Please use this identifier to cite or link to this item: https://hdl.handle.net/11681/10648
Title: Estimated flooding from hypothetical flow conditions on the Lower Fox River, Wisconsin
Authors: United States. Army. Corps of Engineers. Detroit District.
McCarley, Robert W., 1937-
Keywords: Branched Implicit River Model
BIRM
Dam failures
Mathematical models
Numerical models
Flooding
Flood forecasting
Dam safety
Lower Fox River
Wisconsin
Publisher: Hydraulics Laboratory (U.S.)
Engineer Research and Development Center (U.S.)
Series/Report no.: Miscellaneous paper (U.S. Army Engineer Waterways Experiment Station) ; HL-84-1.
Description: Miscellaneous Paper
Abstract: Basic hydraulic data, such as water-surface elevations, discharges, and peak arrival times, have been calculated for the Lower Fox River to aid in estimating hypothetical flows created by the Probable Maximum Flood (PMF) without dam failures (Case 1), the PMF with dam failure (Case 2), and dam failures with low inflow with pools at or near the spillway crest elevations (Case 3). This study was part of a national program to conduct similar studies of all Federal dams. The selected situations are strictly hypothetical for representing maximum flooding conditions, and the results are not in any way intended to adversely reflect upon the integrity of the 13 existing dams on the Lower Fox River. Study results are reported in the form of computer printouts, tabulated data selected from the printouts, and hydrograph plots for various points along the river. Inundation maps specified in the HEC Guidelines will be developed by the U.S. Army Engineer District, Detroit, to clearly depict the anticipated extent of flooding, peak stages, and flood arrival and peak times at key locations in the floodplain. A numerical model named Branched Implicit River Model (BIRM), which was developed by the U. S. Army Engineer Waterways Experiment Station for forecasting flows on the Lower Mississippi River, was employed for this study to simulate the selected hypothetical flow conditions. BIRM, developed from a parent model named FLOWSED, solves the complete one-dimensional equations for unsteady flow, which are derived from the conservation principle for mass and for the momentum of flows, through the use of a linear-implicit finite difference scheme. FLOWSED computes both sediment movement and flow conditions. BIRM includes only the flow computation features of FLOWSED.
Rights: Approved for public release; distribution is unlimited.
URI: http://hdl.handle.net/11681/10648
Appears in Collections:Miscellaneous Paper

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