Comparison of Georgia Department of Transportation Design Procedure with Mechanistic-Empirical Pavement Design

被引:0
|
作者
Watson, Donald E. [1 ]
Moore, Jason R. [1 ]
Wu, Peter [2 ]
Jared, David [2 ]
机构
[1] Auburn Univ, Natl Ctr Asphalt Technol, Auburn, AL 36830 USA
[2] Georgia Dept Transportat, Forest Pk, GA 30297 USA
关键词
D O I
10.3141/2095-10
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
This research had several objectives: measure the dynamic modulus of commonly used hot-mix asphalt mix types, two aggregate base courses, and two soils that represent high and low values; compare the results of using measured moduli with Mechanistic-Empirical Pavement Design Guide (MEPDG) Level 3 default moduli for the subgrade and aggregate base material; and compare design results using the AASHTO 1972 Interim Guide for Pavement Design currently being used by the Georgia Department of Transportation (GDOT) with the MEPDG results. The research showed that the MEPDG Level 3 default values for resilient modulus of both soil and aggregate materials are significantly higher than the actual values determined from laboratory test results. Use of actual material properties and load spectra resulted in significantly greater structures being recommended than when Level 3 default values were used for the MEPDG design program. On the basis of these results, GDOT is cautioned against using the default values built into the MEPDG software and should conduct a thorough calibration study using Georgia materials before implementing the MEPDG design procedure.
引用
收藏
页码:93 / 100
页数:8
相关论文
共 50 条
  • [21] Concrete Pavement Design Analysis Using AASHTOWare Pavement Mechanistic-Empirical Design Software
    Wu, Xingdong
    Motaharitabari, Seyedarmin
    Hossain, Mustaque
    Kulesza, Stacey Elizabeth
    Velasquez, Nat
    TRANSPORTATION RESEARCH RECORD, 2024, 2678 (10) : 315 - 324
  • [22] Comparison of resilient modulus values for Florida flexible mechanistic-empirical pavement design
    Oh, Jeong Ho
    Fernando, E. G.
    Holzschuher, C.
    Horhota, D.
    INTERNATIONAL JOURNAL OF PAVEMENT ENGINEERING, 2012, 13 (05) : 472 - 484
  • [23] Reliability analysis of cracking and faulting prediction in the new mechanistic-empirical pavement design procedure
    Darter, Michael
    Khazanovich, Lev
    Yu, Tom
    Mallela, Jag
    SOIL MECHANICS 2005, 2005, (1936): : 150 - 160
  • [24] Development of Mechanistic-Empirical Design Procedure for Fully Permeable Pavement Under Heavy Traffic
    Li, Hui
    Jones, David
    Harvey, John
    TRANSPORTATION RESEARCH RECORD, 2012, (2305) : 83 - 94
  • [25] Mechanistic-Empirical Procedure for Flexible Airfield Pavement Design: The New French Technical Guidance
    Mounier, D.
    Broutin, M.
    Bost, R.
    AIRFIELD AND HIGHWAY PAVEMENTS 2015: INNOVATIVE AND COST-EFFECTIVE PAVEMENTS FOR A SUSTAINABLE FUTURE, 2015, : 720 - 729
  • [26] Introduction of mechanistic-empirical pavement design into pavement carbon footprint analysis
    Liu, Xiaoyu
    Cui, Qingbin
    Schwartz, Charles W.
    INTERNATIONAL JOURNAL OF PAVEMENT ENGINEERING, 2018, 19 (09) : 763 - 771
  • [27] Introduction of Mechanistic-Empirical Pavement Design into Pavement Carbon Footprint Analysis
    Liu, Xiaoyu
    Cui, Qingbin
    CONSTRUCTION RESEARCH CONGRESS 2016: OLD AND NEW CONSTRUCTION TECHNOLOGIES CONVERGE IN HISTORIC SAN JUAN, 2016, : 1171 - 1180
  • [28] Using the mechanistic-empirical pavement design guide for material selection
    Orobio, Armando
    Zaniewski, John P.
    REVISTA FACULTAD DE INGENIERIA-UNIVERSIDAD DE ANTIOQUIA, 2012, (64): : 138 - 149
  • [29] Growth of truck traffic volume for mechanistic-empirical pavement design
    Lu, Q.
    Zhang, Y.
    Harvey, J. T.
    INTERNATIONAL JOURNAL OF PAVEMENT ENGINEERING, 2009, 10 (03) : 161 - 172
  • [30] Database Support for the New Mechanistic-Empirical Pavement Design Guide
    Wang, Kelvin C. P.
    Li, Qiang
    Hall, Kevin D.
    Nguyen, Vu
    Gong, Weiguo
    Hou, Zhiqiong
    TRANSPORTATION RESEARCH RECORD, 2008, (2087) : 109 - 119