Porous Pavement Hydrology

Porous Pavements

Volumn , Issue , 2005, Pages 119-170

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EID: 84868566466     PISSN: None     EISSN: None     Source Type: Book    
DOI: None     Document Type: Chapter

References (96)

1. Abbott, C.L., and L. Comino-Mateos (2003). In-Situ Hydraulic Performance of a Permeable Pavement Sustainable Urban Drainage System, Water and Environmental Management Journal 17, 187–190.
2. Adams, Michelle C. (2003). Porous Asphalt Pavement with Recharge Beds: 20 years & Still Working, Stormwater 4, 24–32.
3. American Association of State Highway and Transportation Officials (1985). Materials, Washington, D.C.: American Association of State Highway and Transportation Officials.
4. American Association of State Highway and Transportation Officials (1986). AASHTO Guide for Design of Pavement Structures, Vol. 2, Washington, D.C.: American Association of State Highway and Transportation Officials.
5. American Association of State Highway and Transportation Officials (1993). AASHTO Guide for Design of Pavement Structures 1993, Washington: American Association of State Highway and Transportation Officials.
6. Andersen, C.T., I.D.L. Foster, and C.J. Pratt (1999). The Role of Urban Surfaces (Permeable Pavements) in Regulating Drainage and Evaporation: Development of a Laboratory Simulation Experiment, Hydrological Processes 13, 597–609.
7. Atlas, Ronald M. (1981). Microbial Degradation of Petroleum Hydrocarbons: An Environmental Perspective, Microbiological Reviews 45, 180–209.
8. Balades, J.-D., M. Legret, and H. Madiec (1995). Permeable Pavements: Pollution Management Tools, Water Science and Technology 32, 49–56.
9. Bannerman, R. T., D. W. Owens, R. B. Dodds, and N. J. Hornewer (1993). Sources of Pollutants in Wisconsin Stormwater, Water Science and Technology. 28, 241–259.
10. Berbee, R., G. Rijs, R. De Brouwer, and L. Van Velzen (1999). Characterization and Treatment of Runoff from Highways in the Netherlands Paved with Pervious Asphalt, Water Environment Research 71, 183–190.
11. Booth, Derek B., and Jennifer Leavitt, (1999). Field Evaluation of Permeable Pavement Systems for Improved Stormwater Management, Journal of the American Planning Association Summer 1999, pp. 314–325.
12. Booth, Derek B., Jennifer Leavitt, and Kim Peterson (1997). The University of Washington Permeable Pavement Demonstration Project: Background and First-Year Field Results, Seattle: University of Washington Center for Urban Water Resources Management.
13. Borgwardt, Soenke (1997a). Leistungsfahigkeit und Einsatzmoglichkeit Versickerungsfahiger Pflastersysteme (Performance and Fields of Application for Permeable Paving Systems), Betonwerk + Fertigteil-Technik, 1997 No. 2.
14. Borgwardt, Soenke (1997b). Versickerungsfahige Pflastersysteme aus Beton: Voraussetzungen, Anforderungen, Einsatz (Infiltratable Concrete Block Pavement Systems: Prerequisites, Requirements, Applications), Bonn: Bundesverband Deutsche Betonund Fertigteilindustrie.
15. Borgwardt, Soenke (1999). Survey and Expert Opinion on the Distribution, Performance, and Possible Application of Porous and Permeable Paving Systems, West Yorkshire, England: Marshalls Mono Ltd.
16. Bouwer, H. (1966). Rapid Field Measurement of Air Entry Value and Hydraulic Conductivity of a Soil as Significant Parameters in Flow System Analysis, Water Resources Research 2, 729–738.
17. Brady, Nyle C. (1974). The Nature and Properties of Soils, 8th ed., New York: Macmillan.
18. Brattebo, Benjamin O., and Derek B. Booth (2003). Long-term Stormwater Quantity and Quality Performance of Permeable Pavement Systems, Water Research 37, 4369–4376.
19. Cahill, Thomas (1993). Porous Pavement with Underground Recharge Beds, West Chester, Pennsylvania: Cahill Associates (www.thcahill.com).
20. Cahill, Thomas (1994). A Second Look at Porous Pavement/Underground Recharge, Watershed Protection Techniques 1, 76–78.
21. Cao, Su Ling, Daryl Pocuska and Dan G. Zollinger (1998). Drainage Design and Performance Guidelines for UNI Eco-Stone Permeable Pavement, Palm Beach Gardens, Florida: UNI-Group U.S.A.
22. Chow, Ven Te, David R. Maidment and Larry W. Mays (1988). Applied Hydrology, New York: McGraw-Hill.
23. Colandini, Valérie, Michel Legret, Yves Brosseaud and Jean-Daniel Balades (1995). Metallic Pollution in Clogging Materials of Urban Porous Pavements, Water Science and Technology 32, 57–62.
24. Day, Gary E., David R. Smith, and John Bowers (1981). Runoff and Pollution Abatement Characteristics of Concrete Grid Pavements, Bulletin 135, Blacksburg: Virginia Polytechnic Institute and State University.
25. Debo, Thomas N. (1994). Computer Model for Infiltration System Design, Journal of Computing in Civil Engineering 1994, 241–248.
26. Debo, Thomas N. (1994). Stormwater Infiltration Structure Design, Washington: National Stone Association.
27. Debo, Thomas N., and Andrew J. Reese (2002). Municipal Storm Water Management, 2nd ed., Boca Raton: Lewis Publishers.
28. Diniz, Elvidio V., (1976). Quantifying the Effects of Porous Pavements on Urban Runoff, in Proceedings, National Symposium on Urban Hydrology, Hydraulics, and Sediment Control, pp. 63–70, Lexington: University of Kentucky.
29. Diniz, Elvidio V. (1980). Porous Pavement, Phase I, Design and Operational Criteria, EPA-600/2-80-135, Cincinnati: U.S. Environmental Protection Agency, Municipal Environmental Research Laboratory.
30. Diniz, Elvidio V., and William H. Espey, Jr. (1979). Maximum Utilization of Water Resources in a Planned Community: Application of the Storm Water Management Model, Vol. 1, Cincinnati: U.S. Environmental Protection Agency, Municipal Environmental Research Laboratory.
31. Erie, Len, 1987, Stormwater Retention Criterion for Urban Drainage Basin Management, in Computational Hydrology 87, Proceedings of the 1st International Conference, pp. 44–48, Theodore N. Hromadka II and Richard H. McCuen, Eds., Mission Viejo, California: Lighthouse Publications.
32. Ferguson, Bruce K. (1994). Stormwater Infiltration, Boca Raton: Lewis Publishers.
33. Ferguson, Bruce K. (1995a). Downstream Hydrographic Effects of Urban Stormwater Detention and Infiltration, in Proceedings of 1995 Georgia Water Resources Conference, pp.128–131, Kathryn J. Hatcher, Ed., Athens: University of Georgia Carl Vinson Institute of Government.
34. Ferguson, Bruce K. (1995b). Storm-Water Infiltration for Peak-Flow Control, Journal of Irrigation and Drainage Engineering 121, 463–466.
35. Ferguson, Bruce K. (1998). Introduction to Stormwater: Concept, Purpose, Design, New York: John Wiley and Sons.
36. Ferguson, Bruce K. (2002). Stormwater Management and Stormwater Restoration, in Handbook of Water-Sensitive Planning and Design, pp.11–28, Robert France, Ed., Boca Raton: Lewis Publishers.
37. Ferguson, Bruce K., and Tamas Deak (1994). Role of Urban Storm-Flow Volume in Local Drainage Problems, Journal of Water Resources Planning and Management 120, 53–530.
38. Ferguson, Bruce K., M. Morgan Ellington and P. Rexford Gonnsen (1991). Evaluation and Control of the Long-term Water Balance on an Urban Development Site, in Proceedings of 1991 Georgia Water Resources Conference, pp. 217–220, Kathryn J. Hatcher, Ed., Athens: University of Georgia Institute of Natural Resources.
39. Gburek, William J., and James B. Urban (1980). Storm Water Detention and Groundwater Recharge Using Porous Asphalt — Initial Results, in International Symposium on Urban Storm Runoff, pp.89–97, Lexington: University of Kentucky.
40. Goforth, Gary F., Elvidio V. Diniz, and J. Brent Rauhut (1983). Stormwater Hydrological Characteristics of Porous and Conventional Paving Systems, EPA-600/2-83-106, Cincinnati: U.S.E.P.A. Municipal Environmental Research Laboratory, National Technical Information Service No. PB-84-123728.
41. Hamilton, George W. (1990). Infiltration Rates on Experimental and Residential Lawns, M.S. thesis, State College, PA.: Pennsylvania State University.
42. Hogland, W., M. Larson, and R. Berndisson (1990). The Pollutant Build-Up in Pervious Road Construction, 5th International Conference on Urban Storm Drainage, pp. 845–852, Osaka.
43. Huber, Wayne C., and Robert E. Dickinson (1988). Storm Water Management Model, Version 4: User’s Manual, Athens, Georgia: U.S. Environmental Protection Agency Environmental Research Laboratory.
44. Jackson, Thomas J., and Robert M. Ragan (1974). Hydrology of Porous Pavement Parking Lots, Journal of the Hydraulics Division (American Society of Civil Engineers) 100, 1739–1752.
45. James, W. Robert, William James and Harald von Langsdorff (2001). Stormwater Management Model for Environmental Design of Permeable Pavement, in Models and Applications to Urban Water Systems, Monograph 9, pp. 423–444, William James, Ed., Guelph, Ontario: Computational Hydraulics International.
46. James, William, and Christopher Gerrits (2003). Maintenance of Infiltration in Modular Interlocking Concrete Pavers with External Drainage Cells, in Practical Modeling of Urban Water Systems, Monograph 11, pp. 417–435, William James, Ed., Guelph, Ontario: Computational Hydraulics International.
47. James, William, Wayne C. Huber, and W. Robert James (1998). Water Systems Models Hydrology: Student’s Guide to SWMM4 RUNOFF and Related Modules, Guelph, Ontario: CHI Publications.
48. Keating, Janis (2001). Deicing Salt: Still on the Table, Stormwater May/June 28–35.
49. Kipkie, Craig W., and William James (2000). Feasibility of a Permeable Pavement Option in SWMM for Long-Term Continuous Modeling, in Applied Modeling of Urban Water Systems, Monograph 8, pp. 303–322, William James, Ed., Guelph, Ontario: Computational Hydraulics International.
50. Kosmatka, Steven H., and William C. Paranese (1988). Design and Control of Concrete Mixtures, 13th ed., Skokie, Illinois: Portland Cement Association.
51. Ku, Henry F.H. and Dale L. Simmons (1986). Effect of Urban Stormwater Runoff on Ground Water Beneath Recharge Basins on Long Island, New York, Water-Resources Investigations Report 85-4088, Syosset, New York: U.S. Geological Survey.
52. Legret, M., and V. Colandini (1999). Effects of a Porous Pavement with Reservoir Structure on Runoff Water: Water Quality and Fate of Heavy Metals, Water Science and Technology 39, 111–117.
53. Legret, M., M. Nicollet, P. Miloda, V. Colandini, and G. Raimbault (1999). Simulation of Heavy Metal Pollution from Stormwater Infiltration through a Porous Pavement with Reservoir Structure, Water Science and Technology 39, 119–125.
54. Legret, M., V. Colandini, and C. Le Marc (1996). Effects of a Porous Pavement with Reservoir Structure on the Quality of Runoff Water and Soil, The Science of the Total Environment 190, 335–340.
55. Lull, Howard W., and Kenneth G. Reinhart (1972). Forests and Floods in the Eastern United States, Research Paper NE-226, Upper Darby, PA.: U.S. Forest Service Northeastern Forest Experiment Station.
56. Mikkelsen, P.S., M. Hafliger, M. Ochs, J.C. Tjell, P. Jacobsen and M. Boller (1996). Experimental Assessment of Soil and Groundwater Contamination from Two Old Infiltration Systems for Road Run-Off in Switzerland, Science of the Total Environment 189/190, 341–347.
57. Mikkelsen, P.S., M. Hafliger, M. Ochs, P. Jacobsen, J.C. Tiell and M. Boller (1997). Pollution of Soil and Groundwater from Infiltration of Highly Contaminated Stormwater — A Case Study, Water Science and Technology 36, 325–330.
58. Newman, A.P., C.J. Pratt, S.J. Coupe and N. Cresswell (2001). Oil Bio-Degradation in Permeable Pavements by Inoculated and Indigenous Microbial Communities, NOVATECH 2001, School of Science and the Environment, Coventry University, Coventry, UK.
59. Nightingale, Harry I. (1987). Water Quality Beneath Urban Runoff Management Basins and Accumulation of As, Ni, Cu, and Pb in Retention and Recharge Basins Soils from Urban Runoff, Water Resources Bulletin 23, 197–205; and 23, 663–672.
60. Overton, D.E., and M.E. Meadows (1976). Storm Water Modeling, New York: Academic Press.
61. Paine, John E. (1990). Stormwater Design Guide, Portland Cement Pervious Pavement, Orlando: Florida Concrete and Products Association.
62. Partsch, C.M., A.R. Jarrett, and T.L. Watschke (1993). Infiltration Characteristics of Residential Lawns, Transactions of the American Society of Agricultural Engineers 36, 1695–1701.
63. Paul, Thiel, Associates Limited (1980). Subsurface Disposal of Storm Water, in Modern Sewer Design, pp.175–193, Washington: American Iron and Steel Institute.
64. Pitt, Robert (1994). The Risk of Groundwater Contamination from Infiltration of Stormwater Runoff, Watershed Protection Techniques 1, 126–128
65. Pitt, Robert, and Janice Lantrip (2000). Infiltration through Disturbed Urban Soils, in Applied Modeling of Urban Water Systems, Monograph 8, pp. 1–22, William James, Ed., Guelph, Ontario: Computational Hydraulics International.
66. Pitt, Robert, Shen-En Chen, Shirley, Clark, Janice Lantrip, Choo Keong Ong, and John Voorhees, (2003). Infiltration through Compacted Urban Soils and Effects on Biofiltration Design, in Practical Modeling of Urban Water Systems, Monograph 11, pp. 217–252, William James, Ed., Guelph, Ontario: Computational Hydraulics International.
67. Pitt, Robert, Shirley Clark, Keith Parmer and Richard Field (1996). Groundwater Contamination from Stormwater Infiltration, Chelsea, Michigan: Ann Arbor Press.
68. Pratt, C.J., A.P. Newman, and P.C. Bond, (1999). Mineral Oil Bio-Degradation within a Permeable Pavement: Long Term Observations, Water Science and Technology 39, 103–109.
69. Pratt, C.J., J.D.G. Mantle, and P.A. Schofield (1989). Urban Stormwater Reduction and Quality Improvement through the Use of Permeable Pavements, Water Science and Technology 21, 769–778.
70. Pratt, C.J., J.D.G. Mantle, and P.A. Schofield (1995). UK Research into the Performance of Permeable Pavement Reservoir Structures in Controlling Stormwater Discharge Quantity and Quality, Water Science and Technology 32, 63–69.
71. Rawls, W.J., D.L. Brakensiek, and K.E. Saxton (1982). Estimation of Soil Water Properties, Transactions of the American Society of Agricultural Engineers, 25, 1316–1320 and 1328.
72. Rawls, W.J., D.L. Brakensiek, and N. Miller (1983). Green-Ampt Infiltration Parameters from Soils Data, Journal of Hydraulic Engineering 109, 62–70.
73. Rollings, Marion P., and Raymond S. Rollings, Jr. (1996). Geotechnical Materials in Construction, New York: McGraw-Hill.
74. Rollings, Raymond S., and Marian P. Rollings (1999). SF-Rima, A Permeable Paving Stone System, Mississauga, Ontario: SF Concrete Technology.
75. Sansalone, John J. (1999a). Adsorptive Infiltration of Metals in Urban Drainage: Media Characteristics, The Science of the Total Environment 235, 179–188.
76. Sansalone, John J. (1999b). In-Situ Performance of a Passive Treatment System for Metal Source Control, Water Science and Technology 39, 193–200.
77. Sansalone, John J., and S. G. Buchberger (1995). An Infiltration Device as a Best Management Practice for Immobilizing Heavy Metals in Urban Highway Runoff, Water Science and Technology 32, 119–125.
78. Shergold, F.A. (1953). The Percentage Voids in Compacted Gravel as a Measure of Its Angularity, Magazine of Road Research 5, 3–10.
79. Smith, David R. (2001). Permeable Interlocking Concrete Pavements: Selection, Design Construction, Maintenance, 2nd., Washington: Interlocking Concrete Pavements Institute.
80. Smith, Hillard L., and Luna B. Leopold (1942). Infiltration Studies in the Pecos River Watershed, New Mexico and Texas, Soil Science 53, 195–204.
81. St John, Matthias S., and Richard R. Horner (1997). Effect of Road Shoulder Treatments on Highway Runoff Quality and Quantity, WA-RD-4291, Olympia: Washington State Department of Transportation.
82. Steuer, J., W. Selbig, N. Hornewer and J. Prey (1997). Sources of Contamination in an Urban Basin in Marquette, Michigan and an Analysis of Concentrations, Loads, and Data Quality, Water Resources Investigations Report 97-4242, Washington: U.S. Geological Survey.
83. Stotz, G., and K. Krauth (1994). The Pollution of Effluents from Pervious Pavements of an Experimental Highway Section: First Results, The Science of the Total Environment 146/147, 465–470.
84. Tessier, A. (1992). Sorption of Trace Elements on Natural Particles in Oxic Environments, in Environmental Particles, Jacques Buffle and Herman P. van Leeuwen, Ed., Boca Raton: Lewis Publishers.
85. Thelen, Edmund, and L. Fielding Howe (1978). Porous Pavement, Philadelphia: Franklin Institute Press.
86. Thelen, Edmund, Wilford C. Grover, Arnold J. Holberg, and Thomas I. Haigh (1972). Investigation of Porous Pavements for Urban Runoff Control, 11034 DUY, Washington: U.S. Environmental Protection Agency.
87. U.S. Federal Aviation Agency (USFAA) (1965). Airport Drainage, Advisory Circular AC150/5320-5A, Washington: U.S. Federal Aviation Agency.
88. U.S. Soil Conservation Service (1986). Urban Hydrology for Small Watersheds, Technical Release 55, Washington: U.S. Soil Conservation Service.
89. Urban, James B., and William J. Gburek (1980). Storm Water Detention and Groundwater Recharge Using Porous Asphalt — Experimental Site, in International Symposium on Urban Storm Runoff, pp. 81–87, Lexington, Kentucky, July 28–31.
90. Van der Leeden, Frits, Fred L. Troise and David Keith Todd (1990). The Water Encyclopedia, 2nd ed., Chelsea, Michigan: Lewis Publishers.
91. Washington State Department of Ecology, Water Quality Program (2001). Stormwater Management Manual for Western Washington, Volume V— Runoff Treatment BMPs, Olympia: Washington State Department of Ecology.
92. Watanabe, Satoshi (1995). Study on Storm Water Control by Permeable Pavement and Infiltration Pipes, Water Science and Technology 32, 25–32.
93. Wegner, William, and Marc Yaggi (2001). Environmental Impacts of Road Salt and Alternatives in the New York City Watershed, Stormwater July/August 24–31.
94. Wei, Irvine W. (1986). Installation and Evaluation of Permeable Pavement at Walden Pond State Reservation, Report to the Commonwealth of Massachusetts Division of Water Pollution Control, Boston: Northeastern University Department of Civil Engineering.
95. Wingerter, Roger, and John E. Paine (1989). Field Performance Investigation, Portland Cement Pervious Pavement, Orlando: Florida Concrete and Products Association.
96. Wyant, David C. (1992). Final Report, Field Performance of a Porous Asphaltic Pavement VTRC 92-R10, Charlottesville: Virginia Transporation Research Council.