TopoFlow

TopoFlow is a powerful, spatially-distributed hydrologic model with a user-friendly point-and-click interface. Its main purpose is to model many different physical processes in a watershed with the goal of accurately predicting how various hydrologic variables will evolve in time in response to clim...

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Main Authors: Nora Matell, Irina Overeem
Format: Dataset
Language:unknown
Published:
Subjects:
Online Access:https://search.dataone.org/view/sha256:747d3287fc356d2a9ac601bdade0dc768f533986b7ba6e537c87a809da20de09
id dataone:sha256:747d3287fc356d2a9ac601bdade0dc768f533986b7ba6e537c87a809da20de09
record_format openpolar
spelling dataone:sha256:747d3287fc356d2a9ac601bdade0dc768f533986b7ba6e537c87a809da20de09 2024-06-03T18:46:41+00:00 TopoFlow Nora Matell Irina Overeem 2021-12-05T15:23:54Z https://search.dataone.org/view/sha256:747d3287fc356d2a9ac601bdade0dc768f533986b7ba6e537c87a809da20de09 unknown basins, Dataset dataone:urn:node:HYDROSHARE 2024-06-03T18:17:57Z TopoFlow is a powerful, spatially-distributed hydrologic model with a user-friendly point-and-click interface. Its main purpose is to model many different physical processes in a watershed with the goal of accurately predicting how various hydrologic variables will evolve in time in response to climatic forcings. Modeled processes include: Channelized flow (kinematic, diffusive or dynamic wave, all 1D and D8-based) Overland flow Snowmelt (degree-day or energy balance) Icemelt (from valley glaciers using GC2D) Meteorology (including precipitation, air temperature, shortwave and longwave radiation, etc.) Evaporation (Priestley-Taylor or energy balance) Infiltration (Green-Ampt, Smith-Parlange or Richards' 1D, multi-layer), *Shallow subsurface flow (Darcy, up to 6 layers) Flow diversions (sinks, sources or canals) Each process can have its own timestep. Typical timesteps are: Channel flow (seconds) Infiltration (seconds to minutes) Snowmelt (hours to days) Subsurface flow (hours to days), etc. Model can be run for a full year or longer, if necessary. Overland flow is currently modeled in a nonstandard way. Diffusive wave and dynamic wave routing routines need more testing. The linkage between the unsaturated zone (infiltration component) and saturated zone (subsurface flow component and water table) is not robust. Available test datat sets: Treynor watershed, in the Nishnabotna River basin, Iowa, USA. (Two large rainfall events.) Small basin in Kentucky. Inclined plane for testing. Arctic watershed data from Larry Hinzman (UAF). See /data/progs/topoflow/3.0/data on CSDMS cluster. Dataset Arctic Unknown Arctic Priestley ENVELOPE(161.883,161.883,-75.183,-75.183)
institution Open Polar
collection Unknown
op_collection_id dataone:urn:node:HYDROSHARE
language unknown
topic basins,
spellingShingle basins,
Nora Matell
Irina Overeem
TopoFlow
topic_facet basins,
description TopoFlow is a powerful, spatially-distributed hydrologic model with a user-friendly point-and-click interface. Its main purpose is to model many different physical processes in a watershed with the goal of accurately predicting how various hydrologic variables will evolve in time in response to climatic forcings. Modeled processes include: Channelized flow (kinematic, diffusive or dynamic wave, all 1D and D8-based) Overland flow Snowmelt (degree-day or energy balance) Icemelt (from valley glaciers using GC2D) Meteorology (including precipitation, air temperature, shortwave and longwave radiation, etc.) Evaporation (Priestley-Taylor or energy balance) Infiltration (Green-Ampt, Smith-Parlange or Richards' 1D, multi-layer), *Shallow subsurface flow (Darcy, up to 6 layers) Flow diversions (sinks, sources or canals) Each process can have its own timestep. Typical timesteps are: Channel flow (seconds) Infiltration (seconds to minutes) Snowmelt (hours to days) Subsurface flow (hours to days), etc. Model can be run for a full year or longer, if necessary. Overland flow is currently modeled in a nonstandard way. Diffusive wave and dynamic wave routing routines need more testing. The linkage between the unsaturated zone (infiltration component) and saturated zone (subsurface flow component and water table) is not robust. Available test datat sets: Treynor watershed, in the Nishnabotna River basin, Iowa, USA. (Two large rainfall events.) Small basin in Kentucky. Inclined plane for testing. Arctic watershed data from Larry Hinzman (UAF). See /data/progs/topoflow/3.0/data on CSDMS cluster.
format Dataset
author Nora Matell
Irina Overeem
author_facet Nora Matell
Irina Overeem
author_sort Nora Matell
title TopoFlow
title_short TopoFlow
title_full TopoFlow
title_fullStr TopoFlow
title_full_unstemmed TopoFlow
title_sort topoflow
publishDate
url https://search.dataone.org/view/sha256:747d3287fc356d2a9ac601bdade0dc768f533986b7ba6e537c87a809da20de09
long_lat ENVELOPE(161.883,161.883,-75.183,-75.183)
geographic Arctic
Priestley
geographic_facet Arctic
Priestley
genre Arctic
genre_facet Arctic
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