Appendix LOU Louisville, Kentucky 2003 Annual Report on Freeway Mobility and Reliability

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(http://mobility.tamu.edu/mmp) Office of Operations, Federal Highway Administration Appendix LOU Louisville, Kentucky 2003 Annual Report on Freeway Mobility and Reliability This report is a supplement to: Monitoring Urban Freeways in 2003: Current Conditions and Trends from Archived Operations Data. Texas Transportation Institute and Cambridge Systematics, Inc., Report No. FHWA-HOP-05-018, December 2004, available at http://mobility.tamu.edu/mmp. Exhibit LOU-1: Current Measures and Trends Measures Current Year Last Year Two Years Ago 2003 2002 Change 2001 Change Performance Measures Travel Time Index 1.08 1.07 +1% 1.15-6% Planning Time Index 1.21 1.23-1% 1.46-17% Buffer Index 11% 12% -1% 19% -8% % Congested Travel 63% 44% +19% 48% +15% Total Delay (veh-hours) per 1000 VMT 1.89 1.30 +46% 2.36-20% Explanatory Measures Peak Period VMT (000) 1,600 370 +332% 420 +281% Avg. Annual DVMT (000) 5,660 1,710 +231% 1,470 +285% Data Quality Measures % complete 76% 73% +3% 86% -10% % valid 93% 85% +8% 83% +10% % of VMT covered 53% 16% +37% 15% +38% % of freeway miles 19% 9% +10% 9% +10% * See pages 7 and 8 for maps of freeway coverage, measure definitions, and further documentation. Exhibit LOU-2: 2000 to 2003 Annual Trends 1.50 1.45 1.40 1.35 1.30 1.25 1.15 1.10 1.05 1.15 1.46 1.23 1.21 2000: No data gathered 1.07 1.08 12 miles 12 miles 2000 26 miles 2001 2002 2003 Travel Time Index Planning Time Index Exhibit LOU-3: Daily and Monthly Trends 2.60 2.40 2.20 2.00 1.80 1.60 1.40 2001 12 miles 2002 12 miles 2003 26 miles Jan Apr Jul Oct Jan Apr Jul Oct Jan Apr Jul Oct Day of Year (weekdays, non-holidays only) Travel Time Planning Time Monthly Travel Time Monthly Planning Time The 2003 travel time index and buffer index remained stable compared to 2002 levels, but show some improvement over 2001 levels. The 2003 vehicle travel (DVMT) was up significantly from both 2002 and 2001 levels. This was most likely due to increase in sensor coverage Data quality has remained relatively stable over the past 2 years. Data Source(s): TRIMARC (http://www.trimarc.org) Includes 26 of 137 (19%) total freeway miles in Louisville; collected using loop detectors, video imaging and microwave radar detectors; see page 7 for additional information on the data source Data Analysis: Cambridge Systematics, Inc., analysis completed October 2004 Louisville, Kentucky LOU-1 2003 Annual Report

Time of Day Patterns and Trends The charts on this page illustrate average weekday (no holidays included) traffic patterns and trends that were measured on the freeway sections instrumented with operations-based traffic sensors. 1.60 1.50 1.40 1.30 1.10 12 AM 2 AM 4 AM 6 AM 8 AM 10 AM 12 PM 2 PM 4 PM 6 PM 8 PM 10 PM 12 AM Time of Day (weekdays, non-holidays only) Travel Time Planning Time This chart shows areawide congestion and reliability patterns. The difference between the solid line (travel time index) and the dashed line (planning time index) is the additional buffer or time cushion that travelers must add to average trip times to ensure 95% on-time arrival. The evening congestion level is comparable to the morning congestion level. There appear to be slow speeds during the early morning hours. Exhibit LOU-4: Mobility and Reliability by Time of Average Weekday Percentage 100% 90% 80% 70% 60% 50% 40% 30% 20% 10% This chart illustrates the difference in using two different speed thresholds (50 and 60 mph) to compute the percent of congested days as well as the percent of congested travel. The chart indicates slow speeds (mostly between 50 and 60 mph) in the early morning hours (also see Exhibit 4). 0% 12 AM 2 AM 4 AM 6 AM 8 AM 10 AM 12 PM 2 PM 4 PM 6 PM 8 PM 10 PM 12 AM Time of Day (weekdays, non-holidays only) Days below 50 mph Days below 60 mph VMT below 50 mph VMT below 60 mph Exhibit LOU-5: Frequency and Percentage of Congested Travel by Time of Average Weekday Louisville, Kentucky LOU-2 2003 Annual Report

Time Period of the Day Patterns and Trends The charts on this page illustrate average weekday (no holidays included) traffic patterns and trends that were measured on the freeway sections instrumented with operations-based traffic sensors. The time periods are defined uniformly for all cities to facilitate trend analysis over time and between cities. The time periods are defined as follows: Early AM: 12 to 6 am AM Peak: 6 to 9 am Mid-day: 9 am to 4 pm PM Peak: 4 to 7 pm Late PM: 7 pm to 12 am PM Peak (4p-7p) 28% Late PM (7p-12a) 11% Early AM (12a-6a) 10% Mid-day (9a-4p) 30% AM Peak (6a-9a) 21% This chart shows the percent of delay that occurred during different time periods of an average weekday. Note that the AM and PM peak periods are the same duration, but that the other time periods have different lengths. The delay in the afternoon peak period is greater than the morning peak period. Delay during the mid-day period is greater than delay during the morning peak period. Exhibit LOU-6: Percent of Delay by Time Period 1.35 1.30 1.25 1.15 1.10 1.05 Early AM AM Peak Mid-day PM Peak Late PM 800,000 700,000 600,000 500,000 400,000 300,000 200,000 100,000 0 Delay (vehicle-hours) This chart shows congestion and reliability (shown as bars) as well as delay (shown as a line) during different time periods of an average weekday. The trends in this chart follow closely those shown in Exhibit 6. The travel time index for the mid-day period is low, but the delay is relatively high because of the length of this time period (7 hours). Travel Time Planning Time Vehicle Delay Exhibit LOU-7: Mobility, Reliability, and Delay by Time Period Louisville, Kentucky LOU-3 2003 Annual Report

Day of Week Patterns and Trends The charts on this page illustrate average traffic patterns and trends that were measured on the freeway sections instrumented with operations-based traffic sensors. Because of different peak period times and lengths on weekdays and weekends, the statistics presented on this page are 24-hour daily totals or averages. Friday 17% Thursday 19% Saturday 7% Sunday 6% Monday 14% Tuesday 18% This chart shows the percent of total daily delay that occurred during each day of the week. The delay from Tuesday through Friday is comparable, accounting for 17-19% each day. Each of the weekend days has about 30-40% of the normal weekday delay. Wednesday 19% Exhibit LOU-8: Percent of Daily Vehicle Delay by Day of Week 1.25 1.15 1.10 1.05 600,000 500,000 400,000 300,000 200,000 100,000 Delay (vehicle-hours) This chart shows average daily congestion and reliability (shown as bars) as well as total daily delay (shown as a line) during each day of the week. The trends in this chart follow closely those shown in Exhibit 8. Wednesday has the most delay but Tuesday is the least reliable day (highest planning time index). Sunday Monday Tuesday Wednesday Thursday Friday Saturday Travel Time Planning Time Vehicle Delay 0 Exhibit LOU-9: Mobility, Reliability, and Delay by Day of Week Louisville, Kentucky LOU-4 2003 Annual Report

Other Traffic Data Patterns and Trends The chart on this page illustrates average traffic patterns and trends that were measured on the freeway sections instrumented with operations-based traffic sensors. Percentage 60% 50% 40% 30% 20% 10% 0% 0 to 10 10 to 20 20 to 30 30 to 40 40 to 50 50 to 60 60+ Speed Range (mph) % of VMT % of Time % of Delay This chart shows the percent of VMT, time, and delay in different speed ranges. This chart is useful to determine how much VMT and delay occurred at different congestion levels. About 50% of the VMT and 45% of the delay is in the 50 to 60 mph range. About 4% of the VMT but only 1% of the delay is in the 0 to 10 mph range. Exhibit LOU-10: Percent of VMT, Delay and Time Periods in Different Speed Ranges Louisville, Kentucky LOU-5 2003 Annual Report

Mobility and Reliability Statistics for Specific Freeway Sections The table in this section illustrates average weekday (no holidays included) statistics from the freeway sections instrumented with operations-based traffic sensors. Where possible, the freeway sections have been defined to begin and end at major interchanges, streets, or other locations where traffic conditions are likely to change. The freeway sections are typically between 5 and 10 miles in length. Exhibit LOU-11. Mobility and Reliability by Section and Time Period Travel Time Index Buffer Index Freeway Section Morning Evening Average Morning Evening Average (sorted from most congested to least congested sections) Length (mi) Peak (6a-9a) Midday (9a-4p) Peak (4p-7p) peak period Peak (6a-9a) Midday (9a-4p) Peak (4p-7p) peak period I-64 WB: US-ALT-60 to I-65 Jct 16.30 1.09 1.04 1.11 1.10 25% 6% 32% 29% I-65 SB: I-264 to I-64/I-71 5.40 1.03 1.05 1.12 1.08 6% 8% 29% 19% I-71 SB: Indian Hills to I-64 3.80 1.12 1.02 1.02 1.08 46% 3% 5% 29% I-64 EB: I-65 Jct to I-265 16.30 1.06 1.06 1.09 1.08 7% 5% 16% 12% I-65 NB:I-64/I-171 to I-264 5.40 1.09 1.05 1.06 1.07 24% 10% 17% 21% I-71 NB: I-64 to Indian Hills 3.80 2% 0% 0% 1% Average for all Sections 1.08 1.05 1.09 1.08 19% 7% 22% 21% This table shows average weekday congestion (travel time index) and reliability (buffer index) for specific routes for different time periods of the day. Louisville, Kentucky LOU-6 2003 Annual Report

Source and Coverage of Data This report was produced using data collected and archived by TRIMARC (http://www.trimarc.org). A map of the freeway routes on which traffic data was collected is shown below. Exhibit LOU-12: Freeway Routes with Traffic Sensors in Louisville (Source of graphic: TRIMARC, http://www.trimarc.org) Exhibit LOU-13: Instrumented Freeway Coverage in Louisville Coverage Measures Year Instrumented Total Freeway Freeway Routes System 1 Percent Coverage Lane-miles 2000 n.a. 670 n.a. 2001 77 670 11% 2002 84 670 13% 2003 147 670 22% Centerline-miles 2000 n.a. 137 n.a. 2001 12 137 9% 2002 12 137 9% 2003 26 137 19% Average annual 2000 n.a. 10,040 n.a. daily vehicle-miles 2001 1,470 10,000 15% of travel (DVMT) 2002 1,710 10,440 16% (1000) 2003 5,660 10,640 53% 1 Source is FHWA s Highway Performance Monitoring System and the Texas Transportation Institute s Urban Mobility Study (http://mobility/tamu.edu/ums). Louisville, Kentucky LOU-7 2003 Annual Report

Documentation and Definitions Performance Measures Travel Time Index: ratio of the average peak period travel time to an off-peak travel time. For example, a value of means that average peak travel times are 20% longer than off-peak travel times. In this report, the morning peak period is from 6 to 9 a.m. and the evening peak period is from 4 to 7 p.m. The off-peak travel time is calculated by assuming a free-flow speed of 60 mph. Planning Time Index: statistically defined as the 95th percentile Travel Time Index, this measure also represents the extra time most travelers include when planning peak period trips. For example, a value of 1.60 means that travelers plan for an additional 60% travel time above the off-peak travel times to ensure 95% on-time arrival. Buffer Index: the extra time (or buffer) needed to ensure on-time arrival for most trips. For example, a value of 40% means that a traveler should budget an additional 8 minute buffer for a 20-minute average peak trip time to ensure 95% on-time arrival. In this report, the buffer index is a VMT-weighted average of the buffer index for each route for the morning and evening peak period. The buffer index is calculated for each route and time period as follows: buffer index = (95 th percentile travel time average travel time) / average travel time. % Congested Travel: the congested peak period vehicle-miles of travel (VMT) divided by total VMT in the peak period. This is a relative measure of the amount of peak period travel affected by congestion. Total Delay per 1000 VMT: the total vehicle delay (in vehicle-hours) divided by the amount of VMT. This is a relative measure of the total delay and will not be as affected by changes in the level of sensor instrumentation for a particular city. Vehicle Delay: the delay (in vehicle-hours) experienced by vehicles traveling less than free-flow speeds (assumed to be 60 mph in this report). Explanatory Measures Peak Period VMT: the average amount of VMT within the defined peak periods (weekdays from 6 to 9 a.m. and 4 to 7 p.m.) for the year. Peak period VMT is reported by 1000s. Average Annual DVMT (000): the average annual amount of daily VMT (DVMT) for all days and times for the year. Average annual DVMT is reported by 1000s. Data Quality Measures % complete: the number of valid reported data values divided by the number of total expected data values (given the number of active sensors and time periods). In this report, % complete is reported as the lowest value of either traffic volume or speed data. % valid: the number of reported data values that passed defined acceptance criteria divided by the total number of reported data values. In this report, % valid is reported as the lowest value of either traffic volume or speed data. % of DVMT covered: the amount of average annual DVMT reported by sensors divided by the areawide average annual DVMT as estimated in FHWA s Highway Performance Monitoring System and TTI s Urban Mobility Study. This measure characterizes the relative amount of areawide travel that has the performance indicated in this report. % coverage of freeway mileage: the amount of freeway lane-miles containing sensors divided by the areawide freeway lane-miles as estimated in FHWA s Highway Performance Monitoring System and TTI s Urban Mobility Study. This measure characterizes the relative amount of areawide freeways that has the performance indicated in this report. Louisville, Kentucky LOU-8 2003 Annual Report