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| To build an [[GMS:SEAWAT|SEAWAT]] model in GMS, use the following steps: | | To build an [[GMS:SEAWAT|SEAWAT]] model in GMS, use the following steps: |
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| | {{SEAWAT Conceptual Model Workflow}} |
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Revision as of 14:42, 16 August 2017
To build an SEAWAT model in GMS, use the following steps:
2. Initialize MT3DMS.
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1. Create a MT3DMS simulation.
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- Select the MT3DMS | New Simulation menu command.
- Set up the basic transport package.
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3. Select packages.
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- In the Basic Transport Package dialog, select the Packages button.
- Select packages in the MTD3DMS/RT3D Packages dialog.
- For a SEAWAT project, select the Advention package and Source/sink mixing package options.
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5. Edit the conceptual model.
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1. Set up conceptual model properties for SEAWAT.
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- In the Project Explorer, right-click on the conceptual model and select the Properties command.
- In the Conceptual Model Properties dialog, turn on the Transport option and click the Define Species button.
- Enter species in the Define Species dialog.
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2. Assign salt concentration at the coastline.
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- Using the Select Arc tool, double-click on the coastline arc on the sources coverage.
- Enter salt concentration in the Attribute Table dialog.
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8. Visualize the solution.
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1. Change display options.
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2. View display.
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- Use the Rotate , Pan , and Zoom tools.
- Use the View menu commands found in the Display menu.
- Use the Frame command to center and resize the display as needed.
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3. Adjust display.
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- Display may need to be adjusted during the remainder of the project.
- Use the Display Options dialog and viewing tools as needed.
- Use the Frame command to center and resize the display as needed.
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2. Change contour options.
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- Turn on Contours in the Display Options dialog and set contour options. The "Color Fill" option is recommended for this.
- Look for inconsistent points (points with values much higher/lower than their neighbors or regions where no data points exist).
- Verify that the region being modeled is covered by the elevation/depth data and there are no holes.
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3. Create a plot.
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2. Select available plot type.
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1. Computed vs. Observed Data plots.
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2. Residual vs. Observed Data plots.
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4. Create an animation.
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- Select a solution dataset and use the Display | Animate menu command.
- Use the Animation Wizard to specify the animation parameters.
- Save and view the animation file.
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4. Setup the RT3D simulation.
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6. Enter starting concentrations.
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- In the Basic Transport Package dialog, enter starting concentration values for the defined species.
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5. Set package definitions.
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7. Visualize the solution.
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1. Change display options.
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2. View display.
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- Use the Rotate , Pan , and Zoom tools.
- Use the View menu commands found in the Display menu.
- Use the Frame command to center and resize the display as needed.
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3. Adjust display.
|
- Display may need to be adjusted during the remainder of the project.
- Use the Display Options dialog and viewing tools as needed.
- Use the Frame command to center and resize the display as needed.
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2. Change contour options.
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- Turn on Contours in the Display Options dialog and set contour options. The "Color Fill" option is recommended for this.
- Look for inconsistent points (points with values much higher/lower than their neighbors or regions where no data points exist).
- Verify that the region being modeled is covered by the elevation/depth data and there are no holes.
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3. Create a plot.
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2. Select available plot type.
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1. Computed vs. Observed Data plots.
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2. Residual vs. Observed Data plots.
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4. Create an animation.
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- Select a solution dataset and use the Display | Animate menu command.
- Use the Animation Wizard to specify the animation parameters.
- Save and view the animation file.
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