A Power Law Model for River Flow Velocity in Iowa Basins

This study explores power law relationships to estimate water flow velocity as a function of discharge and drainage area across river networks. We test the model using empirical data from 214 United States (U.S.) Geological Survey gauging stations distributed over the state of Iowa in the U.S. The e...

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Veröffentlicht in:Journal of the American Water Resources Association 2018-10, Vol.54 (5), p.1055-1067
Hauptverfasser: Ghimire, Ganesh Raj, Krajewski, Witold F., Mantilla, Ricardo
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creator Ghimire, Ganesh Raj
Krajewski, Witold F.
Mantilla, Ricardo
description This study explores power law relationships to estimate water flow velocity as a function of discharge and drainage area across river networks. We test the model using empirical data from 214 United States (U.S.) Geological Survey gauging stations distributed over the state of Iowa in the U.S. The empirical data are the measurements of the mean cross‐sectional velocity and concurrent discharge. The data are used to estimate parameters for a state‐wide model and to test for spatial variability for 15 large river basins contained within the state. Spatial differences among the basins are small but some parameters significantly differ from the state‐wide model. Using individual station data, the authors also explore a simpler power law model that disregards dependence on the drainage area. Overall, the study shows that including drainage area improves the model. Our study provides parameter values that can be directly incorporated into a regional scale routing model, and provides a framework for developing flow velocity models for hydraulically similar rivers in the U.S. and the world. Research Impact Statement: River flow velocity can be estimated using power law relationships with discharge and drainage area providing a framework to develop models for hydraulically similar rivers in the U.S. and the world.
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source Wiley Online Library Journals Frontfile Complete
subjects Area
Data
Dependence
Discharge
Discharge measurement
Drainage
Drainage area
Flow velocity
Frameworks
Gaging stations
Geological surveys
Mathematical models
Model testing
Parameter estimation
Parameters
Power law
Regional development
River basins
River flow
river flow velocity
River networks
Rivers
Routing
scaling parameters
Spatial variations
Surveying
Velocity
Water flow
title A Power Law Model for River Flow Velocity in Iowa Basins
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