXLE PAIRS BATCH ID: DOT-R1_SC_WW47 HPMS SAMPLE:
COUNT TAKEN BY: ORG CODE: TST INITIALS: BJF PROCESSED BY: ORG CODE: DOT INITIALS: JSR
12
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
1212
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
12DAILY DAILY
DAILY HIGH HIGH
AMPM
DATE
DAY
TOTAL
COUNT
HOUR
1M
2T
3W
4T
5F
6S
7S
8M
9T
10 W
11 T
12 F
13 S
14 S
15 M
16 T
17 W
18 T
19 F
20 S
21 S
22 M
23 T
24 W
25 T
26 F
27 S
28 S
29 M
30 T296 436 407 434 463 474 427 391 258 185 149 138 85 49
24 16 8 21 15 61 118 246 322 329 325 382 489 446 495 495 501 437 277 206 193 173 95 335707 501 16
19 13 13 19 16 65 108 243 340 306 305 409 427 531 475 505 490 451 294 209 187 155 93 465719 531 13
35 17 22 13 18 67 108 233 348 392 387 451 448 464 441 472 451 394 277 188 191 172 101 755765 472 15
56 29 18 14 16 27 57 89 134 258 288 328 311 274 288 317 254 248 200 178 164 117 112 603837 328 11
46 22 26 19 15 21 32 78 104 154 200 215 292 211 251 238 210 197 182 161 110 69 58 272938 292 12
20 11 11 15 14 68 124 243 348
AVERAGE WEEKDAY HOURS (Axle Factored, Mon 6AM to Fri Noon) ADT
25 15 14 18 16 63 111 236 333 334 321 411 431 460 467 480 463 417 270 196 172 152 89 42 5536
DAYS
Counted
7HOURS
Counted
143WEEKDAYS
Counted
4WEEKDAY
Hours
77AVERAGE WEEKDAY
High Hour
480% of day
9%Axle Adj.
Factor
0.978Seasonal/Weekday
Adjustment Factor
1.030ESTIMATED (one way)
AADT
5375
ROAD #:
0100ROAD NAME:
BAY ST FROM:
WASHINGTON ST TO:
SANFORD ST COUNTY:
Warren
STATION:
174954STATE DIR CODE:
2PLACEMENT:
81FT SOUTH OF HUNTER DATE OF COUNT: 11/16/2010

STATION:
174951 New York State Department of Transportation
Traffic Count Hourly Report
Page 1 of 2
ROAD #:
1930ROAD NAME:
SANFORD ST FROM:
BAY ST TO:
RIDGE ST COUNTY:
Warren
DIRECTION: Eastbound FACTOR GROUP: 30 REC. SERIAL #: 0060 FUNC. CLASS: 16 CITY:
GLENS FALLS
STATE DIR CODE: 1 WK OF YR: 39 PLACEMENT: 150FT WEST OF RIDGE ST NHS: no LION#:
DATE OF COUNT: 09/22/2010 @ REF MARKER: JURIS: City BIN:
NOTES LANE 1: WEEK 39 EB ADDL DATA: CC Stn: RR CROSSING:
COUNT TYPE: AXLE PAIRS BATCH ID: DOT-DOTWW39b HPMS SAMPLE:
COUNT TAKEN BY: ORG CODE: TST INITIALS: BJF PROCESSED BY: ORG CODE: DOT INITIALS: JSR
12
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
1212
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
12DAILY DAILY
DAILY HIGH HIGH
AMPM
DATE
DAY
TOTAL
COUNT
HOUR
1W
2T
3F
4S
5S
6M
7T
8W
9T
10 F
11 S
12 S
13 M
14 T
15 W
16 T
17 F
18 S
19 S
20 M
21 T
22 W
23 T
24 F
25 S
26 S
27 M
28 T
29 W
30 T96 110 115 139 102 95 128 159 126 99 58 60 35 19
152195204813715288113117124150156177161179232148746527192219 232 18
935362256140166124121120157153164172211186144108918363272334 211 16
13 6 5 6 27 48 38 46 68 101 139 147 134 141 134 156 173 121 121 86 60 72 47 291918 173 16
18 10 9 9 13 45 32 33 45 87 93 101 132 99 109 110 108 107 111 67 63 21 23 131458 132 12
83365235614813499899812313016217311716511170735124121883 173 15
7542421471461439775
AVERAGE WEEKDAY HOURS (Axle Factored, Mon 6AM to Fri Noon) ADT
103355215114014610097109118137137145132164153104675828171950
DAYS
Counted
7HOURS
Counted
145WEEKDAYS
Counted
4WEEKDAY
Hours
79AVERAGE WEEKDAY
High Hour
164% of day
8%Axle Adj.
Factor
0.978Seasonal/Weekday
Adjustment Factor
1.074ESTIMATED (one way)
AADT
1816
ROAD #:
1930ROAD NAME:
SANFORD ST FROM:
BAY ST TO:
RIDGE ST COUNTY:
Warren
STATION:
174951STATE DIR CODE:
1PLACEMENT:
150FT WEST OF RIDGE ST DATE OF COUNT: 09/22/2010

STATION:
174951 New York State Department of Transportation
Traffic Count Hourly Report
Page 2 of 2
ROAD #:
1930ROAD NAME:
SANFORD ST FROM:
BAY ST TO:
RIDGE ST COUNTY:
Warren
DIRECTION: Westbound FACTOR GROUP: 30 REC. SERIAL #: 0060 FUNC. CLASS: 16 CITY:
GLENS FALLS
STATE DIR CODE: 2 WK OF YR: 39 PLACEMENT: 150FT WEST OF RIDGE ST NHS: no LION#:
DATE OF COUNT: 09/22/2010 @ REF MARKER: JURIS: City BIN:
NOTES LANE 1: WEEK 39 WB ADDL DATA: CC Stn: RR CROSSING:
COUNT TYPE: AXLE PAIRS BATCH ID: DOT-DOTWW39b HPMS SAMPLE:
COUNT TAKEN BY: ORG CODE: TST INITIALS: BJF PROCESSED BY: ORG CODE: DOT INITIALS: JSR
12
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
1212
TO
11
TO
22
TO
33
TO
44
TO
55
TO
66
TO
77
TO
88
TO
99
TO
1010
TO
1111
TO
12DAILY DAILY
DAILY HIGH HIGH
AMPM
DATE
DAY
TOTAL
COUNT
HOUR
1W
2T
3F
4S
5S
6M
7T
8W
9T
10 F
11 S
12 S
13 M
14 T
15 W
16 T
17 F
18 S
19 S
20 M
21 T
22 W
23 T
24 F
25 S
26 S
27 M
28 T
29 W
30 T121 121 115 149 147 184 182 191 120 92 75 55 31 21
886431029105126102127116141119172210251240125125935422212217 251 16
98344830120148117148140149133177205210169186154889285462433 210 16
261486551650109130140133168168116148148129132137828162352048 168 12
168787915287090901281151181171291289412488604121191530 129 15
6526211301001208211112311511714917216617411885592829191829 174 17
108552103210614110592
AVERAGE WEEKDAY HOURS (Axle Factored, Mon 6AM to Fri Noon) ADT
9854392910613110011712212112515318519619811899744526202003
DAYS
Counted
7HOURS
Counted
145WEEKDAYS
Counted
4WEEKDAY
Hours
79AVERAGE WEEKDAY
High Hour
198% of day
10%Axle Adj.
Factor
0.978Seasonal/Weekday
Adjustment Factor
1.074ESTIMATED (one way)
AADT
1865
ROAD #:
1930ROAD NAME:
SANFORD ST FROM:
BAY ST TO:
RIDGE ST COUNTY:
Warren
STATION:
174951STATE DIR CODE:
2PLACEMENT:
150FT WEST OF RIDGE ST DATE OF COUNT: 09/22/2010

File Name : GREEN
Site Code : 12111111
Start Date : 7/30/2013
Page No : 1AGFTC
SAFETY STUDY
PM
4 TO 6
Groups Printed- PASSENGER CARS – SU TRUCKS & BUSES – MU TRUCKS
From North From East From South From West
Start Time
Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
04:00 PM 9 76 5 1 91 4 36 5 1 46 4 80 12 1 97 12 14 7 0 33 267
04:15 PM 10 100 7 1 118 10 32 5 0 47 3 73 8 2 86 7 20 6 0 33 284
04:30 PM 10 91 6 3 110 9 39 7 0 55 5 90 14 3 112 7 30 7 0 44 321
04:45 PM 9 71 11 0 91 3 30 4 0 37 6 90 11 2 109 5 26 10 0 41 278
Total 38 338 29 5 410 26 137 21 1 185 18 333 45 8 404 31 90 30 0 151 1150
05:00 PM 11 95 5 3 114 7 27 2 2 38 10 85 13 5 113 9 31 8 2 50 315
05:15 PM 9 96 5 1 111 9 35 6 1 51 7 80 7 7 101 11 16 4 0 31 294
05:30 PM 7 82 4 4 97 7 18 6 0 31 5 53 10 3 71 7 28 7 2 44 243
05:45 PM 9 80 7 0 96 5 30 3 1 39 10 51 4 2 67 5 19 1 1 26 228
Total 36 353 21 8 418 28 110 17 4 159 32 269 34 17 352 32 94 20 5 151 1080
Grand Total 74 691 50 13 828 54 247 38 5 344 50 602 79 25 756 63 184 50 5 302 2230
Apprch % 8.9 83.5 6 1.6 15.7 71.8 11 1.5 6.6 79.6 10.4 3.3 20.9 60.9 16.6 1.7
Total % 3.3 31 2.2 0.6 37.1 2.4 11.1 1.7 0.2 15.4 2.2 27 3.5 1.1 33.9 2.8 8.3 2.2 0.2 13.5
PASSENGER CARS 74 683 49 13 819 54 246 38 5 343 50 598 78 25 751 63 183 50 5 301 2214
% PASSENGER CARS 100 98.8 98 100 98.9 100 99.6 100 100 99.7 100 99.3 98.7 100 99.3 100 99.5 100 100 99.7 99.3
SU TRUCKS & BUSES 0 8 1 0 9 0 1 0 0 1 0 3 1 0 4 0 1 0 0 1 15
% SU TRUCKS & BUSES 0 1.2 2 0 1.1 0 0.4 0 0 0.3 0 0.5 1.3 0 0.5 0 0.5 0 0 0.3 0.7
MU TRUCKS 0 0 0 0 0 0 0 0 0 0 0 1 0 0 1 0 0 0 0 0 1
% MU TRUCKS 0 0 0 0 0 0 0 0 0 0 0 0.2 0 0 0.1 0 0 0 0 0 0

File Name : GREEN
Site Code : 12111111
Start Date : 7/30/2013
Page No : 2AGFTC
SAFETY STUDY
PM
4 TO 6

Right 74
0
0
74
Thru 683
8
0
691
Left 49
1
0
50
Peds 13
0
0
13 InOut Total
702 819 1521
3 9 12
1 0 1
706
1534
828
Right54 0 0 54
Thru246 1 0 247
Left38 0 0 38
Peds
5 0 0 5
Out
Total
In
282
343
625
2
1
3
0
0
0
284
628
344
Left
78
1
0
79 Thru
598
3
1
602 Right
50
0
0
50 Peds
25
0
0
25
Out TotalIn784 751 1535
8 4 12
0 1 1
792 1548 756
Left50 0 0 50
Thru183 1 0 184
Right63 0 0 63
Peds
5 0 0 5
Total
Out
In
398
301
699
2
1
3
0
0
0
400
702
302 7/30/2013 04:00 PM
7/30/2013 05:45 PM

PASSENGER CARS
SU TRUCKS & BUSES
MU TRUCKS North

File Name : GREEN
Site Code : 12111111
Start Date : 7/30/2013
Page No : 3AGFTC
SAFETY STUDY
PM
4 TO 6
From North From East From South From West
Start Time
Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
Peak Hour Analysis From 04:00 PM to 05:45 PM – Peak 1 of 1
Peak Hour for Entire Intersection Begins at 04:30 PM
04:30 PM 10 91 6
3 110
9 39 7 0
55 5
90 14 3 112 7 30 7 0 44
321
04:45 PM 9 71
11 0 91 3 30 4 0 37 6 90 11 2 109 5 26
10 0 41 278
05:00 PM
11 95 5 3
114 7 27 2
2 38
10 85 13 5
113 9
31 8
2 50 315
05:15 PM 9
96 5 1 111 9 35 6 1 51 7 80 7
7 101
11 16 4 0 31 294
Total Volume 39 353 27 7 426 28 131 19 3 181 28 345 45 17 435 32 103 29 2 166 1208
% App. Total 9.2 82.9 6.3 1.6 15.5 72.4 10.5 1.7 6.4 79.3 10.3 3.9 19.3 62 17.5 1.2
PHF .886 .919 .614 .583 .934 .778 .840 .679 .375 .823 .700 .958 .804 .607 .962 .727 .831 .725 .250 .830 .941
PASSENGER CARS 39 350 27 7 423 28 131 19 3 181 28 344 45 17 434 32 102 29 2 165 1203
% PASSENGER CARS 100 99.2 100 100 99.3 100 100 100 100 100 100 99.7 100 100 99.8 100 99.0 100 100 99.4 99.6
SU TRUCKS & BUSES 0 3 0 0 3 0 0 0 0 0 0 1 0 0 1 0 1 0 0 1 5
% SU TRUCKS & BUSES 0 0.8 0 0 0.7 0 0 0 0 0 0 0.3 0 0 0.2 0 1.0 0 0 0.6 0.4
MU TRUCKS 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0
% MU TRUCKS 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0

File Name : GREEN
Site Code : 12111111
Start Date : 7/30/2013
Page No : 4AGFTC
SAFETY STUDY
PM
4 TO 6

Right 39
0
0
39
Thru 350
3
0
353
Left 27
0
0
27
Peds 7
0
0
7 InOut Total
401 423 824
1 3 4
0 0 0
402
828
426
Right28 0 0 28
Thru131 0 0 131
Left19 0 0 19
Peds
3 0 0 3
Out
Total
In
157
181
338
1
0
1
0
0
0
158
339
181
Left
45
0
0
45 Thru
344
1
0
345 Right
28
0
0
28 Peds
17
0
0
17
Out TotalIn401 434 835
3 1 4
0 0 0
404 839 435
Left29 0 0 29
Thru102 1 0 103
Right32 0 0 32
Peds
2 0 0 2
Total
Out
In
215
165
380
0
1
1
0
0
0
215
381
166 Peak Hour Begins at 04:30 PM

PASSENGER CARS
SU TRUCKS & BUSES
MU TRUCKSPeak Hour Data
North

File Name : BLUE
Site Code : 11111222
Start Date : 7/30/2013
Page No : 1AGFTC
SAFTEY STUDY
PM
4 TO 6
Groups Printed- PASSENGER CARS – SU TRUCKS & BUSES – MU TRUCKS
From North From East From South From West
Start Time
Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
04:00 PM 0 0 5 0 5 13 0 2 0 15 4 0 0 0 4 0 0 0 0 0 24
04:15 PM 0 0 5 0 5 9 0 3 0 12 3 0 0 0 3 0 0 0 0 0 20
04:30 PM 0 0 6 1 7 5 0 0 0 5 4 0 1 4 9 0 0 0 2 2 23
04:45 PM 0 0 6 4 10 5 0 1 0 6 2 0 0 2 4 0 0 0 0 0 20
Total 0 0 22 5 27 32 0 6 0 38 13 0 1 6 20 0 0 0 2 2 87
05:00 PM 0 0 8 3 11 9 0 0 0 9 3 0 0 3 6 0 0 0 0 0 26
05:15 PM 0 0 7 1 8 7 0 1 0 8 2 0 0 2 4 0 0 0 0 0 20
Grand Total 0 0 37 9 46 48 0 7 0 55 18 0 1 11 30 0 0 0 2 2 133
Apprch % 0 0 80.4 19.6 87.3 0 12.7 0 60 0 3.3 36.7 0 0 0 100
Total % 0 0 27.8 6.8 34.6 36.1 0 5.3 0 41.4 13.5 0 0.8 8.3 22.6 0 0 0 1.5 1.5
PASSENGER CARS 0 0 36 9 45 48 0 7 0 55 18 0 1 11 30 0 0 0 2 2 132
% PASSENGER CARS 0 0 97.3 100 97.8 100 0 100 0 100 100 0 100 100 100 0 0 0 100 100 99.2
SU TRUCKS & BUSES 0 0 1 0 1 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 1
% SU TRUCKS & BUSES 0 0 2.7 0 2.2 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0.8
MU TRUCKS 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0
% MU TRUCKS 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0

File Name : BLUE
Site Code : 11111222
Start Date : 7/30/2013
Page No : 2AGFTC
SAFTEY STUDY
PM
4 TO 6

Right 0
0
0
0
Thru 0
0
0
0
Left 36
1
0
37
Peds 9
0
0
9 InOut Total
48 45 93
0 1 1
0 0 0
48
94
46
Right48 0 0 48
Thru
0 0 0 0
Left
7 0 0 7 Peds
0 0 0 0
Out
Total
In
54
55
109
1
0
1
0
0
0
55
110
55
Left
1
0
0
1 Thru
0
0
0
0 Right
18
0
0
18 Peds
11
0
0
11
Out TotalIn7 30 37
0 0 0
0 0 0
7 37 30
Left
0 0 0 0
Thru
0 0 0 0
Right
0 0 0 0
Peds
2 0 0 2
Total
Out
In
1
2
3
0
0
0
0
0
0
1
3
2 7/30/2013 04:00 PM
7/30/2013 05:15 PM

PASSENGER CARS
SU TRUCKS & BUSES
MU TRUCKS North

File Name : BLUE
Site Code : 11111222
Start Date : 7/30/2013
Page No : 3AGFTC
SAFTEY STUDY
PM
4 TO 6
From North From East From South From West
Start Time
Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Right Thru Left Peds
App. Total Int. Total
Peak Hour Analysis From 04:00 PM to 05:15 PM – Peak 1 of 1
Peak Hour for Entire Intersection Begins at 04:15 PM
04:15 PM 0 0 5 0 5
9 0
3 0
12 3 0 0 0 3 0 0 0 0 0 20
04:30 PM 0 0 6 1 7 5 0 0 0 5
4 0
1 4 9 0 0 0
2 2 23
04:45 PM 0 0 6
4 10 5 0 1 0 6 2 0 0 2 4 0 0 0 0 0 20
05:00 PM 0 0
8 3
11 9 0 0 0 9 3 0 0 3 6 0 0 0 0 0
26
Total Volume 0 0 25 8 33 28 0 4 0 32 12 0 1 9 22 0 0 0 2 2 89
% App. Total 0 0 75.8 24.2 87.5 0 12.5 0 54.5 0 4.5 40.9 0 0 0 100
PHF .000 .000 .781 .500 .750 .778 .000 .333 .000 .667 .750 .000 .250 .563 .611 .000 .000 .000 .250 .250 .856
PASSENGER CARS 0 0 24 8 32 28 0 4 0 32 12 0 1 9 22 0 0 0 2 2 88
% PASSENGER CARS 0 0 96.0 100 97.0 100 0 100 0 100 100 0 100 100 100 0 0 0 100 100 98.9
SU TRUCKS & BUSES 0 0 1 0 1 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 1
% SU TRUCKS & BUSES 0 0 4.0 0 3.0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 1.1
MU TRUCKS 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0
% MU TRUCKS 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0

File Name : BLUE
Site Code : 11111222
Start Date : 7/30/2013
Page No : 4AGFTC
SAFTEY STUDY
PM
4 TO 6

Right 0
0
0
0
Thru 0
0
0
0
Left 24
1
0
25
Peds 8
0
0
8 InOut Total
28 32 60
0 1 1
0 0 0
28
61
33
Right28 0 0 28
Thru
0 0 0 0
Left
4 0 0 4 Peds
0 0 0 0
Out
Total
In
36
32
68
1
0
1
0
0
0
37
69
32
Left
1
0
0
1 Thru
0
0
0
0 Right
12
0
0
12 Peds
9
0
0
9
Out TotalIn4 22 26
0 0 0
0 0 0
4 26 22
Left
0 0 0 0
Thru
0 0 0 0
Right
0 0 0 0
Peds
2 0 0 2
Total
Out
In
1
2
3
0
0
0
0
0
0
1
3
2 Peak Hour Begins at 04:15 PM

PASSENGER CARS
SU TRUCKS & BUSES
MU TRUCKSPeak Hour Data
North