Report on the Prediction of Surface-Initiated Longitudinal Wheel Path Cracking in Asphalt Pavements
Source abstract
Abstract
ABSTRACT Almost all mechanistic flexible pavement design procedures implicitly assume that fatigue cracks originate at the bottom of the bound layers and propagate upwards towards the surface of the pavement. However, observations from cracked roads in many countries have shown that the cracking originated from the surface of the pavement rather than at the base, particularly for thick flexible constructions. Many researchers have been trying to confirm that surface-induced cracking can be explained by the presence of tensile and/or shear stresses (strains) at (or near to) the pavement surface. A standard analysis of a pavement structure loaded by a uniform vertical contact stress shows that small horizontal stresses and strains can be generated due to negative curvature effects although it should be noted that the maximum (principal) strain at the pavement surface (at approximately 45o to the surface) can be of a similar magnitude to the horizontal tensile strain at the base of the asphalt layers. In addition, the inclusion of the complex three-dimensional contact stress distribution generated between the tyre and the pavement surface has been shown to produce high local values of horizontal tensile stress and strain at the pavement surface which could drive surface-induced cracking. However, other factors such as ageing of the surface material and temperature-induced stiffness gradients are also likely to be important.
Source: openalex_inverted_index · Quality: baseline
Research context
OpenAlex topics: Asphalt Pavement Performance Evaluation · Infrastructure Maintenance and Monitoring · Transport Systems and Technology
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
References (60)
Show source-provided references
1. DE BEER M. · 1994
2. DE BEER M. · 1997
3. BENSALEM A. · 2000
4. BOULDIN M. G. · Asphalt Paving Technology · 2000 · 69 · 455
5. BROWN S. F. · 1987 · 2 · 118
6. 10.1080/0042311890896891610.1080/00423118908968916 ↗
7. CHOMPTON G. · 1972 · 214
8. 10.1243/PIME_PROC_1995_209_163_0210.1243/PIME_PROC_1995_209_163_02 ↗
9. DAUZATS M. · 1988
10. VAN DIJK W. · Asphalt Paving Technology · 1975 · 44 · 38
11. VAN DIJK W. · Asphalt Paving Technology · 1977 · 46 · 1
12. GERRITSEN A. H. · 1987 · 378
13. GERRITSEN A. H. · 1987 · 94
14. GROENENDIJK J. · 1998
15. EL HALIM A. O. · 2004 · 19
16. HOPMAN P. C. · 1992 · 73
17. HILLS J. F. · 1974
18. HILTUNEN D. R. · Asphalt Paving Technology · 1994 · 63 · 81
19. HIMENO K. J. · 1987 · 272
20. HUGO F. · 1982
21. HUGO F. · Asphalt Paving Technology · 1985 · 54
22. JACOBS M. M.J. · 1992
23. JACOBS M. M.J. · 1992
24. JACOBS M. · Asphalt Paving Technology · 1996 · 65 · 1
25. KANERVA H. · 1992
26. KOMORIYA K. · 2001
27. LEECH D. · 1997 · 272
28. LIPPMANN S. A. · 1974
29. LOTTMAN R. P. · 1982
30. LYTTON R. L. · 1982
31. MATSUNO S. · 1992
32. 10.1520/STP38809S10.1520/STP38809S ↗
33. MERRILL D. · 1998 · 25
34. MONISMITH C. L. · Asphalt Paving Technology · 1999 · 68
35. MYERS L. · Asphalt Paving Technology · 1998 · 67 · 401
36. 10.3141/1655-2310.3141/1655-23 ↗
37. MYERS L. · 2000
38. MYERS L. · 2001
39. NUNN M. E. · 1997
40. 10.1115/1.365690010.1115/1.3656900 ↗
41. 10.2346/1.213598110.2346/1.2135981 ↗
42. 10.1016/0013-7944(93)90102-X10.1016/0013-7944(93)90102-X ↗
43. READ J. M. · 1996
44. ROQUE R. · Asphalt Paving Technology · 1990 · 59
45. ROQUE R. · Asphalt Paving Technology · 1999 · 683 · 404
46. ROQUE R. · 2004
47. ROWE G. M. · 1996
48. ROWE G. M. · 1997
49. RUTH B. · 1981
50. SEWELL A. J. · 2000 · 1 · 819
51. SCHORSCH M. · 2004 · 3
52. SHAHIN M. Y. · 1977
53. SOON S.-C. · 2003
54. TAMAGNY P. · 2004 · 3
55. 10.1061/(ASCE)0733-947X(1987)113:1(56)10.1061/(ASCE)0733-947X(1987)113:1(56) ↗
56. THOM N. H. · 2003
57. 10.3141/1730-1310.3141/1730-13 ↗
58. 10.3141/1655-2110.3141/1655-21 ↗
59. WOODSIDE A. R. · 1999 · 601
60. ZHANG Z. · 2001 · 70 · 206