A distributed hydrologic-hydrodynamic modeling framework for coupled surface-subsurface processes
Interception, evapotranspiration, snow dynamics, infiltration, layered vadose storage, recharge, and groundwater feedbacks.
Local inertial, full momentum, diffusive D4, kinematic D4, cellular automata, and hydraulic controls.
Layered recharge, capillary rise, async groundwater scheduling, Boussinesq flow, exfiltration, and saturation excess.
Human-instability modes 1 and 3 coupled to routed depths and velocities, with explicit validation caveats for diagnostics.
Pollutant buildup, washoff, and distributed transport coupled to surface flow and outlet export.
HydroPol2D links atmospheric forcing, canopy interception, vadose-zone storage, groundwater response, dynamic surface routing, pollutant transport, and optional human-instability diagnostics through two-way coupling across the full hydrologic system.
Climate inputs and cryosphere partitioning
Vegetation controls on effective water input
Exchanges water mass, storage states, and feedbacks across surface, vadose, groundwater, routing, and quality modules.
2D surface storage, conveyance, and controls
Runoff generation and subsurface allocation
Subsurface storage and return-flow interaction
Constituent generation and surface export
A modular, high-performance framework for integrated flood, hydrology, groundwater, and water-quality simulation.
Simulate rainfall-runoff generation, layered vadose storage, groundwater feedback, and five routing families in one framework.
Designed for efficient high-resolution simulations with scalable workflows and advanced numerical options.
Integrates terrain, soil, vegetation, climate, river, and hydraulic-control datasets into a distributed modeling environment.
Flexible for flood inundation, groundwater interaction, green infrastructure, and water-quality applications.