Work in progress. Check back in July 2023!
HFLUX
HFLUX is a one-dimensional transient model that calculates stream temperatures with respect to space and time using the mass and energy balance equations for temperature transport in streams. It uses initial spatial and temporal temperature boundary conditions, stream dimension information, discharge data, and meteorological data to calculate stream temperature using a finite difference method. HFLUX is written as a set of functions that run in the MATLAB environment. Code here
FloPy
FloPy is a Python package written to create, run, and post-process MODFLOW-based models, MODPATH, and MT3D. MODFLOW is the United States Geological Survey's groundwater flow model. MODPATH is is a particle-tracking post-processing model that computes flow paths, while MT3D is a 3D transport model; both models use output from MODFLOW. Provided here are python scripts written in Jupyter notebooks that demonstrates examples of how FloPy code can be used to build and run MODFLOW, MODPATH, and MT3D model simulations.
HFLUX
HFLUX is a one-dimensional transient model that calculates stream temperatures with respect to space and time using the mass and energy balance equations for temperature transport in streams. It uses initial spatial and temporal temperature boundary conditions, stream dimension information, discharge data, and meteorological data to calculate stream temperature using a finite difference method. HFLUX is written as a set of functions that run in the MATLAB environment. Code here
FloPy
FloPy is a Python package written to create, run, and post-process MODFLOW-based models, MODPATH, and MT3D. MODFLOW is the United States Geological Survey's groundwater flow model. MODPATH is is a particle-tracking post-processing model that computes flow paths, while MT3D is a 3D transport model; both models use output from MODFLOW. Provided here are python scripts written in Jupyter notebooks that demonstrates examples of how FloPy code can be used to build and run MODFLOW, MODPATH, and MT3D model simulations.
