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Research article
First published January 2000

Effectiveness Analysis of Subsurface Drainage Features Based on Design Adequacy

Abstract

To prevent the deleterious effects of undrained moisture in pavement structures, it has become common to incorporate subsurface drainage features such as permeable bases and edgedrains into pavement design. A theoretical design methodology has been developed to ensure that the level of subsurface drainage is adequate for the specific pavement structure. However, recent research has called into question the effectiveness of subsurface drainage for certain types of pavement structures. Correlating the presence of moisture-related pavement distress with drainage features has revealed that drainage features do not significantly reduce faulting of doweled jointed concrete pavements, and that edgedrains may negatively impact hot-mix asphalt pavements. However, the study in which this correlation was accomplished did not attempt to assess the adequacy of the provided drainage features using the theoretical design methodology. This research presents an alternative method of effectiveness assessment based on design adequacy. The theoretical drainage capacity of a design feature, such as a pavement base or edgedrain system, is computed using the design methodology and compared with the expected inflow to that feature. The adequacy of the design is expressed as the proportion of the computed capacity to the expected service requirement. The method is applied to cases in the Long-Term Pavement Performance database. Examples are provided in which adherence to the design methodology would have indicated that the drainage features were inadequate; however, the more simplistic observational approach would reflect poorly on the effectiveness of the provided drainage features.

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References

1. Yu H. T., Khazanovich L., Shreenath P. R., Darter M. I., and von Quintus H. Final Report, NCHRP Project 1-34. Guidelines for Subsurface Drainage Based on Performance. TRB, National Research Council, Washington, D.C., 1998.
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Article first published: January 2000
Issue published: January 2000

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© 2000 National Academy of Sciences.
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Authors

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Timothy Robert Wyatt
Georgia Institute of Technology, 325185 Georgia Tech Station, Atlanta, GA 30332
Emir Jose Macari
Department of Civil and Environmental Engineering, Louisiana State University, Baton Rouge, LA 70803

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This article was published in Transportation Research Record: Journal of the Transportation Research Board.

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Crossref: 2

  1. Impact of Unsaturated Flow on Pavement Edgedrain Performance
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  2. In Situ Measurement and Empirical Modeling of Base Infiltration in Hig...
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