WMS:What's new in WMS version 8.3
The WMS software development team is excited about the release of WMS 8.3 (beta)! This page lists the exciting new features that have been added to WMS 8.3.
- 1 WMS Enhancements
- 1.1 Export rainfall datasets to KMZ (Google Earth) animation files
- 1.2 Export index map cells to Google Earth as vector polygons
- 1.3 Import GSSHA index map files
- 1.4 Support of Contaminant Transport and NSM modeling in GSSHA
- 1.5 Ability to create mass and concentration plots for NSM constituents and for simple first order constituents
- 1.6 Support of Overland flow boundary conditions in GSSHA
- 1.7 Improvements on Joining SSURGO Data
- 1.8 Improvements on GSSHA Stochastic Model Calibration
- 1.9 Capability to define an input hydrograph and/or contaminant source at any location in the stream network
Export rainfall datasets to KMZ (Google Earth) animation files
Using WMS 8.3 you are able to select the solution dataset, the scattered data dataset, and the rainfall dataset and export all three to a KMZ file. In the film loop dialog, you can specify the display elevation associated with your rainfall dataset, and view rainfall intensity at the same time you are viewing its effects in the overland plane and the river network.
Export index map cells to Google Earth as vector polygons
With WMS 8.3 you get a variety of visualizing options. For example, the different index maps that can be created in WMS can now be exported as .kmz files that can be displayed in Google Earth.
Import GSSHA index map files
WMS 8.3 allows you to import any index map file, such as Land Use, Soil Type, Combined Index Map, etc. from one GSSHA project to another GSSHA project with the same grid.
WMS 8.3 supports constituent transport modeling, which can be simulated as simple first order reactants or with the full nutrient cycle using NSM. You can input a constituent concentration at any point in your watershed (point and/or non point source) or on a stream and then GSSHA outputs maps of mass and concentrations at each point in your watershed and in your stream network.
NSM can be coupled with any hydrologic and hydrodynamic model transport component; this means that NSM deals with transforming processes of water quality constituents in the overland plane and receiving water bodies. Tutorials for each of these capabilities are available on gsshawiki.com.
Ability to create mass and concentration plots for NSM constituents and for simple first order constituents
Not only can constituents be visualized in the overland flow plane at any cell in your watershed, but specific plots of constituent mass and concentrations can be generated in the outlet of your watershed using WMS 8.3. This works both for simple first order reactants and for NSM constituents such as nitrogen, phosphorus and carbon species.
Support of Overland flow boundary conditions in GSSHA
Using WMS 8.3 you can model coastal storm surges or areas around a standing water body using overland flow boundary conditions, which can be defined as constant slope, constant stage (water surface elevation), or variable stage (water surface elevation). GSSHA will take a map of the boundary conditions and apply that condition at the beginning of each time step.
Improvements on Joining SSURGO Data
Using the “Join SSURGO Data” command in WMS 8.3, you can now join more attributes besides those associated with the *.dbf file. Attributes such as hydrologic soil group (HYDGRP), texture, hydraulic conductivity (KSAT), moisture, field capacity (FIELDCAP) and wilting point (WILTINGPT) can now be mapped to the WMS soil coverage.
Improvements on GSSHA Stochastic Model Calibration
Besides having the capability of running in calibration mode or batch mode, with WMS 8.3 you can automatically read in and run a model with the calibrated parameters and decide whether or not to substitute them into your model.
Capability to define an input hydrograph and/or contaminant source at any location in the stream network
As mentioned previously, WMS 8.3 allows you to specify a contaminant source at any point in your stream network that can account for point-sources in the stream network. In addition, you can define an input hydrograph at any point in your stream network, which can be particularly useful if you want to account for the hydrology of upstream areas into your watershed.
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