Where Are We and Where Do We Need to Go? A Summary of the Interstate Condition Project

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Pavement Condition Reporting and Target Setting in the TAMP Where Are We and Where Do We Need to Go? A Summary of the Interstate Condition Project July 11, 2016 Jonathan Groeger, MBA Gonzalo R. Rada, Ph.D., P.E. Amec Foster Wheeler 2016.

2 Project Background

Background MAP-21 requires FHWA to adopt pavement performance measures for evaluating condition of IHS and NHS Highway Performance Monitoring System (HPMS) selected as data source HPMS pavement condition data elements include: IRI Cracking percent Faulting Rutting AC and JCP good if all metrics good, poor if two or more metrics poor CRCP good if both metrics good, poor if both metrics are poor Concerns about validity and availability of HPMS pavement data 3

Project Objectives 1. Collect statistically significant sample of data on IHS and produce report indicating IHS pavement condition nationally and in each State where data collected 2. Determine if HPMS is unbiased representation of IHS pavement condition 3. Recommend improvements to data collection and reporting necessary to make HPMS unbiased or improve precision Is two-way data collection necessary? Does data need to be collected in more than one lane in a direction? What is the optimum HPMS section length? Do all distress items require full extent reporting or is sampling adequate? Are protocols proposed by FHWA adequate for collecting and reporting distress or do they need improvement? 4

Data Collection Data collection ~8,624 miles routine ~1,500 miles QC data, opposing direction, and adjacent lane ~10,000 miles total Comparison with IHS (contiguous US) 46,460 vs. 8,624 miles (18.6%) 66 vs. 9 Interstates (13.6%) 48 vs. 39 States and D.C (81.3%) 5

Data Collection 6

Data Quality Plan Data collection Data collection contractor Quality Management Plan AMEC quality assurance reviews Data analyses AMEC Quality Plan Project Review Policy Communications 7

8 Data Analyses & Findings

QC Data Comparison Element Routine Data Avg QC Data Avg Average IRI 65 in/mile 64 in/mile Yes Average Rut Depth 0.13 in 0.14 in Yes AC HPMS Crack 1.8% 1.6% Yes AC % WP 4.0% 3.6% Yes PCC % Crack 2.3% 2.1% No LCMS Faulting 0.03 in 0.03 in Yes Differences observed in averages are of little engineering significance Statistically Significant? 9

IS Condition All Data 100% 90% 80% 70% 62% 60% 50% 40% 30% 87% 79% 81% 79% 20% 10% 0% 37% 6% 19% 17% 18% 1% 8% 2% 2% 3% All Cracking Faulting IRI Rutting P F G 10

Comparison with 2014 HPMS Data Set % Good % Fair % Poor HPMS (All IS) 47 51 2 HPMS (Route) 45 53 2 IS Data 62 37 1 Excluding Bridges 63 36 1 Excluding Bridges and Segments < 0.1 mile 62 37 1 100% 80% 60% 40% 20% 0% 47% 51% HPMS 62% 37% IS Condition HPMS data variability is higher than project data 11

Comparison by Condition Metric HPMS (route data only) Condition Metric IS Condition Data Avg HPMS Avg Statistically Significant Cracking 3.0% 3.6% Yes No Rutting 0.15 in 0.12 in Yes No Faulting 0.04 in 0.05 Yes No IRI 72 in/mile 77 in/mile Yes No Engineering Significant 12

Opposite Direction & Adjacent Lane Condition Metric Routine Adjacent Lane Opposing Direction IRI 68 in/mile 66 in/mile 66 in/mile Yes Differences have little to no engineering significance Approximately 3% of the opposing lane data had a different surface type than the primary direction Statistically Significant AC HPMS Cracking 2.3% 1.6% 2.4% Yes, No AC % WP 4.9% 3.5% 5.2% Yes, No PCC Crack 11.7% 7.0% 13.6% Yes, No Rutting 0.14 in 0.11 in 0.14 in Yes Faulting 0.07 in 0.05 in 0.07 in Yes 13

Section Length - IRI IRI, in/mile 300 250 200 150 100 50 0 310 320 330 340 350 360 Milepost Reviewed section lengths from 0.01 mile to 1 mile With smaller section lengths, more detail is discernible but analysis and transmittal difficulty increases 14

Sampling Requirements Started by looking at national level data Sample size associated with national data can mask some of variability Better to review in terms of individual States Requirements for sample size increase with smaller sample sizes associated with cracking data IRI Error Level Confidence Level 1% 5% 10% 90% 1.65 77% 17% 5% 95% 1.96 82% 21% 7% 99% 2.58 88% 31% 12% Rut Error Level Confidence Level 1% 5% 10% 90% 1.65 80% 19% 6% 95% 1.96 85% 24% 8% 99% 2.58 91% 34% 13% Fault Error Level Confidence Level 1% 5% 10% 90% 1.65 96% 59% 33% 95% 1.96 97% 66% 39% 99% 2.58 99% 75% 50% AC Crack Error Level Confidence Level 1% 5% 10% 90% 1.65 99% 79% 53% 95% 1.96 99% 83% 60% 99% 2.58 100% 89% 71% PCC Crack Error Level Confidence Level 1% 5% 10% 90% 1.65 100% 91% 76% 95% 1.96 100% 93% 80% 99% 2.58 100% 96% 87% 15

Point-by-Point Comparison Within State Comparison Missing data range from 0% to 100% Similar performance from both data sets ranges from 1% to 83% (higher percentage equals more similar performance) Found significant differences in some States 16

17 Conclusions

Summary and Conclusions Objective 1 Collect statistically significant sample of data on IHS and produce report indicating IHS pavement condition nationally and in each State where data collected Data collected on over 9,844 miles of Interstate in 39 states Objective 2 - Determine if HPMS is unbiased representation of IHS pavement condition HPMS data 51% good, 2% poor performance observed IS Condition data 62% good, 1% poor performance observed Found significant differences in some States 18

Summary and Conclusions Objective 3 - Recommend improvements to data collection and reporting necessary to make HPMS unbiased or improve precision Collection in opposing direction not necessary Collection in adjacent lane not necessary (although adjacent lane slightly better condition) Summarizing to 0.1 mile best option Longer segment lengths yields more fair condition Shorter segments lengths more variability 100% sample required Work needs to be done on faulting and rutting requirements 19

Summary and Conclusions Objective 3 - Recommend improvements to data collection and reporting necessary to make HPMS unbiased or improve precision Include bridges within data collection does not significantly impact performance indicator and provides additional valuable info on condition of bridge decks Standardize equipment requirement LCMS provides a better estimate of rutting (as opposed to 5 point) LCMS provides a better estimate of faulting (as opposed to RPS) 20

Thank you 21