Modeling the Hydrology and water quality using BASINS/HSPF for the upper Maurice River watershed, New Jersey.
Results of developing a watershed model for the Upper Maurice River watershed are presented. The model was calibrated against observed stream-flow using local coastal plain meteorology as input, for the ultimate purpose of estimating future development impacts on local hydrology, stream-flow and water quality. Due to insufficient data, the model has not been validated yet. Typically, development impacts expected to include are more frequent peak flows, flooding, increased channel-bed erosion, loss of wetlands, loss of forested land and more surface runoff, while water quality impacts expected to occur are an increase in nuisance vegetation in lakes and streams, and stream/lake-water quality degradation due to increased loads of pollutants. This paper reveals that a significant decrease in recharge of the Kirkwood-Cohansey unconfined aquifer system, lying below the watershed, will occur with further development, because development will alter the land-use toward more urbanization resulting in less water infiltration, hence less recharge of the aquifers below. Hydrologic Simulation Program, Fortran (HSPF), within the USEPA's BASINS-3 software system, was the modeling program used.
Shirinian-Orlando
Anne A
AA
Department of Environmental Sciences, Rutgers University, New Brunswick, New Jersey, USA. ashirin@juno.com
Uchrin
Christopher G
CG
D002138:Calibration; D019015:Geologic Sediments; D008962:Models, Theoretical; D009515:New Jersey; D009566:Nitrates / Q000032:analysis; D009573:Nitrites / Q000032:analysis; D009584:Nitrogen / Q000032:analysis; D010710:Phosphates / Q000032:analysis; D010758:Phosphorus / Q000032:analysis; D045483:Rivers; D012984:Software; D014871:Water Microbiology; D014872:Water Movements; D014873:Water Pollutants / Q000032:analysis*; D014881:Water Supply; D014887:Weather
D009566:Nitrates; D009573:Nitrites; D010710:Phosphates; D014873:Water Pollutants; D010758:Phosphorus; D009584:Nitrogen