Questions concerning the effects of drainage, peat mining and timber harvesting on streamflow response in the northern Lake States of the U.S.A. led to the development of the Peatland Hydrologic Impact Model (PHIM). PHIM is a generalized, deterministic, continuous simulation model, that is physically-based to the extent possible. Three independent landtype submodels represent watershed conditions common in the region. The appropriate land-type submodel(s), either natural peatland (NWATBAL), mined peatland (MWATBAL), or mineral soil upland (UWATBAL) are configured by the model user to represent the watershed. The submodels were applied to test the model on the streamflow response from three different peatland watersheds. Stormflow events were simulated for a 3,758 ha natural peatland and a 155 ha mined peatland. Annual water yield simulations for a 9.72 ha upland-peatland watershed produced a mean ratio of predicted/observed streamflow of 1.01 ± 0.08 for six test years. The model is generalized so that it should be adaptable to similar physiographic regions with minor modifications.
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Research Article|
April 01 1987
The Peatland Hydrologic Impact Model: Development and Testing
D. Phillip Guertin;
D. Phillip Guertin
1
School of Renewable Natural Resources, University of Arizona, U.S.A.
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Paul K. Barten;
Paul K. Barten
2
Department of Forest Resources, University of Minnesota, U.S.A.
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Kenneth N. Brooks
Kenneth N. Brooks
2
Department of Forest Resources, University of Minnesota, U.S.A.
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Hydrology Research (1987) 18 (2): 79–100.
Article history
Received:
March 16 1987
Citation
D. Phillip Guertin, Paul K. Barten, Kenneth N. Brooks; The Peatland Hydrologic Impact Model: Development and Testing. Hydrology Research 1 April 1987; 18 (2): 79–100. doi: https://doi.org/10.2166/nh.1987.0007
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