Water Module Basics: Difference between revisions
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The [[Water Module]] in the {{software}} is an implementation of a 2D grid based shallow water model based on the 2D Saint Venant equations (see [[Surface_water_model_(Water_Overlay)|Surface Water Model]]). The module is further enhanced with infiltration, evaporation, groundwater flow and hydraulic structures. This module simulates a water model for your project area, based on rainfall, breaches and existing open water. | The [[Water Module]] in the {{software}} is an implementation of a 2D grid based shallow water model based on the 2D Saint Venant equations (see [[Surface_water_model_(Water_Overlay)|Surface Water Model]]). The module is further enhanced with infiltration, evaporation, groundwater flow and hydraulic structures. This module simulates a water model for your project area, based on rainfall, breaches and existing open water.<br> | ||
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Take a look at the [[Testbed_water_module|testbed water module]] project, available in all domains, to see some of the components of the [[Water Module]] in a project. | |||
[[File:Rainfall overlay 05.PNG|600px|center]] | [[File:Rainfall overlay 05.PNG|600px|center]] |
Revision as of 09:33, 1 May 2019
The Water Module in the Tygron Platform is an implementation of a 2D grid based shallow water model based on the 2D Saint Venant equations (see Surface Water Model). The module is further enhanced with infiltration, evaporation, groundwater flow and hydraulic structures. This module simulates a water model for your project area, based on rainfall, breaches and existing open water.
Take a look at the testbed water module project, available in all domains, to see some of the components of the Water Module in a project.
To perform the calculations, the project area is divided into a large grid of cells. Each cell has a specific quantity of water and specific hydrological parameters based on the data in the project. The total time which should be simulated is divided into discrete timesteps. Per timestep, each cell communicates with its adjacent cells to exchange water, based on it's water level, surface height, current flow direction and other factors. Accuracy and reliability is obtained by dividing the project area and simulation time into sufficiently small cells and steps, at the cost of more computation time.
The Water Module enables users to implement a water model for their project which is accurate and delivers fast results. To ensure accuracy, the Water Module is repeatedly tested against multiple (internationally) acknowledged hydrological benchmarks and tests. Fast results are achieved by executing the water calculations on High performance GPU servers.
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