DocumentCode :
2817762
Title :
A Simplified Model for Assessing the Impact of Breachway Modifications on Coastal Pond Circulation and Flushing Dynamics
Author :
Isaji, T. ; Spaulding, M.L.
Author_Institution :
Dept. of Ocean Eng., Univ. of Rhode Island, Kingston, RI, USA
fYear :
1981
fDate :
16-18 Sept. 1981
Firstpage :
824
Lastpage :
828
Abstract :
A simplified hydrodynamics and salt balance model system has been developed for a tidal inlet-costal pond system to predict the consequences of inlet modifications on the inlet flow rate, pond tidal range, and the pond salinity. The hydrodynamics portion of the model solves the momentum and continuity equations for the inlet where the pond behavior is incorporated in the inlet continuity relationship. The salt balance is determined using a tidal prism approach where complete mixing and steady state conditions are assumed. For a single inlet bay system and as sinning no inertial acceleration term or fresh-water inflow, an approximate solution of the governing equations is presented. Extension of the model system to a multiple inlet-bay system, following the computational algorithm developed by Seelig et al, is presented and applied to the Charlestown Pond complex located on the southern Rhode Island coast.
Keywords :
hydrodynamics; oceanographic regions; oceanographic techniques; tides; Charlestown Pond complex; coastal pond circulation dynamics; computational algorithm; continuity equation; flushing dynamics; fresh-water inflow rate; hydrodynamics model; inlet bay system; inlet flow rate; momentum equation; pond salinity analysis; salt balance model; southern Rhode Island coast; steady state condition; tidal inlet-costal pond system; tidal prism approach; Acceleration; Aquaculture; Equations; Geometry; Hydrodynamics; Oceans; Predictive models; Sea measurements; Solid modeling; Steady-state;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
OCEANS 81
Conference_Location :
Boston, MA
Type :
conf
DOI :
10.1109/OCEANS.1981.1151550
Filename :
1151550
Link To Document :
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