Home            Contact us            FAQs
    
      Journal Home      |      Aim & Scope     |     Author(s) Information      |      Editorial Board      |      MSP Download Statistics

     Research Journal of Applied Sciences, Engineering and Technology


Traffic Kinematic Wave Propagationby Bituminous Asphaltic Concrete Road Distress

1Ben-Edigbe, Johnnie and 2Ferguson Neil
1Department of Civil Engineering, University of KwaZulu-Natal, South Africa
2Departmentof Civil Engineering, University of Strathclyde, Scotland
Research Journal of Applied Sciences, Engineering and Technology  2016  2:163-168
http://dx.doi.org/10.19026/rjaset.12.2317  |  © The Author(s) 2016
Received: May ‎27, ‎2015  |  Accepted: July ‎14, ‎2015  |  Published: January 20, 2016

Abstract

Traveling on bituminous asphaltic concrete roads plagued with potholes and edge subsidence is common in Nigeria and a better understanding of traffic dynamics has both theoretical and practical implications. In this study, we present continuous kinematic wave models of traffic flows at roadway section with and without bituminous asphaltic concrete distress. In particular, traffic kinematics was not treated as shockwave, rather as traffic dynamics that can trigger rarefaction or shockwave. In the paper the hypothesis that bituminous asphaltic concrete with significant distress will trigger traffic kinematic that may accentuate rarefaction or shockwave was investigated. Maximum flowrate polynomial estimation method based on extrapolation of the flows from flow and density curve was used. The method assumes that density at maximum flowrate is not affected by bituminous asphaltic concrete distress, which implies that traffic dynamics are fully the result of travel speed changes. Average traffic shockwave of about -20km/h were caused by bituminous asphaltic concrete with severe distress. Discussion and further studies are presented in the conclusion section.

Keywords:

Capacity, kinematic wave, pavement distress, rarefaction, traffic shockwave,


References

  1. Ben-Edigbe, J. and N. Ferguson, 2005. Extent of capacity loss resulting from pavement distress. P. I. Civil Eng., 158: 27-32.
    CrossRef    
  2. Ben-Edigbe, J., 2010. Assessment of speed, flow and density functions under adverse pavement conditions. Int. J. Sustain. Dev. Plann., 5(3): 275-286.
    CrossRef    
  3. Department of Transport, (DTp), 1984. Advice Note TA 20/84.1997DTp/TRRL Report LR 774.
  4. Duret, A., J. Bouffier and C. Buisson, 2010. Onset of congestion from low-speed merging maneuvers within a free-flow traffic stream. Transport. Res. Rec. J. Transport. Res. Board, 2188: 96-107.
    CrossRef    
  5. Khisty, C.J. and B.K. Hall, 2008. Transportation Engineering: An Introduction. 3rd Edn., Prentice Hall, New Jersey, pp: 145.
  6. Lighthill, M.J. and G.B. Whitham, 1955. On kinematic waves I: Flood movement in long rivers, II: A theory of traffic flow on long crowded roads. P. R. Soc. London, A229: 281-345.
    CrossRef    
  7. Li, Q.R., Y.X. Pan, L. Chen and C.G. Cheng, 2011. Influence of the moving bottleneck on the traffic flow on expressway. Appl. Mech. Mater., 97-98: 480-484.
    CrossRef    
  8. Minderhoud, M., H. Botma and P.H. Bovy, 1997. Assessment of roadway capacity estimation methods. Transport. Res. Rec., 1572: 59-67.
    CrossRef    
  9. Newell, G.F., 1993. A simplified theory of kinematic waves in highway traffic, part I: General Theory. Transport. Res. B-Meth., 27(4): 281-287.
    CrossRef    
  10. Ngoduy, D., 2011. Multiclass first-order traffic model using stochastic fundamental diagrams. Transportmetrica, 7(2): 111-125.
    CrossRef    
  11. Seguin, E.L., K.W. Crowley and W.D. Zweig, 1998. Passenger car equivalents on urban freeways. Interim Report, Contract DTFH61-C00100, Institute for Research (IR), State College, Pennsylvania.
    PMCid:PMC110448    
  12. Suzuki, H. and K. Matsunaga, 2010. New approach to evaluating macroscopic safety of platooned vehicles based on shock wave theory. Proceeding of the SICE Annual Conference. Taipei, Taiwan, pp: 925-929.
    PMid:21042789    
  13. Wikibook, 2013. Retrieved from: http://en.wikibooks.org/wiki/Fundamentals_of_Transportation/Shockwaves. (Accessed on: December 12, 2013).
    Direct Link
  14. Xinkai, W. and X.L. Henry, 2011. A shockwave profile model for traffic flow on congested urban arterials. Transport. Res. B-Meth., 45(2): 1768-1786.

Competing interests

The authors have no competing interests.

Open Access Policy

This article is distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution, and reproduction in any medium, provided you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons license, and indicate if changes were made.

Copyright

The authors have no competing interests.

ISSN (Online):  2040-7467
ISSN (Print):   2040-7459
Submit Manuscript
   Information
   Sales & Services
Home   |  Contact us   |  About us   |  Privacy Policy
Copyright © 2024. MAXWELL Scientific Publication Corp., All rights reserved