DHIJWASv Software FEFLOW 6.1

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PK=qÜÉ=rëÉê=fåíÉêÑ~ÅÉ NU=ö=rëÉê=j~åì~ä opens up. Go to Panels and click on Map Properties Panel. The panel now appears in our workspace as a separate floating item. Dock the panel with a doubleclick on its header. The Spatial Units and the Properties panel are tabbed so that only one is visible at a time. Click on the tab Properties to bring this panel to the front. Remove the two panels by clicking on the closing icon in the upper right corner of the respective panel. Figure 3.4 A floating panel and toolbar in the workspace. Only toolbars relevant to the currently active view can be shown. Aside from this restriction, toolbar visibility and position are user-controlled. As an exercise, click on the left border of the Mesh-Editor toolbar and drag it to a different location, e.g., into the Supermesh view. To restore the default settings for the graphical user interface go to View and select Reset Toolbar and Dock-Window Layout. When FEFLOW is started the next time, toolbars and panels will be arranged according to the default layout. To move the Supermesh view outside of the main window, open its context menu with a click on the right mouse button and select Floating Window. The view window can now be moved to an arbitrary position on the screen. Figure 3.5 The supermesh view as floating window. To see the Supermesh view in full-screen mode, hit . The full-screen mode is turned off by hitting once again.
tçêâáåÖ=ïáíÜ=j~éë Loading and managing different kinds of maps Q tçêâáåÖ=ïáíÜ=j~éë QKN j~éëÔtÜ~í=cçê\ Maps are an integral part of all but very simple modeling projects. Their most obvious role is to provide a basis for convenient orientation in the model area. FEFLOW, however, makes much wider use of maps in the modeling workflow. Map geometries can be used to influence the mesh generation process, they can serve to geometrically define the target nodes, elements, edges or faces for parameter assignment, and attributed maps can even provide the input data themselves. o~ëíÉêLsÉÅíçê=j~éë We have to distinguish between raster maps and vector maps. Pixel-based raster maps in formats such as TIFF, JPEG or PNG can only provide visual information. Vector maps contain discrete geometries (points, lines, and polygons). Formats supported by FEFLOW include ESRI Shape Files, AutoCAD Exchange Files, DBase Tables and several ASCII (text) file formats. In addition to geometrical information these file formats also encompass attribute data, i.e., numerical and/or textual information related to certain geometrical features. While some formats like shp support an unlimited number of user-defined attributes, others like dxf only allow drawing attributes such as color or line style, and very simple formats such as trp (ASCII triplet format—XYF) only support one single attribute value. OaLPa ESRI Shape Files, AutoCAD Exchange Files and tabular files (dbf, dat) may contain three-dimensional map information. FEFLOW supports 3D map display in 3D view windows (Figure 4.1). Figure 4.1 3D map in 3D view window. QKN=j~éëÔtÜ~í=cçê\ Q cbcilt=SKN=ö=NV
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distributions. In this case, the va
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Figure 10.6 Map data input for noda
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Figure 10.8 Expression Editor. Arbi
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e edited manually or imported from
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able as attribute fields that can b
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of the 0 mg/l fixed-concentration B
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are edited in the table below. Leav
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Figure 10.20 Parameter Association
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dataset, click on Edit borehole hea
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páãìä~íáçå Running a FEFLOW
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control and model parameters is pre
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Figure 11.5 Observation Point Prope
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oÉëìäíë=bî~äì~íáçå Ana
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NOKU bñéçêí Figure 12.2 Pathli
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Figure 12.5 Scaled budget spheres a
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To visualize the transient flow fie
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^åáã~íáçå=~åÇ=sáÇÉç=b
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view in which we show how the mesh
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mäìÖJáåë=~åÇ=fåíÉêÑ~Å
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Open the Plug-ins panel via View >
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* * TODO: Add your own code here...
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DHIJWASv Software FEFLOW 6.1

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