TABLE OF CONTENTS TABLE OF CONTENTS... I APPENDICES... III LIST OF EXHIBITS... V LIST OF TABLES... VII LIST OF ABBREVIATED TERMS...

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TABLE OF CONTENTS TABLE OF CONTENTS... I APPENDICES... III LIST OF EXHIBITS... V LIST OF TABLES... VII LIST OF ABBREVIATED TERMS... IX 1 INTRODUCTION... 1 1.1 Project Overview... 1 1.2 Analysis Scenarios... 1 1.3 Study Area... 4 1.4 Summary of Intersection Analysis... 6 1.5 Site Access Improvements... 10 1.6 On Site Parking... 11 2 METHODOLOGIES... 13 2.1 Level of Service... 13 2.2 Intersection Capacity Analysis... 13 2.3 Roadway Segment Capacity Analysis... 15 2.4 Traffic Signal Warrant Analysis Methodology... 16 2.5 Thresholds of Significance... 17 2.6 CEQA Compliance and Documentation... 17 3 AREA CONDITIONS... 19 3.1 Existing Circulation Network... 19 3.2 City of Imperial Beach General Plan Circulation Element... 19 3.3 Transit Service... 19 3.4 Bicycle & Pedestrian Facilities... 19 3.5 Existing (2015) Traffic Counts... 25 3.6 Intersection Operations Analysis... 25 3.7 Existing Conditions Roadway Segment Capacity Analysis... 30 3.8 Traffic Signal Warrants Analysis... 30 3.9 Recommended Improvements... 30 4 PROJECTED FUTURE TRAFFIC... 33 4.1 Project Trip Generation... 33 4.2 Project Trip Distribution... 33 4.3 Modal Split... 36 4.4 Project Trip Assignment... 36 4.5 Background Traffic... 36 4.6 Cumulative Development Traffic... 36 4.7 Traffic Forecasts... 38 5 E+P TRAFFIC CONDITIONS... 43 5.1 Roadway Improvements... 43 5.2 E+P Traffic Volume Forecasts... 43 5.3 Intersection Operations Analysis... 43 5.4 Roadway Segment Capacity Analysis... 43 5.5 Traffic Signal Warrants Analysis... 48 09818 05 TIA Report REV2 i

5.6 Project Impacts and Mitigation Measures... 48 6 OPENING YEAR CUMULATIVE (2017) TRAFFIC CONDITIONS... 49 6.1 Roadway Improvements... 49 6.2 Opening Year Cumulative (2017) Without Project Traffic Volume Forecasts... 49 6.3 Opening Year Cumulative (2017) With Project Traffic Volume Forecasts... 49 6.4 Intersection Operations Analysis... 49 6.5 Roadway Segment Capacity Analysis... 55 6.6 Traffic Signal Warrants Analysis... 56 6.7 Opening Year Cumulative Deficiencies and Recommended Improvements... 56 7 HORIZON YEAR (2040) TRAFFIC CONDITIONS... 59 7.1 Roadway Improvements... 59 7.2 Horizon Year (2040) Without Project Traffic Volume Forecasts... 59 7.3 Horizon Year (2040) With Project Traffic Volume Forecasts... 59 7.4 Intersection Operations Analysis... 59 7.5 Roadway Segment Capacity Analysis... 65 7.6 Traffic Signal Warrants Analysis... 65 7.7 Horizon Year Deficiencies and Recommended Improvements... 66 8 REFERENCES... 69 09818 05 TIA Report REV2 ii

APPENDICES APPENDIX 1.1: APPROVED TRAFFIC STUDY SCOPING AGREEMENT APPENDIX 3.1: EXISTING TRAFFIC COUNTS OCTOBER 2015 APPENDIX 3.2: EXISTING (2015) CONDITIONS INTERSECTION OPERATIONS ANALYSIS WORKSHEETS APPENDIX 3.3: EXISTING (2015) CONDITIONS TRAFFIC SIGNAL WARRANT ANALYSIS WORKSHEETS APPENDIX 5.1: E+P CONDITIONS INTERSECTION OPERATIONS ANALYSIS WORKSHEETS APPENDIX 5.2: E+P CONDITIONS TRAFFIC SIGNAL WARRANT ANALYSIS WORKSHEETS APPENDIX 6.1: OPENING YEAR CUMULATIVE (2017) WITHOUT PROJECT CONDITIONS INTERSECTION OPERATIONS ANALYSIS WORKSHEETS APPENDIX 6.2: OPENING YEAR CUMULATIVE (2017) WITH PROJECT CONDITIONS INTERSECTION OPERATIONS ANALYSIS WORKSHEETS APPENDIX 6.3: OPENING YEAR CUMULATIVE (2017) WITHOUT PROJECT CONDITIONS TRAFFIC SIGNAL WARRANT ANALYSIS WORKSHEETS APPENDIX 6.4: OPENING YEAR CUMULATIVE (2017) WITH PROJECT CONDITIONS TRAFFIC SIGNAL WARRANT ANALYSIS WORKSHEETS APPENDIX 7.1: HORIZON YEAR (2040) WITHOUT PROJECT CONDITIONS INTERSECTION OPERATIONS ANALYSIS WORKSHEETS APPENDIX 7.2: HORIZON YEAR (2040) WITH PROJECT CONDITIONS INTERSECTION OPERATIONS ANALYSIS WORKSHEETS APPENDIX 7.3: HORIZON YEAR (2040) WITHOUT PROJECT CONDITIONS TRAFFIC SIGNAL WARRANT ANALYSIS WORKSHEETS APPENDIX 7.4: HORIZON YEAR (2040) WITH PROJECT CONDITIONS TRAFFIC SIGNAL WARRANT ANALYSIS WORKSHEETS 09818-05 TIA Report REV2 iii

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LIST OF EXHIBITS EXHIBIT 1 1: PRELIMINARY SITE PLAN... 2 EXHIBIT 1 2: LOCATION MAP... 5 EXHIBIT 3 1: EXISTING NUMBER OF THROUGH LANES AND INTERSECTION CONTROLS... 20 EXHIBIT 3 2: CITY OF IMPERIAL BEACH GENERAL PLAN STREET CLASSIFICATIONS... 21 EXHIBIT 3 3: EXISTING TRANSIT ROUTES... 22 EXHIBIT 3 4: CITY OF IMPERIAL BEACH GENERAL PLAN BIKEWAYS PLAN... 23 EXHIBIT 3 5: CITY OF IMPERIAL BEACH GENERAL PLAN ECOROUTE BIKEWAY... 24 EXHIBIT 3 6: EXISTING PEDESTRIAN FACILITIES... 26 EXHIBIT 3 7: EXISTING (2015) TRAFFIC VOLUMES... 27 EXHIBIT 3 8: SUMMARY OF PEAK HOUR INTERSECTION LOS FOR EXISTING (2015) CONDITIONS... 28 EXHIBIT 4 1: PROJECT TRIP DISTRIBUTION... 35 EXHIBIT 4 2: PROJECT ONLY TRAFFIC VOLUMES... 37 EXHIBIT 4 3: CUMULATIVE DEVELOPMENT PROJECTS LOCATION MAP... 39 EXHIBIT 4 4: CUMULATIVE DEVELOPMENT ONLY TRAFFIC VOLUMES... 40 EXHIBIT 5 1: E+P TRAFFIC VOLUMES... 44 EXHIBIT 5 2: SUMMARY OF PEAK HOUR INTERSECTION LOS FOR E+P CONDITIONS... 45 EXHIBIT 6 1: OPENING YEAR CUMULATIVE (2017) WITHOUT PROJECT TRAFFIC VOLUMES... 50 EXHIBIT 6 2: OPENING YEAR CUMULATIVE (2017) WITH PROJECT TRAFFIC VOLUMES... 51 EXHIBIT 6 3: SUMMARY OF PEAK HOUR INTERSECTION LOS FOR OPENING YEAR CUMULATIVE (2017) WITHOUT PROJECT CONDITIONS... 52 EXHIBIT 6 4: SUMMARY OF PEAK HOUR INTERSECTION LOS FOR OPENING YEAR CUMULATIVE (2017) WITH PROJECT CONDITIONS... 53 EXHIBIT 7 1: HORIZON YEAR (2040) WITHOUT PROJECT TRAFFIC VOLUMES... 60 EXHIBIT 7 2: HORIZON YEAR (2040) WITH PROJECT TRAFFIC VOLUMES... 61 EXHIBIT 7 3: SUMMARY OF PEAK HOUR INTERSECTION LOS FOR HORIZON YEAR (2040) WITHOUT PROJECT CONDITIONS... 62 EXHIBIT 7 4: SUMMARY OF PEAK HOUR INTERSECTION LOS FOR HORIZON YEAR (2040) WITH PROJECT CONDITIONS... 63 09818 05 TIA Report REV2 v

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LIST OF TABLES TABLE 1 1: INTERSECTION ANALYSIS LOCATIONS... 4 TABLE 1 2: ROADWAY SEGMENT ANALYSIS LOCATIONS... 6 TABLE 1 3: SUMMARY OF INTERSECTION LEVEL OF SERVICE... 7 TABLE 1 4: SUMMARY OF ROADWAY SEGMENT LEVEL OF SERVICE... 8 TABLE 2 1: SIGNALIZED INTERSECTION LOS THRESHOLDS... 14 TABLE 2 2: UNSIGNALIZED INTERSECTION LOS THRESHOLDS... 15 TABLE 2 3: ROADWAY SEGMENT CAPACITY (ADT METHOD) LOS THRESHOLDS 1... 15 TABLE 2 4: ROADWAY SEGMENT CAPACITY (FLORIDA METHOD) LOS THRESHOLDS 1... 16 TABLE 3 1: INTERSECTION ANALYSIS FOR EXISTING (2015) CONDITIONS... 29 TABLE 3 2: ROADWAY SEGMENT VOLUME/CAPACITY ANALYSIS FOR EXISTING (2015) CONDITIONS.. 31 TABLE 4 1: PROJECT TRIP GENERATION RATES & TRIP GENERATION SUMMARY... 34 TABLE 4 2: CUMULATIVE DEVELOPMENT LAND USE SUMMARY... 41 TABLE 5 1: INTERSECTION ANALYSIS FOR E+P CONDITIONS... 46 TABLE 5 2: ROADWAY SEGMENT VOLUME/CAPACITY ANALYSIS FOR E+P CONDITIONS... 47 TABLE 6 1: INTERSECTION ANALYSIS FOR OPENING YEAR CUMULATIVE (2017) CONDITIONS... 54 TABLE 6 2: ROADWAY SEGMENT VOLUME/CAPACITY ANALYSIS (ADT METHOD) FOR OPENING YEAR CUMULATIVE (2017) CONDITIONS... 57 TABLE 6 3: ROADWAY SEGMENT VOLUME/CAPACITY ANALYSIS (FLORIDA METHOD) FOR OPENING YEAR CUMULATIVE (2017) CONDITIONS... 58 TABLE 7 1: INTERSECTION ANALYSIS FOR HORIZON YEAR (2040) CONDITIONS... 64 TABLE 7 2: ROADWAY SEGMENT VOLUME/CAPACITY ANALYSIS FOR HORIZON YEAR (2040) CONDITIONS... 67 TABLE 7 3: ROADWAY SEGMENT VOLUME/CAPACITY ANALYSIS (FLORIDA METHOD) FOR HORIZON YEAR (2040) CONDITIONS... 68 09818 05 TIA Report REV2 vii

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LIST OF ABBREVIATED TERMS (1) Reference ADT Average Daily Traffic Caltrans California Department of Transportation CEQA California Environmental Quality Act CFR Code of Federal Regulations CMP Congestion Management Program E+P Existing Plus Project FDOT State of Florida Department of Transportation FHWA Federal Highway Administration HCM Highway Capacity Manual ITE Institute of Transportation Engineers LOS Level of Service MTS Metropolitan Transit System MUTCD Manual on Uniform Traffic Control Devices NA Not Applicable NP No Project (or Without Project) PHF Peak Hour Factor Project Imperial Beach Resort SANDAG San Diego Association of Governments SANTEC San Diego Traffic Engineers Council sf Square Feet TIS Traffic Impact Study V/C Volume to capacity WP With Project 09818-05 TIA Report REV2 ix

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1 INTRODUCTION This report presents the results of the traffic impact study (TIS) for the proposed Imperial Beach Resort development ( Project ) located west of Seacoast Drive between Imperial Beach Boulevard and Ebony Avenue in the City of Imperial Beach as shown on Exhibit 1-1. The purpose of this traffic impact analysis is to evaluate the potential circulation system deficiencies that may result from the development of the proposed Project, and to recommend improvements to achieve acceptable circulation system operational conditions. This traffic study has been prepared in accordance with the San Diego Traffic Engineers Council (SANTEC) /Institute of Transportation Engineers (ITE) Guidelines for Traffic Impact Studies in the San Diego Region and consultation with City of Imperial Beach staff during the scoping process. (1) The approved Project Traffic Study Scoping agreement is provided in Appendix 1.1 of this TIS. 1.1 PROJECT OVERVIEW It is our understanding that the Project is to consist of 100 hotel rooms, 4,937 square feet (sf) of quality restaurant, and 1,971 square feet of retail uses as part of the hotel (e.g., gift shop). An Opening Year of 2017 will be used for the purposes of this TIS. Vehicular access will be provided via the western extension of Imperial Beach Boulevard, west of Seacoast Drive (see Exhibit 1-1). Regional access to the site is provided via the I-5 Freeway at the Imperial Beach Boulevard interchange. Trips generated by the Project s proposed land uses have been estimated based on trip generation rates collected by the San Diego Association of Governments (SANDAG) (Not So) Brief Guide of Vehicular Traffic Generation Rates for the San Diego Region. (2) The Project is estimated to generate a net total of 1,494 trip-ends per day, with 65 AM peak hour trips and 120 PM peak hour trips. The assumptions and methods used to estimate the Project s trip generation characteristics are discussed in greater detail in Section 4.1 Project Trip Generation of this report. 1.2 ANALYSIS SCENARIOS For the purposes of this traffic study, potential impacts to traffic and circulation have been assessed for each of the following conditions: Existing (2015) (1 scenario) Existing plus Project (E+P), Without and With Indian Street Bridge (2 scenarios) Opening Year Cumulative (2017), Without and With Project (2 scenarios) Horizon Year (2040), Without and With Project (2 scenarios) 09818-05 TIA Report REV2 1 1

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1.2.1 EXISTING (2015) CONDITIONS Information for Existing (2015) conditions is disclosed to represent the baseline traffic conditions as they existed at the time this report was prepared. 1.2.2 EXISTING PLUS PROJECT CONDITIONS The Existing plus Project (E+P) analysis determines circulation system deficiencies that would occur on the existing roadway system in the scenario of the Project being placed upon Existing conditions. 1.2.3 OPENING YEAR CUMULATIVE (2017) CONDITIONS To account for background traffic, other known cumulative development projects in the study area were included in addition to 4.04% of ambient growth for Opening Year Cumulative traffic conditions in conjunction with traffic associated with the proposed Project. Although it is unlikely that these cumulative projects would be fully built and occupied by Year 2017, they have been included in an effort to conduct a conservative analysis and overstate and opposed to understate potential cumulative traffic impacts. 1.2.4 HORIZON YEAR (2040) CONDITIONS The Horizon Year (2040) With Project traffic conditions were derived from an average of the regional growth forecasts for the San Diego Region for population, housing, and employment. The traffic forecasts reflect the area-wide growth anticipated between Existing conditions and Horizon Year conditions. The Horizon Year With Project traffic forecasts were determined by adding the Project traffic to the Horizon Year Without Project traffic forecasts. The SANDAG Series 13 Regional Growth Forecasts for the San Diego Region identifies projected growth in population of 3,143,429 in 2012 to 4,068,759 in 2050, or a 29.44 percent increase over the 38-year period. (3) The change in population equates to roughly a 0.68 percent growth rate, compounded annually. Similarly, growth over the same 38-year period in households is projected to increase by 27.97 percent, or 0.65 percent annual growth rate. Finally, growth in employment over the same 38-year period is projected to increase by 31.74 percent, or a 0.73 percent annual growth rate. Based on a comparison of Existing traffic volumes to the Horizon Year (2040) forecasts, the average growth rate is estimated at approximately 2.17 percent per year, compounded annually between Existing and Horizon Year traffic conditions. The annual growth rate at each individual intersection is not lower than 1.41 percent per year, compounded annually to as high as 2.68 percent per year, compounded annually over the same time period. Therefore, the annual growth rate utilized for the purposes of this analysis would appear to conservatively approximate the anticipated regional growth in traffic volumes in the City of Imperial Beach for both Opening Year Cumulative and Horizon Year traffic conditions, especially when considered along with the addition of project-related traffic. As such, the growth in traffic volumes assumed in this traffic impact analysis would tend to overstate as opposed to understate the potential impacts to traffic and circulation. 09818-05 TIA Report REV2 3 3

1.3 STUDY AREA To ensure that this TIS satisfies the SANTEC TIS requirements, Urban Crossroads, Inc. prepared a Project traffic study scoping package for review by City of Imperial Beach staff prior to the preparation of this report. The scoping agreement provides an outline of the Project study area, trip generation, trip distribution, and analysis methodology and is included in Appendix 1.1. 1.3.1 INTERSECTIONS The following 6 study area intersections listed in Table 1-1 and shown on Exhibit 1-2 were selected for this TIS based on the SANTEC TIS guidelines and consultation with City of Imperial Beach staff. The study area includes intersections where the Project is anticipated to contribute 50 or more peak hour trips per TIS guidelines. (1) TABLE 1-1: INTERSECTION ANALYSIS LOCATIONS ID Intersection Location Jurisdiction 1 Seacoast Drive / Palm Avenue City of Imperial Beach 2 Seacoast Drive / Elm Avenue City of Imperial Beach 3 Seacoast Drive / Ebony Avenue City of Imperial Beach 4 Seacoast Drive / Imperial Beach Boulevard City of Imperial Beach 5 3 rd Street / Palm Avenue City of Imperial Beach 6 3 rd Street / Imperial Beach Boulevard City of Imperial Beach The intent of a Congestion Management Program (CMP) is to more directly link land use, transportation, and air quality, thereby prompting reasonable growth management programs that will effectively utilize new transportation funds, alleviate traffic congestion and related impacts, and improve air quality. Counties within California have developed CMPs with varying methods and strategies to meet the intent of the CMP legislation. The County of San Diego CMP became effective with the passage of Proposition 111 in 1990 and provided regular updates for the state CMP from 1991-2008. However, in October 2009, the San Diego region elected to be exempt from the State CMP and since 2009, SANDAG has been abiding by 23 CFR 450.320 to ensure the region s continued compliance with the federal congestion management process. 09818-05 TIA Report REV2 4 4

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1.3.2 ROADWAY SEGMENTS The roadway segment study area utilized for this analysis is based on a review of the key roadway segments in which the Project is anticipated to contribute 50 or more peak hour trips. The study area identifies a total of 10 existing/future roadway segments. The roadway segments include the segments on either side of the study area intersections and are listed in Table 1-2. TABLE 1-2: ROADWAY SEGMENT ANALYSIS LOCATIONS ID Street Segment Jurisdiction 1 South of Palm Avenue City of Imperial Beach 2 North of Elm Avenue City of Imperial Beach 3 Seacoast Drive Between Elm Avenue and Ebony Avenue City of Imperial Beach 4 Between Ebony Avenue and Imperial Beach Boulevard City of Imperial Beach 5 Between Seacoast Drive and 3 rd Street City of Imperial Beach Palm Avenue 6 East of 3 rd Street City of Imperial Beach 7 Elm Avenue East of Seacoast Drive City of Imperial Beach 8 Ebony Avenue East of Seacoast Drive City of Imperial Beach 9 Imperial Beach Between Seacoast Drive and 3 rd Street City of Imperial Beach 10 Boulevard East of 3 rd Street City of Imperial Beach 1.4 SUMMARY OF INTERSECTION ANALYSIS A summary of the peak hour intersection level of service (LOS) is provided on Table 1-3 for each of the analysis scenarios and on Table 1-4 for the study area roadway segments. As shown on Table 1-3 and Table 1-4, study area intersections and roadway segments are anticipated to operate at acceptable LOS for all analysis scenarios. This section provides a summary of the analysis results for Existing, E+P, Opening Year Cumulative, and Horizon Year traffic conditions. 1.4.1 INTERSECTIONS Existing (2015) Conditions For Existing traffic conditions, all the study area intersections were found to operate at an acceptable LOS based on the City of Imperial Beach s LOS standard. E+P Conditions For E+P traffic conditions, all the study area intersections were found to operate at an acceptable LOS based on the City of Imperial Beach s LOS standard. 09818-05 TIA Report REV2 6 6

Table 1 3 Summary of Intersection Level of Service Delay 1 Level of Delay 1 Level of Delay 1 Level of Delay 1 Level of Delay 1 Level of Delay 1 Level of (secs.) Service (secs.) Service (secs.) Service (secs.) Service (secs.) Service (secs.) Service # Intersection AM PM AM PM AM PM AM PM AM PM AM PM AM PM AM PM AM PM AM PM AM PM AM PM 1 Seacoast Dr. / Palm Av. 8.3 9.2 A A 8.5 9.8 A A 8.8 10.8 A B 9.1 11.8 A B 9.1 11.5 A B 9.4 13 A B 2 Seacoast Dr. / Elm Av. 10.1 11.6 B B 10.4 12.2 B B 10.4 13 B B 10.7 13.7 B B 10.8 13.6 B B 11 14 B B 3 Seacoast Dr. / Ebony Av. 9.9 10.4 A B 10.3 11 B B 10.3 11.3 B B 10.6 11.8 B B 10.5 11.6 B B 11 12 B B 4 Seacoast Dr. / Imperial Beach Bl. 8.3 8.7 A A 8.5 9.1 A A 8.5 9.4 A A 8.8 9.9 A A 8.8 9.7 A A 9 10 A B 5 3rd St. / Palm Av. 12.1 11.7 B B 12.6 12.7 B B 14.8 15.9 B C 15.7 17.9 C C 18.7 20.1 C C 20 24 C C 6 3rd St. / Imperial Beach Bl. 8.8 9.6 A A 9.1 10 A A 9.2 10.3 A B 9.4 11 A B 9.6 11.1 A B 9.9 12 A B 1 Existing E+P 2017 Without Project 2017 With Project Per the 2010 Highway Capacity Manual, overall average intersection delay and level of service are shown for intersections with a traffic signal or all way stop control. For intersections with cross street stop control, the delay and level of service for the worst individual movement (or movements sharing a single lane) are shown. 2040 Without Project 2040 With Project 7

Table 1 4 Summary of Roadway Segment Level of Service 1 1 2 Significant Acceptable # Roadway Segment Limits V/C LOS V/C LOS V/C LOS V/C LOS V/C LOS V/C LOS Impact? 2 LOS 0.63 B 0.71 C 0.93 E 1.02 F 1.02 F 1.10 F No 3 D 0.23 C 0.24 C 0.27 C 0.45 C No D 0.56 A 0.65 B 0.80 C 0.88 D 0.88 D 0.96 E No 3 D 0.39 C 0.43 C No D 3 Between Elm Av. and Ebony Av. 0.50 A 0.59 A 0.69 B 0.79 C 0.76 C 0.86 D No D 4 Between Ebony Av. and Imperial Beach Bl. 0.43 A 0.53 A 0.56 A 0.66 B 0.62 B 0.72 C No D 5 Between Seacoast Dr. and 3rd St. 0.30 A 0.35 A 0.49 A 0.54 A 0.53 A 0.58 A No D 6 Seacoast Dr. Palm Av. South of Palm Av. South of Palm Av. (Florida Method) NA North of Elm Av. East of 3rd St. 0.82 D 0.86 D 1.10 F 1.15 F 1.22 F 1.26 F No 3 D East of 3rd St. (Florida Method) NA NA 0.75 D 0.79 D 0.85 D 0.87 D No D 7 Elm Av. East of Seacoast Dr. 0.32 A 0.35 A 0.48 A 0.52 A 0.53 A 0.56 A No D 8 Ebony Av. East of Seacoast Dr. 0.12 A 0.15 A 0.22 A 0.25 A 0.23 A 0.27 A No D 9 Between Seacoast Dr. and 3rd St. 0.25 A 0.30 A 0.31 A 0.35 A 0.34 A 0.39 A No D Imperial Beach Bl. 10 East of 3rd St. 0.46 A 0.51 A 0.53 A 0.57 A 0.59 A 0.64 B No D BOLD = LOS does not meet the applicable jurisdictional requirements (i.e., unacceptable LOS). Existing (2015) E+P 2017 NP North of Elm Av. (Florida Method) NA NA 2017 WP 2040 NP 1 These maximum roadway capacities have been extracted from the following source: SANTEC/ITE Guidelines for Traffic Impact Studies [TIS] in the San Diego Region (Table 2) for NA NA NA each road facility type. These roadway capacities are "rule of thumb" estimates for planning purposes. The LOS "E" service volumes are estimated maximum daily capacity for respective classifications. By using the LOS "E" capacity for each roadway facility type, volume to capacity (v/c) values between 0.00 0.60 will represent LOS "A", 0.61 0.70 will represent LOS "B", 0.71 0.80 will represent LOS "C", 0.81 0.90 will represent LOS "D", 0.91 1.00 will represent LOS "E", and v/c values greater than 1.00 will represent LOS "F" operations. Capacity is affected by such factors as intersections (spacing, configuration and control features), degree of access control, roadway grades, design geometrics (horizontal and vertical alignment standards), sight distance, vehicle mix (truck and bus traffic) and pedestrian and bicycle traffic. 2040 WP A project is determined to significantly impact either a roadway segment or intersection if the addition of the project generated trips results in a change in LOS from acceptable to unacceptable. However, if a roadway segment is operating at an unacceptable LOS E or F prior to the addition of the project generated traffic, then a significant impact is identified if the V/C increases by 0.02 or more on a deficient roadway segment. 2 Although the roadway segment is anticipated to increase by a V/C of more than 0.02 due to the addition of Project traffic, the Florida method demonstrates acceptable LOS without additional widening. As such, additional widening has not been recommended. 3 8

Opening Year Cumulative (2017) Conditions For Opening Year Cumulative Without and With Project traffic conditions, all the study area intersections were found to operate at an acceptable LOS based on the City of Imperial Beach s LOS standard. Horizon Year (2040) Conditions For Horizon Year Without and With Project traffic conditions, all the study area intersections were found to operate at an acceptable LOS based on the City of Imperial Beach s LOS standard. 1.4.2 ROADWAY SEGMENTS Existing (2015) Conditions Based on the recommended daily roadway thresholds identified in the San Diego Street Design Manual, all the study roadway segments are anticipated to operate at acceptable LOS for Existing traffic conditions. E+P Conditions Based on the recommended daily roadway thresholds identified in the San Diego Street Design Manual, all the study roadway segments are anticipated to operate at acceptable LOS for E+P traffic conditions. Opening Year Cumulative (2017) Conditions Based on the recommended daily roadway thresholds identified in the San Diego Street Design Manual, all the study roadway segments are anticipated to operate at acceptable LOS for Opening Year Cumulative Without Project traffic conditions, with the exception of the following roadway segments: ID Street Segment 1 Seacoast Drive South of Palm Avenue LOS E 6 Palm Avenue East of 3 rd Street LOS F There are no additional roadway segments anticipated to operate at unacceptable LOS, with the addition of Project traffic for Opening Year Cumulative With Project traffic conditions, in addition to those identified for Opening Year Cumulative Without Project traffic conditions. These deficient roadway segments have been reevaluated using the Florida Method (based on peak hour volumes). Using the Florida Method, these segments are anticipated to operate at an acceptable LOS. As such, widening has not been recommended for these segments. Horizon Year (2040) Conditions Based on the recommended daily roadway thresholds identified in the San Diego Street Design Manual, there are no additional roadway segments anticipated to operate at an unacceptable 09818-05 TIA Report REV2 9 9

LOS for Horizon Year Without Project traffic conditions, in addition to those previously identified under Opening Year Cumulative (2017) traffic conditions. The following additional roadway segment is anticipated to operate at unacceptable LOS with the addition of Project traffic for Horizon Year With Project traffic conditions: ID Street Segment 2 Seacoast Drive North of Elm Avenue LOS E These deficient roadway segments have been reevaluated using the Florida Method (based on peak hour volumes). Using the Florida Method, these segments are anticipated to operate at an acceptable LOS. As such, widening has not been recommended for these segments. 1.5 SITE ACCESS IMPROVEMENTS Vehicular and will be provided via the western extension of Imperial Beach Boulevard, west of Seacoast Drive (see Exhibit 1-1). Regional access to the site is provided via the I-5 Freeway at the Imperial Beach Boulevard interchange. 1.5.1 SITE ADJACENT ROADWAY IMPROVEMENTS Roadway improvements necessary to provide site access and on-site circulation are assumed to be constructed in conjunction with site development and are described below. These improvements are required to be in place prior to occupancy. Construction of on-site and site adjacent improvements are recommended to occur in conjunction with adjacent Project development activity or as needed for Project access purposes. Seacoast Drive Seacoast Drive is a north-south oriented roadway located along the Project s eastern boundary. Seacoast Drive is currently built out at its ultimate full-section width as 2- lane collector along the Project s frontage, in compliance with applicable City of Imperial Beach standards. Wherever necessary, roadways adjacent to the Project, site access points and site-adjacent intersections will be constructed to be consistent with or within the recommended roadway classifications and respective cross-sections in the City of Imperial Beach General Plan Circulation Element. 1.5.2 SITE ACCESS IMPROVEMENTS The recommended site access driveway improvements for the Project are described below. Construction of on-site and site adjacent improvements shall occur in conjunction with adjacent Project development activity or as needed for Project access purposes. Seacoast Drive / Imperial Beach Boulevard (#4) Maintain the existing all-way (4-way) stop control and the existing intersection geometrics: Northbound Approach: One shared left-through-right turn lane. Southbound Approach: One shared left-through-right turn lane. 09818-05 TIA Report REV2 10 10

Eastbound Approach: One shared left-through-right turn lane. Westbound Approach: One left turn lane, one through lane, and one defacto right turn lane. On-site traffic signing and striping should be implemented in conjunction with detailed construction plans for the Project site. Sight distance at each project access point should be reviewed with respect to standard Caltrans and City of Imperial Beach sight distance standards at the time of preparation of final grading, landscape and street improvement plans. 1.6 ON-SITE PARKING A parking evaluation has also been prepared to calculate the number of parking space requirements based on the proposed land uses per the City s Municipal Code 19.48.035, evaluate the applicable reductions for vertical mixed use based on discussions with City staff, and provide a qualitative assessment of employee and guest parking for the site. A detailed parking study is being prepared for the proposed Project; however, it is our understating that the parking study has not yet been completed at the time of this traffic study. It is our understanding that the Project complies with the City s Municipal Code and provides adequate parking based on the proposed 100 room hotel. 09818-05 TIA Report REV2 11 11

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2 METHODOLOGIES This section of the report presents the methodologies used to perform the traffic analyses summarized in this report. The methodologies described are generally consistent with SANTEC TIS guidelines. (1) 2.1 LEVEL OF SERVICE Traffic operations of roadway facilities are described using the term "Level of Service" (LOS). LOS is a qualitative description of traffic flow based on several factors such as speed, travel time, delay, and freedom to maneuver. Six levels are typically defined ranging from LOS A, representing completely free-flow conditions, to LOS F, representing breakdown in flow resulting in stop-and-go conditions. LOS E represents operations at or near capacity, an unstable level where vehicles are operating with the minimum spacing for maintaining uniform flow. 2.2 INTERSECTION CAPACITY ANALYSIS The definitions of LOS for interrupted traffic flow (flow restrained by the existence of traffic signals and other traffic control devices) differ slightly depending on the type of traffic control. The LOS is typically dependent on the quality of traffic flow at the intersections along a roadway. The Highway Capacity Manual (HCM) methodology expresses the LOS at an intersection in terms of delay time for the various intersection approaches. (4) The HCM uses different procedures depending on the type of intersection control. 2.2.1 SIGNALIZED INTERSECTIONS City of Imperial Beach The City of Imperial Beach requires signalized intersection operations analysis based on the methodology described in the HCM. (4) Intersection LOS operations are based on an intersection s average control delay. Control delay includes initial deceleration delay, queue move-up time, stopped delay, and final acceleration delay. For signalized intersections LOS is directly related to the average control delay per vehicle and is correlated to a LOS designation as described in Table 2-1. Study area intersections have been evaluated using the Synchro (Version 9.1 Build 904) analysis software package. Synchro is a macroscopic traffic software program that is based on the signalized intersection capacity analysis as specified in the HCM. Macroscopic level models represent traffic in terms of aggregate measures for each movement at the study intersections. Equations are used to determine measures of effectiveness such as delay and queue length. The level of service and capacity analysis performed by Synchro takes into consideration optimization and coordination of signalized intersections within a network. 09818-05 TIA Report REV2 13 13

TABLE 2-1: SIGNALIZED INTERSECTION LOS THRESHOLDS Description Operations with very low delay occurring with favorable progression and/or short cycle length. Operations with low delay occurring with good progression and/or short cycle lengths. Operations with average delays resulting from fair progression and/or longer cycle lengths. Individual cycle failures begin to appear. Operations with longer delays due to a combination of unfavorable progression, long cycle lengths, or high V/C ratios. Many vehicles stop and individual cycle failures are noticeable. Operations with high delay values indicating poor progression, long cycle lengths, and high V/C ratios. Individual cycle failures are frequent occurrences. This is considered to be the limit of acceptable delay. Operation with delays unacceptable to most drivers occurring due to over saturation, poor progression, or very long cycle lengths Source: HCM Average Control Delay (Seconds), V/C 1.0 Level of Service, V/C 1.0 Level of Service, V/C > 1.0 0 to 10.00 A F 10.01 to 20.00 B F 20.01 to 35.00 C F 35.01 to 55.00 D F 55.01 to 80.00 E F 80.01 and up F F The peak hour traffic volumes have been adjusted using a peak hour factor (PHF) to reflect peak 15 minute volumes. Common practice for LOS analysis is to use a peak 15-minute rate of flow. However, flow rates are typically expressed in vehicles per hour. The PHF is the relationship between the peak 15-minute flow rate and the full hourly volume (e.g. PHF = [Hourly Volume] / [4 x Peak 15-minute Flow Rate]). The use of a 15-minute PHF produces a more detailed analysis as compared to analyzing vehicles per hour. Existing PHFs have been used for all analysis scenarios. Per the HCM, PHF values over 0.95 often are indicative of high traffic volumes with capacity constraints on peak hour flows while lower PHF values are indicative of greater variability of flow during the peak hour. (4) 2.2.2 UNSIGNALIZED INTERSECTIONS The City of Imperial Beach requires the operations of unsignalized intersections be evaluated using the methodology described the HCM. (4) The LOS rating is based on the weighted average control delay expressed in seconds per vehicle (see Table 2-2). At two-way or side-street stop-controlled intersections, LOS is calculated for each controlled movement and for the left turn movement from the major street, as well as for the intersection as a whole. For approaches composed of a single lane, the delay is computed as the average of all movements in that lane. For all-way stop controlled intersections, LOS is computed for the intersection as a whole. 09818-05 TIA Report REV2 14 14

TABLE 2-2: UNSIGNALIZED INTERSECTION LOS THRESHOLDS Description Average Control Delay Per Vehicle (Seconds) Level of Service, V/C 1.0 Level of Service, V/C > 1.0 Little or no delays. 0 to 10.00 A F Short traffic delays. 10.01 to 15.00 B F Average traffic delays. 15.01 to 25.00 C F Long traffic delays. 25.01 to 35.00 D F Very long traffic delays. 35.01 to 50.00 E F Extreme traffic delays with intersection capacity exceeded. > 50.00 F F Source: HCM 2.3 ROADWAY SEGMENT CAPACITY ANALYSIS 2.3.1 ROADWAY SEGMENT CAPACITY ANALYSIS (ADT METHOD) Roadway segment operations have been evaluated using the City of San Diego Street Design Manual. (1) Per the TIS guidelines, the daily roadway segment capacities for each type of roadway are summarized in Table 2-3. TABLE 2-3: ROADWAY SEGMENT CAPACITY (ADT METHOD) LOS THRESHOLDS 1 Facility Type Level of Service Capacity 1 A B C D E Two Lanes Divided 4,000 5,500 7,500 9,000 10,000 Two Lanes Undivided 2,500 3,500 5,000 6,500 8,000 Residential -- -- 2,200 -- -- 1 These maximum roadway capacities have been extracted from Table 2 of the SANTEC/ITE Guidelines for TIS in the San Diego Region. These roadway capacities are "rule of thumb" estimates for planning purposes. The LOS "E" service volumes are estimated maximum daily capacity for respective roadway classifications. Capacity is affected by such factors as intersections (spacing, configuration and control features), degree of access control, roadway grades, design geometrics (horizontal and vertical alignment standards), sight distance, vehicle mix (truck and bus traffic) and pedestrian and bicycle traffic. As noted in the SANTEC TIS guidelines, these roadway capacities are rule of thumb estimates for planning purposes and are affected by such factors as intersections (spacing, configuration and control features), degree of access control, roadway grades, design geometrics (horizontal and vertical alignment standards), sight distance, vehicle mix (truck and bus traffic) and pedestrian bicycle traffic. In other words, while using average daily traffic (ADT) for planning purposes is suitable with regards to evaluating potential volume to capacity with future forecasts, it is not suitable for operational analysis because it does not account for the factors listed previously. As such, where the ADT based roadway segment analysis indicates a deficiency (unacceptable LOS), a review of the more detailed peak hour intersection analysis and progression analysis are undertaken. The more detailed peak hour intersection analysis explicitly accounts for factors that affect roadway capacity. Therefore, roadway segment widening is typically only recommended if the peak hour intersection analysis indicates the need for additional through lanes. 09818-05 TIA Report REV2 15 15

2.3.2 ROADWAY SEGMENT CAPACITY ANALYSIS (FLORIDA METHOD) Roadway segments anticipated to operate at a deficient LOS using the ADT method have been reevaluated using the Florida Department of Transportation s Quality/Level of Service Handbook. (5) Per the TIS guidelines, the daily roadway segment capacities for each type of roadway are summarized in Table 2-4. TABLE 2-4: ROADWAY SEGMENT CAPACITY (FLORIDA METHOD) LOS THRESHOLDS 1 Facility Type Level of Service Capacity 1 A B C D E Two Lanes Divided - - 609 1,260 1,344 Two Lanes Undivided - - 580 1,200 1,280 1 These maximum roadway capacities have been extracted from Table 5 of the 2013 Quality/Level of Service Handbook from the State of Florida Department of Transportation. These roadway capacities are "rule of thumb" estimates for planning purposes. The LOS "E" service volumes are estimated maximum peak hour capacity for respective roadway classifications. Capacity is affected by such factors as intersections (spacing, configuration and control features), degree of access control, roadway grades, design geometrics (horizontal and vertical alignment standards), sight distance, vehicle mix (truck and bus traffic) and pedestrian and bicycle traffic. LOS A and B do not exist for this classification of roadway utilizing the Florida Method. In addition to the roadway segment capacity analysis (ADT Method), roadway segment capacity analysis is performed based on the Florida method as a secondary analysis to access the roadway segment condition. This method is based on the peak hour segment volume comparison with the threshold capacities. As the worst case condition occurs during the AM and PM peak hours, this method is used as a reasonable way to evaluate the LOS of the segment and to determine if any roadway segment widening is necessary. 2.4 TRAFFIC SIGNAL WARRANT ANALYSIS METHODOLOGY The term "signal warrants" refers to the list of established criteria used by Caltrans and other public agencies to quantitatively justify or ascertain the potential need for installation of a traffic signal at an otherwise unsignalized intersection. This TIS uses the signal warrant criteria presented in the latest edition of the Federal Highway Administration s (FHWA) Manual on Uniform Traffic Control Devices (MUTCD), as amended by the MUTCD 2014 California Supplement, for all study area intersections. (6) The signal warrant criteria for Existing study area intersections are based upon several factors, including volume of vehicular and pedestrian traffic, frequency of accidents, and location of school areas. Both the FHWA s MUTCD and the MUTCD 2014 California Supplement indicate that the installation of a traffic signal should be considered if one or more of the signal warrants are met. (6) Specifically, this TIS utilizes the Peak Hour Volume-based Warrant 3 as the appropriate representative traffic signal warrant analysis for existing traffic conditions. Warrant 3 criteria are basically identical for both the FHWA s MUTCD and the MUTCD 2014 California Supplement. Warrant 3 is appropriate to use for this TIS because it provides specialized warrant criteria for intersections with rural characteristics (e.g. located in communities with populations of less than 10,000 persons or with adjacent major streets 09818-05 TIA Report REV2 16 16

operating above 40 miles per hour). For the purposes of this study, the speed limit was the basis for determining whether Urban or Rural warrants were used for a given intersection. Future unsignalized intersections, that currently do not exist, have been assessed regarding the potential need for new traffic signals based on future average daily traffic (ADT) volumes, using the Caltrans planning level ADT-based signal warrant analysis worksheets. Traffic signal warrant analyses were performed for all unsignalized study area intersections during the peak weekday conditions wherein the Project is anticipated to contribute the highest trips. The Existing conditions traffic signal warrant analysis is presented in the subsequent section, Section 3 Area Conditions of this report. The traffic signal warrant analyses for future conditions are presented in Section 5 E+P Traffic Analysis, Section 6 Opening Year Cumulative (2017) Traffic Analysis, and Section 7 Horizon Year (2040) Traffic Analysis of this report. It is important to note that a signal warrant defines the minimum condition under which the installation of a traffic signal might be warranted. Meeting this threshold condition does not require that a traffic control signal be installed at a particular location, but rather, that other traffic factors and conditions be evaluated in order to determine whether the signal is truly justified. It should also be noted that signal warrants do not necessarily correlate with LOS. An intersection may satisfy a signal warrant condition and operate at or above acceptable LOS or operate below acceptable LOS and not meet a signal warrant. 2.5 THRESHOLDS OF SIGNIFICANCE The definition of an intersection/roadway segment deficiency has been obtained from each of the applicable surrounding jurisdictions. The following thresholds of significance will be utilized to determine if the addition of project-related traffic will result in significant impacts, and whether the implementation of the recommended feasible improvements would result in exceeding the LOS thresholds for each applicable jurisdiction. 2.5.1 CITY OF IMPERIAL BEACH A Project is determined to significantly impact either a roadway segment or intersection if the addition of the project-generated trips results in a change in LOS from acceptable to unacceptable. However, if an intersection is operating at an unacceptable LOS E or F prior to the addition of the project-generated traffic, then a significant impact is identified as follows: An increase in delay of more than 2.0 seconds at a deficient intersection would result in a significant impact. An increase to the volume to capacity (v/c) of 0.02 on a deficient roadway segment would result in a significant impact. 2.6 CEQA COMPLIANCE AND DOCUMENTATION This section outlines the methodology used in this analysis related to identifying circulation system deficiencies. The following types of traffic deficiencies are considered to be significant under the California Environmental Quality Act (CEQA): 09818-05 TIA Report REV2 17 17

When project traffic, added to existing traffic, will deteriorate the LOS to below the target LOS. When cumulative traffic exceeds the target LOS. 09818-05 TIA Report REV2 18 18

3 AREA CONDITIONS This section provides a summary of the existing circulation network, the City of Imperial Beach General Plan Circulation Network, and a review of existing peak hour intersection operations, roadway segment, and traffic signal warrant analyses. 3.1 EXISTING CIRCULATION NETWORK Pursuant to the agreement with City of Imperial Beach staff (Appendix 1.1), the study area includes a total of 6 existing and future intersections as shown previously on Exhibit 1-2 where the Project is anticipated to contribute 50 or more peak hour trips. Exhibit 3-1 illustrates the study area intersections located near the proposed Project and identifies the number of through traffic lanes for existing roadways and intersection traffic controls. 3.2 CITY OF IMPERIAL BEACH GENERAL PLAN CIRCULATION ELEMENT As noted previously, the Project site is located within the City of Imperial Beach. 3.2.1 CITY OF IMPERIAL BEACH The roadway classifications and planned (ultimate) roadway cross-sections of the major roadways within the study area, as identified on the City of Imperial Beach General Plan Street Classifications. Exhibit 3-2 shows the City of Imperial Beach General Plan Street Classifications. 3.3 TRANSIT SERVICE The study area is currently served by the San Diego Metropolitan Transit System (MTS), a public transit agency serving the San Diego region. As shown on Exhibit 3-3, there is currently 1 existing bus route that serves the roadways within the study area in close proximity to the proposed Project. MTS Route 934 serves Palm Avenue, Seacoast Drive, and Imperial Beach Boulevard. Transit service is reviewed and updated by MTS periodically to address ridership, budget and community demand needs. Changes in land use can affect these periodic adjustments which may lead to either enhanced or reduced service where appropriate. 3.4 BICYCLE & PEDESTRIAN FACILITIES In an effort to promote alternative modes of transportation, the City of Imperial Beach also includes a bikeway system. The City of Imperial Beach bikeway system are shown on Exhibit 3-4 and EcoRoute Bikeways are shown on Exhibit 3-5. There are Class II bike lanes striped along Imperial Beach Boulevard near the vicinity of the proposed Project and Class III bike routes are accommodated along Seacoast Drive near the vicinity of the proposed Project. Class II bike lanes are striped on the road and Class III bike lanes are on-road shared lanes with vehicular traffic. Typically, Class III bike lanes are signed, but not striped. 09818-05 TIA Report REV2 19 19

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Field observations conducted in September 2015 indicate pedestrian and bicycle activity within the study area. Exhibit 3-6 illustrates the existing pedestrian facilities, including crosswalk locations and bus stop locations. Most if not all of the study area roadways include sidewalks and curb and gutter improvements. 3.5 EXISTING (2015) TRAFFIC COUNTS The intersection LOS analysis is based on the traffic volumes observed during the peak hour conditions using traffic count data collected in October 2015. The following peak hours were selected for analysis: Weekday AM Peak Hour (peak hour between 7:00 AM and 9:00 AM) Weekday PM Peak Hour (peak hour between 4:00 PM and 6:00 PM) The weekday AM and weekday PM peak hour count data is representative of typical weekday peak hour traffic conditions in the study area. There were no observations made in the field that would indicate atypical traffic conditions on the count dates, such as construction activity or detour routes and near-by schools were in session and operating on normal schedules. The raw manual peak hour turning movement traffic count data sheets are included in Appendix 3.1. These raw turning volumes have been flow conserved between intersections with limited access, no access and where there are currently no uses generating traffic (e.g., between rampto-arterial intersections, etc.). Existing weekday average daily traffic (ADT) volumes on arterial highways throughout the study area are shown on Exhibit 3-7. Existing ADTs are based on actual 24-hour tube count data collected in the field (see Appendix 3.1). Existing weekday AM and weekday PM peak hour intersection volumes are also shown on Exhibit 3-7. 3.6 INTERSECTION OPERATIONS ANALYSIS Existing peak hour traffic operations have been evaluated for the study area intersections based on the analysis methodologies presented in Section 2.2 Intersection Capacity Analysis of this report. The intersection operations analysis results are summarized in Table 3-1 which indicates that the existing study area intersections are currently operating at an acceptable LOS during the peak hours (i.e., LOS B or better). Consistent with Table 3-1, a summary of the peak hour intersection LOS for Existing conditions are shown on Exhibit 3-8. The intersection operations analysis worksheets are included in Appendix 3.2 of this TIS. 09818-05 TIA Report REV2 25 25

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Table 3 1 Intersection Analysis for Existing (2015) Conditions Intersection Approach Lanes 1 Delay 2 Level of Traffic Northbound Southbound Eastbound Westbound (secs.) Service Acceptable # Intersection Control 3 L T R L T R L T R L T R AM PM AM PM LOS 1 Seacoast Dr. / Palm Av. AWS 0 1 d 0 1 0 0 1 0 0 1 1 8.3 9.2 A A D 2 Seacoast Dr. / Elm Av. CSS 0 1 0 0 1 0 0 1 0 0 1 0 10.1 11.6 B B D 3 Seacoast Dr. / Ebony Av. CSS 0 1 0 0 1 0 0 1 0 0 1 0 9.9 10.4 A B D 4 Seacoast Dr. / Imperial Beach Bl. AWS 0 1 0 0 1 0 0 1 0 1 1 d 8.3 8.7 A A D 5 3rd St. / Palm Av. AWS 0 1 0 0 1 0 1 1 0 1 1 0 12.1 11.7 B B D 6 3rd St. / Imperial Beach Bl. AWS 0 1 0 0 1 0 1 1 0 1 1 0 8.8 9.6 A A D 1 When a right turn is designated, the lane can either be striped or unstriped. To function as a right turn lane there must be sufficient width for right turning vehicles to travel outside the through lanes. 2 3 L = Left; T = Through; R = Right; d= Defacto Right Turn Lane Per the 2010 Highway Capacity Manual, overall average intersection delay and level of service are shown for intersections with a traffic signal or all way stop control. For intersections with cross street stop control, the delay and level of service for the worst individual movement (or movements sharing a single lane) are shown. CSS = Cross street Stop; AWS = All Way Stop 29

3.7 EXISTING CONDITIONS ROADWAY SEGMENT CAPACITY ANALYSIS The SANTEC/ITE TIS guidelines provides roadway volume capacity values presented previously on Table 2-3. The roadway segment capacities are approximate figures only, and are used at the General Plan level to assist in determining the roadway functional classification (number of through lanes) needed to meet traffic demand. Table 3-2 provides a summary of the Existing (2015) conditions roadway segment capacity analysis based on the City of Imperial Beach General Plan Circulation Element Roadway Segment Capacity/ (LOS) Thresholds identified previously on Table 2-3. As shown on Table 3-2, all of the study area roadway segments currently operate at an acceptable LOS based on the City s planning level daily roadway capacity thresholds. 3.8 TRAFFIC SIGNAL WARRANTS ANALYSIS Traffic signal warrants for Existing traffic conditions are based on existing peak hour intersection turning volumes. There are no study area intersections that currently warrant a traffic signal under Existing traffic conditions. Existing conditions traffic signal warrant analysis worksheets are provided in Appendix 3.3. 3.9 RECOMMENDED IMPROVEMENTS 3.9.1 RECOMMENDED IMPROVEMENTS TO ADDRESS DEFICIENCIES AT INTERSECTIONS All study area intersections are anticipated to operate at acceptable LOS (i.e., LOS B or better) for Existing (2015) traffic conditions. As such, no intersection improvements have been recommended. 3.9.2 RECOMMENDED IMPROVEMENTS TO ADDRESS DEFICIENCIES ON ROADWAY SEGMENTS All study area roadways segments are currently operating at acceptable LOS (i.e., LOS D or better) for Existing (2015) traffic conditions. As such, no roadway segment improvements have been recommended. 09818-05 TIA Report REV2 30 30

Table 3 2 Roadway Segment Volume/Capacity Analysis for Existing (2015) Conditions Roadway LOS Existing Acceptable # Roadway Segment Limits Section Capacity 1 (2015) V/C LOS LOS 1 South of Palm Av. 2U 8,000 5,027 0.63 B D 2 North of Elm Av. 2U 8,000 4,506 0.56 A D Seacoast Dr. 3 Between Elm Av. and Ebony Av. 2U 8,000 3,991 0.50 A D 4 Between Ebony Av. and Imperial Beach Bl. 2U 8,000 3,400 0.43 A D 5 Between Seacoast Dr. and 3rd St. 2D 15,000 4,560 0.30 A D Palm Av. 6 East of 3rd St. 2D 15,000 12,301 0.82 D D 7 Elm Av. East of Seacoast Dr. 2U 2,200 699 0.32 A D 8 Ebony Av. East of Seacoast Dr. 2U 2,200 253 0.12 A D 9 Between Seacoast Dr. and 3rd St. 2D 15,000 3,798 0.25 A D Imperial Beach Bl. 10 East of 3rd St. 2D 15,000 6,959 0.46 A D 1 These maximum roadway capacities have been extracted from the following source: SANTEC/ITE Guidelines for Traffic Impact Studies [TIS] in the San Diego Region (Table 2) for each road facility type. These roadway capacities are "rule of thumb" estimates for planning purposes. The LOS "E" service volumes are estimated maximum daily capacity for respective classifications. By using the LOS "E" capacity for each roadway facility type, volumeto capacity (v/c) values between 0.00 0.60 will represent LOS "A", 0.61 0.70 will represent LOS "B", 0.71 0.80 will represent LOS "C", 0.81 0.90 will represent LOS "D", 0.91 1.00 will represent LOS "E", and v/c values greater than 1.00 will represent LOS "F" operations. Capacity is affected by such factors as intersections (spacing, configuration and control features), degree of access control, roadway grades, design geometrics (horizontal and vertical alignment standards), sight distance, vehicle mix (truck and bus traffic) and pedestrian and bicycle traffic. 31

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4 PROJECTED FUTURE TRAFFIC This section presents the traffic volumes estimated to be generated by the Project, as well as the Project s trip assignment onto the study area roadway network. The Project is proposed to consist of 100 hotel rooms, 4,937 square foot (sf) quality restaurant, and 1,971 square feet of retail uses as part of the hotel (e.g., gift shop). An Opening Year of 2017 will be used for the purposes of this TIS. Vehicular and will be provided via the western extension of Imperial Beach Boulevard, west of Seacoast Drive (see Exhibit 1-1). Regional access to the site is provided via the I-5 Freeway at the Imperial Beach Boulevard interchange. 4.1 PROJECT TRIP GENERATION Trip generation represents the amount of traffic which is both attracted to and produced by a development. Determining traffic generation for a specific project is therefore based upon forecasting the amount of traffic that is expected to be both attracted to and produced by the specific land uses being proposed for a given development. Trips generated by the Project s proposed land uses have been estimated based on trip generation rates collected by the San Diego Association of Governments (SANDAG) (Not So) Brief Guide of Vehicular Traffic Generation Rates for the San Diego Region. (2) Trip generation rates used to estimate Project traffic are shown in Table 4-1. A summary of the Project s trip generation is also shown in Table 4-1. For purposes of this analysis, ITE land use code 841 (New Car Sales) has been utilized to derive site specific trip generation estimates. As shown on Table 4-1, the Project is estimated to generate a net total of 1,494 trip-ends per day, with 65 AM peak hour trips and 120 PM peak hour trips. Trips for 1,971 square foot specialty retail is part of the Hotel use (e.g., gift shop, etc.). As such, trip generation associated with the specialty retail is reflected in the trip generation for the hotel use. 4.2 PROJECT TRIP DISTRIBUTION Trip distribution is the process of identifying the probable destinations, directions or traffic routes that will be utilized by Project traffic. The potential interaction between the planned land uses and surrounding regional access routes are considered, to identify the route where the Project traffic would distribute. The Project trip distribution was developed based on anticipated travel patterns to and from the Project site. The Project trip distribution patterns were developed based on an understanding of existing travel patterns in the area, the geographical location of the site, and the site s proximity to the regional arterial and state highway system. Trip distribution patterns for the proposed Project are illustrated on Exhibit 4-1. 09818-05 TIA Report REV2 33 33

Table 4 1 Project Trip Generation Rates & Trip Generation Summary Weekday AM Peak Hour Weekday PM Peak Hour Units 2 Weekday Land Use In Out Total In Out Total Daily Project Trip Generation Rates 1 Hotel Rooms 0.36 0.24 0.60 0.48 0.32 0.80 10.00 Restaurant, Quality TSF 0.60 0.40 1.00 5.60 2.40 8.00 100.00 Weekday AM Peak Hour Weekday PM Peak Hour Quantity Units 2 Weekday Project In Out Total In Out Total Daily Project Trip Generation Summary Hotel 3 100 Rooms 36 24 60 48 32 80 1,000 Restaurant, Quality 4.937 TSF 3 2 5 28 12 40 494 Total Trips 39 26 65 76 44 120 1,494 1 Source: SANDAG "(Not So) Brief Guide of Vehicular Traffic Generation Rates For The San Diego Region", April 2002 2 TSF = Thousand Square Feet 3 Trips for 1,971 square foot specialty retail is part of the Hotel use (e.g., gift shop, etc.). 34

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4.3 MODAL SPLIT The traffic reducing potential of public transit, walking or bicycling have not been considered in this TIS. Essentially, the traffic projections are "conservative" in that these alternative travel modes might be able to reduce the forecasted traffic volumes (employee and guest/patron trips). 4.4 PROJECT TRIP ASSIGNMENT The assignment of traffic from the Project area to the adjoining roadway system is based upon the Project trip generation, trip distribution, and the arterial highway and local street system improvements that would be in place by the time of initial occupancy of the Project. Based on the identified Project traffic generation and trip distribution patterns, Project ADT and peak hour intersection turning movement volumes are shown Exhibit 4-2. 4.5 BACKGROUND TRAFFIC Future year traffic forecasts have been based upon background (ambient) growth at 2% per year, compounded annually, for 2017 traffic conditions. The ambient growth factor is intended to approximate regional traffic growth. This ambient growth rate is added to existing traffic volumes to account for area-wide growth not reflected by cumulative development projects. Ambient growth has been added to daily and peak hour traffic volumes on surrounding roadways, in addition to traffic generated by the development of future projects that have been approved but not yet built and/or for which development applications have been filed and are under consideration by governing agencies. The SANDAG Series 13 Regional Growth Forecasts for the San Diego Region identifies projected growth in population of 3,143,429 in 2012 to 4,068,759 in 2050, or a 29.44 percent increase over the 38-year period. (3) The change in population equates to roughly a 0.68 percent growth rate, compounded annually. Similarly, growth over the same 38-year period in households is projected to increase by 27.97 percent, or 0.65 percent annual growth rate. Finally, growth in employment over the same 38-year period is projected to increase by 31.74 percent, or a 0.73 percent annual growth rate. 4.6 CUMULATIVE DEVELOPMENT TRAFFIC California Environmental Quality Act (CEQA) guidelines require that other reasonably foreseeable development projects which are either approved or being processed concurrently in the study area also be included as part of a cumulative analysis scenario. A cumulative project list was developed for the purposes of this analysis through consultation with planning and engineering staff from the City of Imperial Beach, the cumulative project list includes known and foreseeable projects that are anticipated to contribute traffic to the study area intersections. 09818-05 TIA Report REV2 36 36

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Where applicable, cumulative projects anticipated to contribute measurable traffic (i.e. 50 or more peak hour trips) to study area intersections have been manually added to the study area network to generate both Opening Year Cumulative and Horizon Year traffic forecasts. In other words, this list of cumulative development projects has been reviewed to determine which projects would likely contribute measurable traffic through the study area intersections (e.g., those cumulative projects in close proximity to the proposed Project). Any additional traffic generated by other projects is accounted for through background ambient growth factors that have been applied to the peak hour volumes at study area intersections as discussed in Section 4.5 Background Traffic. Exhibit 4-3 illustrates the cumulative development location map. A summary of cumulative development projects and their proposed land uses are shown on Table 4-2. Where applicable, the traffic generated by individual cumulative projects has been manually added to both the Opening Year Cumulative and Horizon Year traffic forecasts to ensure that traffic generated by the listed cumulative development projects in Table 4-2 are reflected as part of the background traffic. 4.7 TRAFFIC FORECASTS To provide a comprehensive assessment of potential transportation network deficiencies buildup analyses were performed in support of this work effort. The buildup method was used to approximate both the Opening Year Cumulative and Horizon Year traffic forecasts, and is intended to identify the cumulative impacts on both the existing and planned circulation system. The Opening Year Cumulative and Horizon Year traffic forecasts include background traffic, traffic generated by other cumulative development projects within the study area, and the traffic generated by the proposed Project. The buildup approach combines existing traffic counts with a background ambient growth factor to forecast the near-term 2017 traffic conditions. An ambient growth factor of 4.04% (2017) accounts for background (area-wide) traffic increases that occur over time, up to the year 2017 from the year 2015 (compounded two percent per year growth over a 2-year period). Similarly, an ambient growth factor of 18.17% (2040) accounts for background (area-wide) traffic increases that occur over time, up to the year 2040 from the year 2015 (based on the Series 13 SANDAG Regional Growth Forecasts). Traffic volumes generated by the Project are then added to assess both the Opening Year Cumulative and Horizon Year traffic conditions. The 2017 and Horizon Year roadway network is similar to the existing conditions roadway network with the exception of future roadways and intersections proposed to be developed by the Project. 09818-05 TIA Report REV2 38 38

Imperial Beach ResortsTraffic Impact Analysis EXHIBIT 4-3: CUMULATIVE DEVELOPMENT PROJECTS LOCATION MAP 7 7 7 10 2 SITE 5 6 4 1 8 11 3 9 _N 09818- cd.mxd 3 Sources: Esri, HERE, DeLorme, Intermap, increment P Corp., GEBCO, USGS, FAO, NPS, NRCAN, GeoBase, IGN, Kadaster NL, Ordnance Survey, Esri Japan, METI, Esri China (Hong Kong), swisstopo, MapmyIndia, OpenStreetMap contributors, and the GIS User Community 39

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Table 4 2 Cumulative Development Land Use Summary # Project/Location Description 1 1 2 3 General Commercial and Mixed Use (C/MU 1) Seacoast Commercial and Mixed Use (C/MU 2) Neighborhood Commercial and Mixed Use (C/MU 3) Residential up to 43 DU/ac Commercial 60% minimum Residential up to 29 36 DU/ac Commercial 60% minimum Residential up to 29 36 DU/ac Commercial 60% minimum 4 Rezone from C 3 to R 3000 Residential up to 14 DU/ac 5 Bernardo Shores Townhomes 194 DUs 6 Breakwater Shopping Center (9th and Palm) Commercial (market, specialty retail, food service, fast food, drug store) 7 Navy NBC Coastal Campus Naval Base 8 Imperial Beach Bikeway Village 18,983 SF of strip commercial space & 50 bed hostel 9 Residential at Coronado/Marian Catholic HS 175 DUs 10 Pier South (Seacoast Inn) 78 room hotel and 3,700 SF of restaurant space 11 American Legion Post 1 SF = Square Feet; DU = Dwelling Unit; AC = Acres Redevelopment of 30 residential units and 3,600 SF American Legion Post 41

As noted previously, an analysis of the proposed Project at various development tiers has been assessed for the purposes of this traffic study. This TIS includes the following traffic conditions, with the various traffic components: Opening Year Cumulative (2017) o Existing 2015 counts o Ambient growth traffic (4.04%) o Cumulative Development Project traffic o Project traffic Horizon Year (2040) o Existing 2015 counts o Ambient growth traffic (18.17%) o Cumulative Development Project traffic o Project traffic 09818-05 TIA Report REV2 42 42

5 E+P TRAFFIC CONDITIONS This section discusses the traffic forecasts for Existing plus Project (E+P) conditions and the resulting intersection operations, roadway segment, and traffic signal warrant analyses. 5.1 ROADWAY IMPROVEMENTS The lane configurations and traffic controls assumed to be in place for E+P conditions are consistent with those shown previously on Exhibit 3-1, with the exception of the following: Project driveways and those facilities assumed to be constructed by the Project to provide site access are also assumed to be in place for E+P conditions only (e.g., intersection and roadway improvements at the Project s frontage and driveways). 5.2 E+P TRAFFIC VOLUME FORECASTS This scenario includes Existing traffic volumes plus Project traffic and assumes the existing roadway network. Exhibit 5-1 shows the ADT and peak hour intersection turning movement volumes, which can be expected for E+P traffic conditions. 5.3 INTERSECTION OPERATIONS ANALYSIS E+P peak hour traffic operations have been evaluated, for the study area intersections based on the analysis methodologies presented in Section 2 Methodologies of this TIS. The intersection analysis results are summarized in Table 5-1, which show that consistent with Existing conditions, the study area intersections are anticipated to continue to operate at acceptable LOS with the addition of Project traffic for E+P traffic conditions. A summary of the peak hour intersection LOS for E+P conditions are shown on Exhibit 5-2. The intersection operations analysis worksheets for E+P traffic conditions are included in Appendix 5.1 of this TIS. 5.4 ROADWAY SEGMENT CAPACITY ANALYSIS As noted previously, the roadway segment capacities are approximate figures only, and are used at the General Plan level to assist in determining the roadway functional classification (number of through lanes) needed to meet future traffic demand. Table 5-2 provides a summary of the E+P conditions roadway segment capacity analysis based on the roadway segment capacities/thresholds identified previously on Table 2-3. As shown on Table 5-2, there are no study area roadway segments that are anticipated to operate at an unacceptable LOS under E+P traffic conditions, consistent with Existing traffic conditions. 09818-05 TIA Report REV2 43 43

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Table 5 1 Intersection Analysis for E+P Conditions Existing (2015) E+P Change Traffic Delay 1 (secs.) LOS Delay 1 (secs.) LOS in Delay Significant # Intersection Control 2 AM PM AM PM AM PM AM PM AM PM Impact? 3 1 Seacoast Dr. / Palm Av. AWS 8.3 9.2 A A 8.5 9.8 A A 0.2 0.6 No 2 Seacoast Dr. / Elm Av. CSS 10.1 11.6 B B 10.4 12.2 B B 0.3 0.6 No 3 Seacoast Dr. / Ebony Av. CSS 9.9 10.4 A B 10.3 11.0 B B 0.4 0.6 No 4 Seacoast Dr. / Imperial Beach Bl. AWS 8.3 8.7 A A 8.5 9.1 A A 0.2 0.4 No 5 3rd St. / Palm Av. AWS 12.1 11.7 B B 12.6 12.7 B B 0.5 1.0 No 6 3rd St. / Imperial Beach Bl. AWS 8.8 9.6 A A 9.1 10.0 A A 0.3 0.4 No 1 Per the 2010 Highway Capacity Manual, overall average intersection delay and level of service are shown for intersections with a traffic signal or allway stop control. For intersections with cross street stop control, the delay and level of service for the worst individual movement (or movements sharing a single lane) are shown. 2 CSS = Cross street Stop; AWS = All Way Stop 3 A project is determined to significantly impact either a roadway segment or intersection if the addition of the project generated trips results in a change in LOS from acceptable to unacceptable. However, if an intersection is operating at an unacceptable LOS E or F prior to the addition of the project generated traffic, then a significant impact is identified if the delay increases by 2.0 seconds or more at a deficient intersection. 46

Table 5 2 Roadway Segment Volume/Capacity Analysis for E+P Conditions Roadway LOS Existing Change Significant Acceptable E+P # Roadway Segment Limits Section Capacity 1 (2015) V/C LOS V/C LOS in V/C Impact? 2 LOS 1 South of Palm Av. 2U 8,000 5,027 0.63 B 5,699 0.71 C 0.08 No D 2 North of Elm Av. 2U 8,000 4,506 0.56 A 5,178 0.65 B 0.08 No D Seacoast Dr. 3 Between Elm Av. and Ebony Av. 2U 8,000 3,991 0.50 A 4,737 0.59 A 0.09 No D 4 Between Ebony Av. and Imperial Beach Bl. 2U 8,000 3,400 0.43 A 4,222 0.53 A 0.10 No D 5 Between Seacoast Dr. and 3rd St. 2D 15,000 4,560 0.30 A 5,232 0.35 A 0.04 No D Palm Av. 6 East of 3rd St. 2D 15,000 12,301 0.82 D 12,973 0.86 D 0.04 No D 7 Elm Av. East of Seacoast Dr. 2U 2,200 699 0.32 A 773 0.35 A 0.03 No D 8 Ebony Av. East of Seacoast Dr. 2U 2,200 253 0.12 A 327 0.15 A 0.03 No D 9 Between Seacoast Dr. and 3rd St. 2D 15,000 3,798 0.25 A 4,470 0.30 A 0.04 No D Imperial Beach Bl. 10 East of 3rd St. 2D 15,000 6,959 0.46 A 7,631 0.51 A 0.04 No D 1 These maximum roadway capacities have been extracted from the following source: SANTEC/ITE Guidelines for Traffic Impact Studies [TIS] in the San Diego Region (Table 2) for each road facility type. These roadway capacities are "rule of thumb" estimates for planning purposes. The LOS "E" service volumes are estimated maximum daily capacity for respective classifications. By using the LOS "E" capacity for each roadway facility type, volume to capacity (v/c) values between 0.00 0.60 will represent LOS "A", 0.61 0.70 will represent LOS "B", 0.71 0.80 will represent LOS "C", 0.81 0.90 will represent LOS "D", 0.91 1.00 will represent LOS "E", and v/c values greater than 1.00 will represent LOS "F" operations. Capacity is affected by such factors as intersections (spacing, configuration and control features), degree of access control, roadway grades, design geometrics (horizontal and vertical alignment standards), sight distance, vehicle mix (truck and bus traffic) and pedestrian and bicycle traffic. A project is determined to significantly impact either a roadway segment or intersection if the addition of the project generated trips results in a change in LOS from acceptable to unacceptable. However, if a roadway segment is operating at an unacceptable LOS E or F prior to the addition of the project generated traffic, then a significant impact is identified if the V/C increases by 0.02 or more on a deficient roadway segment. 2 47

Although the volume to capacity (V/C) ratio for the roadway segments of Palm Avenue west of 3 rd Street and east of 3 rd Street are anticipated to increase by more than 0.02 due to the addition of Project traffic, the peak hour intersection operations for the adjacent study area intersections indicate the adjacent intersections are anticipated to accommodate peak hour traffic flows without additional widening. As such, additional widening has not been recommended for these segments. 5.5 TRAFFIC SIGNAL WARRANTS ANALYSIS There are no study area intersections that are anticipated to meet peak hour volume based traffic signal warrants under E+P traffic conditions, consistent with Existing traffic conditions (see Appendix 5.2). 5.6 PROJECT IMPACTS AND MITIGATION MEASURES 5.6.1 RECOMMENDED IMPROVEMENTS TO ADDRESS DEFICIENCIES AT INTERSECTIONS All study area intersections are anticipated to continue to operate at acceptable LOS (i.e., LOS B or better) for E+P traffic conditions. As such, no intersection improvements have been recommended. 5.6.2 RECOMMENDED IMPROVEMENTS TO ADDRESS DEFICIENCIES ON ROADWAY SEGMENTS All study area roadway segments are anticipated to continue to operate at acceptable LOS (i.e., LOS D or better) for E+P traffic conditions. As such, no roadway segment improvements have been recommended. 09818-05 TIA Report REV2 48 48

6 OPENING YEAR CUMULATIVE (2017) TRAFFIC CONDITIONS This section discusses the methods used to develop Opening Year Cumulative (2017) traffic forecasts, and the resulting intersection operations, roadway segment, and traffic signal warrant analyses. 6.1 ROADWAY IMPROVEMENTS The lane configurations and traffic controls assumed to be in place for Opening Year Cumulative (2017) conditions are consistent with those shown previously on Exhibit 3-1, with the exception of the following: Project driveways and those facilities assumed to be constructed by the Project to provide site access are also assumed to be in place for Opening Year Cumulative conditions only (e.g., intersection and roadway improvements along the Project s frontage and driveways). Driveways and those facilities assumed to be constructed by cumulative developments to provide site access are also assumed to be in place for Opening Year Cumulative conditions only (e.g., intersection and roadway improvements along the cumulative development s frontages and driveways). 6.2 OPENING YEAR CUMULATIVE (2017) WITHOUT PROJECT TRAFFIC VOLUME FORECASTS To account for background traffic, other known cumulative development projects in the study area were included in addition to 4.04% of ambient growth for Opening Year Cumulative traffic conditions. The weekday ADT and weekday AM and PM peak hour volumes which can be expected for Opening Year Cumulative (2017) Without Project traffic conditions are shown on Exhibit 6-1. 6.3 OPENING YEAR CUMULATIVE (2017) WITH PROJECT TRAFFIC VOLUME FORECASTS To account for background traffic, other known cumulative development projects in the study area were included in addition to 4.04% of ambient growth for Opening Year Cumulative traffic conditions in conjunction with traffic associated with the proposed Project. The weekday ADT and weekday AM and PM peak hour volumes which can be expected for Opening Year Cumulative (2017) With Project traffic conditions are shown on Exhibit 6-2. 6.4 INTERSECTION OPERATIONS ANALYSIS LOS calculations were conducted for the study intersections to evaluate their operations under Opening Year Cumulative conditions with roadway and intersection geometrics consistent with Section 6.1 Roadway Improvements. As shown in Table 6-1, the study area intersections are anticipated to continue to operate at acceptable LOS during the peak hours under Opening Year Cumulative (2017) traffic conditions, consistent with Existing traffic conditions. A summary of the peak hour intersection LOS for Opening Year Cumulative (2017) Without Project conditions are shown on Exhibit 6-3 and on Exhibit 6-4 for Opening Year Cumulative (2017) With Project traffic conditions. 09818-05 TIA Report REV2 49 49

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Table 6 1 Intersection Analysis for Opening Year Cumulative (2017) Conditions 2017 Without Project 2017 With Project Change Traffic Delay 1 (secs.) LOS Delay 1 (secs.) LOS in Delay Significant # Intersection Control 2 AM PM AM PM AM PM AM PM AM PM Impact? 3 1 Seacoast Dr. / Palm Av. AWS 8.8 10.8 A B 9.1 11.8 A B 0.3 1.0 No 2 Seacoast Dr. / Elm Av. CSS 10.4 13.0 B B 10.7 13.7 B B 0.3 0.7 No 3 Seacoast Dr. / Ebony Av. CSS 10.3 11.3 B B 10.6 11.8 B B 0.3 0.5 No 4 Seacoast Dr. / Imperial Beach Bl. AWS 8.5 9.4 A A 8.8 9.9 A A 0.3 0.5 No 5 3rd St. / Palm Av. AWS 14.8 15.9 B C 15.7 17.9 C C 0.9 2.0 No 6 3rd St. / Imperial Beach Bl. AWS 9.2 10.3 A B 9.4 11.0 A B 0.2 0.7 No 1 Per the 2010 Highway Capacity Manual, overall average intersection delay and level of service are shown for intersections with a traffic signal or allway stop control. For intersections with cross street stop control, the delay and level of service for the worst individual movement (or movements 2 sharing a single lane) are shown. CSS = Cross street Stop; AWS = All Way Stop 3 A project is determined to significantly impact either a roadway segment or intersection if the addition of the project generated trips results in a change in LOS from acceptable to unacceptable. However, if an intersection is operating at an unacceptable LOS E or F prior to the addition of the project generated traffic, then a significant impact is identified if the delay increases by 2.0 seconds or more at a deficient intersection. 54

The intersection operations analysis worksheets for Opening Year Cumulative (2017) Without and With Project traffic conditions are included in Appendix 6.1 and Appendix 6.2 of this TIS, respectively. 6.5 ROADWAY SEGMENT CAPACITY ANALYSIS 6.5.1 ROADWAY SEGMENT CAPACITY ANALYSIS (ADT METHOD) As noted previously, the roadway segment capacities are approximate figures only, and are typically used at the General Plan level to assist in determining the roadway functional classification (number of through lanes) needed to meet future forecasted traffic demand. Table 6-2 provides a summary of the Opening Year Cumulative (2017) conditions roadway segment capacity analysis based on the roadway segment capacities/thresholds identified previously on Table 2-3. As shown on Table 6-2, the following study area roadway segments are anticipated to operate at an unacceptable LOS (based on daily roadway segment capacities ADT Method) under Opening Year Cumulative (2017) Without Project traffic conditions: ID Street Segment 1 Seacoast Drive South of Palm Avenue LOS E 6 Palm Avenue East of 3 rd Street LOS F There are no additional roadway segments anticipated to operate at unacceptable LOS with the addition of Project traffic for Opening Year Cumulative (2017) With Project traffic conditions, in addition to those previously identified for Opening Year Cumulative Without Project traffic conditions. 6.5.2 ROADWAY SEGMENT CAPACITY ANALYSIS (FLORIDA METHOD) The previously mentioned roadway segments that are anticipated to operate at an unacceptable LOS were reevaluated utilizing the roadway capacity analysis based on the Florida Method. As shown on Table 6-3, the following study area roadway segments are anticipated to operate at an acceptable LOS (based on daily roadway segment capacities Florida Method) under Opening Year Cumulative (2017) Without Project traffic conditions: ID Street Segment 1 Seacoast Drive South of Palm Avenue LOS C AM and PM peak hour 6 Palm Avenue East of 3 rd Street LOS C AM peak hour; LOS D PM peak hour As such, there are no roadway segments anticipated to operate at unacceptable LOS with the addition of Project traffic for Opening Year Cumulative (2017) With Project traffic conditions and roadway widening does not appear to be necessary. 09818-05 TIA Report REV2 55 55

6.6 TRAFFIC SIGNAL WARRANTS ANALYSIS There are no study area intersections that are anticipated to meet either peak hour or planning level (ADT) volume based traffic signal warrants for Opening Year Cumulative traffic conditions (see Appendix 6.3 and Appendix 6.4). 6.7 OPENING YEAR CUMULATIVE DEFICIENCIES AND RECOMMENDED IMPROVEMENTS 6.7.1 RECOMMENDED IMPROVEMENTS TO ADDRESS DEFICIENCIES AT INTERSECTIONS All study area intersections are anticipated to continue to operate at acceptable LOS (i.e., LOS C or better) for Opening Year Cumulative traffic conditions. As such, no intersection improvements have been recommended. 6.7.2 RECOMMENDED IMPROVEMENTS TO ADDRESS DEFICIENCIES ON ROADWAY SEGMENTS Although the ADT based roadway segment analysis indicates a deficiency (unacceptable LOS) at the aforementioned study area roadway segments, a review of the roadway segments using the Florida Method (peak hour volume based) (see Table 6 3) indicates acceptable peak hour operations without additional widening. As such, no roadway segment widening improvements have been recommended. 09818 05 TIA Report REV2.docx 56 56

Table 6 2 Roadway Segment Volume/Capacity Analysis (ADT Method) for Opening Year Cumulative (2017) Conditions Roadway LOS 2017 Without Project 2017 With Project Change Significant Acceptable # Roadway Segment Limits Section Capacity 1 Vol V/C LOS Vol V/C LOS in V/C Impact? 2 LOS 1 South of Palm Av. 2U 8,000 7,456 0.93 E 8,128 1.02 F 0.08 No 3 D 2 North of Elm Av. 2U 8,000 6,403 0.80 C 7,075 0.88 D 0.08 No D Seacoast Dr. 3 Between Elm Av. and Ebony Av. 2U 8,000 5,535 0.69 B 6,281 0.79 C 0.09 No D 4 Between Ebony Av. and Imperial Beach Bl. 2U 8,000 4,495 0.56 A 5,317 0.66 B 0.10 No D 5 Between Seacoast Dr. and 3rd St. 2D 15,000 7,366 0.49 A 8,038 0.54 A 0.04 No D Palm Av. 6 East of 3rd St. 2D 15,000 16,554 1.10 F 17,226 1.15 F 0.04 No 3 D 7 Elm Av. East of Seacoast Dr. 2U 2,200 1,059 0.48 A 1,133 0.52 A 0.03 No D 8 Ebony Av. East of Seacoast Dr. 2U 2,200 475 0.22 A 549 0.25 A 0.03 No D 9 Between Seacoast Dr. and 3rd St. 2D 15,000 4,628 0.31 A 5,300 0.35 A 0.04 No D Imperial Beach Bl. 10 East of 3rd St. 2D 15,000 7,878 0.53 A 8,550 0.57 A 0.04 No D 1 These maximum roadway capacities have been extracted from the following source: SANTEC/ITE Guidelines for Traffic Impact Studies [TIS] in the San Diego Region (Table 2) for each road facility type. These roadway capacities are "rule of thumb" estimates for planning purposes. The LOS "E" service volumes are estimated maximum daily capacity for respective classifications. By using the LOS "E" capacity for each roadway facility type, volume to capacity (v/c) values between 0.00 0.60 will represent LOS "A", 0.61 0.70 will represent LOS "B", 0.71 0.80 will represent LOS "C", 0.81 0.90 will represent LOS "D", 0.91 1.00 will represent LOS "E", and v/c values greater than 1.00 will represent LOS "F" operations. Capacity is affected by such factors as intersections (spacing, configuration and control features), degree of access control, roadway grades, design geometrics (horizontal and vertical alignment standards), sight distance, vehicle mix (truck and bus traffic) and pedestrian and bicycle traffic. A project is determined to significantly impact either a roadway segment or intersection if the addition of the project generated trips results in a change in LOS from acceptable to unacceptable. However, if a roadway segment is operating at an unacceptable LOS E or F prior to the addition of the project generated traffic, then a significant impact is identified if the V/C increases by 0.02 or more on a deficient roadway segment. 2 Although the roadway segment is anticipated to increase by a V/C of more than 0.02 due to the addition of Project traffic, the Florida method demonstrates acceptable LOS without additional widening (see Table 6 3). As such, additional widening has not been recommended. 3 57

Table 6 3 Roadway Segment Volume/Capacity Analysis (Florida Method) for Opening Year Cumulative (2017) Conditions Roadway LOS 2017 Without Project 2017 With Project Change Significant Acceptable # Roadway Segment Limits Section Capacity 1,2 Peak Hour Vol V/C LOS Peak Hour Vol V/C LOS in V/C Impact? 3 LOS AM Peak Hour 1 Seacoast Dr. South of Palm Av. FL 2U 1,280 178 0.14 C 190 0.15 C 0.01 No D 6 Palm Av. East of 3rd St. FL 2D 1,344 793 0.59 C 823 0.61 C 0.02 No D PM Peak Hour 1 Seacoast Dr. South of Palm Av. FL 2U 1,280 288 0.23 C 308 0.24 C 0.02 No D 6 Palm Av. East of 3rd St. FL 2D 1,344 1,004 0.75 D 1,058 0.79 D 0.04 No D 1 These maximum roadway capacities have been extracted from the following source: 2013 Quality/Level of Service Handbook from the State of Florida Department of Transportation for two way undivided lanes. These roadway capacities are "rule of thumb" estimates for planning purposes. The LOS "E" service volumes are estimated maximum daily capacity for respective classifications. By using the LOS "E" capacity for each roadway facility type, peak hour volumes between 0 580 will represent LOS "C", 581 1,200 will represent LOS "D", 1,201 1,280 will represent LOS "E", and peak hour volumes greater than 1,280 will represent LOS "F" operations. Capacity is affected by such factors as intersections (spacing, configuration and control features), degree of access control, roadway grades, design geometrics (horizontal and vertical alignment standards), sight distance, vehicle mix (truck and bus traffic) and pedestrian and bicycle traffic. LOS A and B do not exist for this classification of 2 For two way divided lanes with an exclusive left turn lane, an adjustment factor of +5% must be applied to the LOS capacity. Source: Table 8 of the 2013 Quality/Level of Service Handbook from the State of Florida Department of Transportation. 3 A project is determined to significantly impact either a roadway segment or intersection if the addition of the project generated trips results in a change in LOS from acceptable to unacceptable. However, if a roadway segment is operating at an unacceptable LOS E or F prior to the addition of the project generated traffic, then a significant impact is identified if the V/C increases by 0.02 or more on a deficient roadway segment. 58

7 HORIZON YEAR (2040) TRAFFIC CONDITIONS This section discusses the methods used to develop Horizon Year (2040) traffic forecasts, and the resulting intersection operations, roadway segment, and traffic signal warrant analyses. 7.1 ROADWAY IMPROVEMENTS The lane configurations and traffic controls assumed to be in place for Horizon Year (2040) conditions are consistent with those shown previously on Exhibit 3-1, with the exception of the following: Project driveways and those facilities assumed to be constructed by the Project to provide site access are also assumed to be in place for Horizon Year conditions only (e.g., intersection and roadway improvements along the Project s frontage and driveways). Driveways and those facilities assumed to be constructed by cumulative developments to provide site access are also assumed to be in place for Horizon Year conditions only (e.g., intersection and roadway improvements along the cumulative development s frontages and driveways). 7.2 HORIZON YEAR (2040) WITHOUT PROJECT TRAFFIC VOLUME FORECASTS To account for background traffic, other known cumulative development projects in the study area were included in addition to 18.17% of ambient growth for Horizon Year (2040) traffic conditions. The weekday ADT and weekday AM and PM peak hour volumes which can be expected for Horizon Year (2040) Without Project traffic conditions are shown on Exhibit 7-1. 7.3 HORIZON YEAR (2040) WITH PROJECT TRAFFIC VOLUME FORECASTS To account for background traffic, other known cumulative development projects in the study area were included in addition to 18.17% of ambient growth for Horizon Year (2040) traffic conditions in conjunction with traffic associated with the proposed Project. The weekday ADT and weekday AM and PM peak hour volumes which can be expected for Horizon Year (2040) With Project traffic conditions are shown on Exhibit 7-2. 7.4 INTERSECTION OPERATIONS ANALYSIS LOS calculations were conducted for the study intersections to evaluate their operations under Horizon Year (2040) conditions with roadway and intersection geometrics consistent with Section 7.1 Roadway Improvements. As shown in Table 7-1, the study area intersections are anticipated to continue to operate at acceptable LOS during the peak hours under Horizon Year (2040) traffic conditions, consistent with Existing traffic conditions. A summary of the peak hour intersection LOS for Horizon Year (2040) Without Project conditions are shown on Exhibit 7-3 and on Exhibit 7-4 for Horizon Year (2040) With Project traffic conditions. 09818-05 TIA Report REV2 61 59

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