This site requires Cookies enabled in your browser for login.
Updating ...
WaterNet Home
WaterNet
for
pour le
Canada
Menu
WaterNet
Home
GWFO
Home
Catalogue
Master Index
Data
Centre
Collections
X
Defaults
Select All
Websites
X
Global Water Futures Observatories (GWFO) Global Water Futures (GWF) Global Institute for Water Security (GIWS) International Network of Alpine Research Catchment Hydrology
Legacy Research Programs
X
Changing Cold Regions Network (CCRN) Drought Research Initiative (DRI) International Network of Alpine Research Catchment Hydrology (Legacy Site) Improving Processes & Parameterization for Prediction in Cold Regions Hydrology (IP3) The Mackenzie Global Energy and Water Cycle Experiment (GEWEX) Study (MAGS)
Legacy sites
Map
Utilities
X
Account Settings Metadata Editor Record List Alias List Editor
Data Centre
Data Type Editor
. . .
X
Clear
Select All
Advanced Search
Go to Top⇡
Related items loading ...
Fetching Chart ...
Publication Additional Information Download
Publication Type
Journal Article
Authorship
Mohammed, A. A., Cey, E. E., Hayashi, M., Callaghan, M. V., Park, Y. J., Miller, K. L., & Frey, S. K.
Title
Dual-permeability modeling of preferential flow and snowmelt partitioning in frozen soils
Year
2021
Publication Outlet
Vadose Zone Journal, 20(2), e20101
DOI
https://doi.org/10.1002/vzj2.20101
Citation
Mohammed, A. A., Cey, E. E., Hayashi, M., Callaghan, M. V., Park, Y. J., Miller, K. L., & Frey, S. K. (2021). Dual-permeability modeling of preferential flow and snowmelt partitioning in frozen soils. Vadose Zone Journal, 20(2), e20101. https://doi.org/10.1002/vzj2.20101
Abstract
The infiltrability of frozen soils modulates the partitioning of snowmelt between infiltration and runoff in cold regions. Preferential flow in macropores may enhance infiltration, but flow dynamics in frozen soil are complicated by soil heat transfer processes. We developed a dual-permeability model that considers the interacting effects of freeze–thaw and preferential flow on infiltration and runoff generation in structured soils. This formulation was incorporated into the fully integrated groundwater–surface water model HydroGeoSphere, to represent water–ice phase change in macropores such that porewater freezing is governed by macropore–matrix heat exchange. Model performance was evaluated against laboratory experiments and synthetic test cases designed to examine the effects of preferential flow on snowmelt partitioning between infiltration, runoff, and drainage. Simulations were able to reproduce experimental observations of rapid infiltration and drainage behavior due to macropores very well, and approximated soil thaw to an acceptable degree. Simulation of measured data highlighted the importance of macropore hydraulic conductivity, as well as macropore–matrix heat and water transfer, on controlling preferential flow dynamics. Test cases replicated a range of snowmelt partitioning behavior commonly observed in frozen soils, including subsurface conditions that produce rapid infiltration and deeper drainage, the contrast between limited vs. unlimited infiltration responses to snowmelt, and the temporal evolution of runoff generation. This study demonstrates the important influence that water freezing along preferential flowpaths can have on infiltrability and runoff characteristics in frozen soils and provides a physically based description of this mechanism that links infiltration behavior to hydraulic and thermal properties of structured soils.
Program Affiliations
GWF: Global Water Futures
Project Affiliations
GWF-PW: Prairie Water
Publication Stage
Published
Additional Information
Prairie Water
Download Links
https://doi.org/10.1002/vzj2.20101
© 2026 - WaterNet Version 2026-07-02
Global Water Futures Observatories
Powered by
G W F Net
T-2021-11-14-21v23j9jD1zUWpnFRGqNVDog Publication 1.0