FEMWATER-LHS comes with Graphical User Interface (GUI)

by Wahyu Hardyanto

Versi 1.0 Formatted — April 11, 2003




A 3-dimentional finite element groundwater model for density-dependent flow and transport through saturated-unsaturated porous media with stochastic approach (i.e. Latin Hypercube Sampling) FEMWATER-LHS has been developed. Numerical models like FEMWATER-LHS can not be regarded as representations of the real world because the complexity of natural hydrogeologic systems can never be captured in the discretized parameters of a numerical model. Instead, numerical modeling should be understood as a means of testing hydrologic hypotheses based on model parameters that best represent measured phenomena. However, testing hydrologic hypotheses often becomes time consuming because numerical models require complex data. To facilitate the modeling process, graphical user interfaces (GUI) are needed to handle geospatial information and simulation control parameters, as well as visualize the simulated results. For this purpose, a FEMWATER-GUI has been developed using Borland DelphiTM. This GUI for FEMWATER-LHS was developed using commercially available software developed by Argus Interware. The Argus Interware product, known as Argus Open Numerical Environment (Argus ONETM), is a model-independent, programmable system with Geographic-Information-System-like (GIS-like) functionality that includes automated griding and meshing capabilities for synthesising geospatial information and linking it with finite difference and finite element discretizations techniques. This GUIs must be used in conjunction with the Argus ONE commercial package. Together, these codes provide a convenient graphical pre- and post-processor, that significantly reduce the time and effort required for use of FEMWATER-LHS as hydrogeologic tool.


Software Installation

The groundwater modeling code FEMWATERLHS for saturated-unsaturated porous media by combining and modifying three existing codes: groundwater flow, solute transport (FEMWATER) and probabilistic Latin Hypercube Sampling (LHS). The GUI for FEMWATER-LHS is based on a public-domain Plug-In Extension (PIE) to ArgusONE that permits the use of Argus ONE to automatically create the appropriate geospatial information coverages (information layers); provide menus and dialogs for inputting geospatial information and simulation control parameters, and allow visualization of FEMWATER-LHS simulation results.

The FEMWATER-LHS has been developed only for computers operating under Windows. The user must have the Windows version of Argus Open Numerical Environments (ArgusONE). However, the evaluation mode edition is allowing the user to install it on PC. This mode is fully functional but the user can not save or print the projects and export is limited to 625 elements. Additional information about ArgusONE and FEMWATER-LHS can be found on www.argusint.com and Wahyu Hardyanto’s page.

Files required for installation Location to install
fwgui301.dll [Argus directory]\ArgusPIE\FWGUI30
femwater_lewaste_lhs.met [Argus directory]\ArgusPIE\FWGUI30
FEMWATER_List.dll [Argus directory]\ArgusPIE\List
FEMWATER_GetMyDirectory.dll [Argus directory]\ArgusPIE\GetMyDirectory
BIN2ASC.exe [Argus directory]\ArgusPIE\GetMyDirectory
CALSTATS.exe [Argus directory]\ArgusPIE\GetMyDirectory
PCCSRCP.exe [Argus directory]\ArgusPIE\GetMyDirectory
EditContoursPie.dll [Argus directory]\ArgusPIE\EditContours

All the files used by the PIE should be placed in the ArgusPIE directory or in subdirectories under the ArgusPIE directory. Unless otherwise noted, it is generally a good idea to place each PIE in its own subdirectories under the ArgusPIE directory.

The export templates used by the PIE (femwater_lewaste_lhs.met) should be placed in the same directory as the FEMWATER PIE (FWGUI30.dll).

The executable version of FEMWATER-LHS (FEMWLHS.EXE) is assumed to be located in a directory with the pathname C:\FEMWATER\; the full pathname of the executable for FEMWATER-LHS is assumed to be C:\FEMWATER\FEMWLHS.EXE.

Step by step Simple Applications

  1. Steady Two-Dimensional Drainage Problem
  2. Steady Two-Dimensional Drainage Problem (LHS mode)
  3. Transient Two-Dimensional Drainage Problem
  4. Steady Three-Dimensional Pumping Problem
  5. Steady Three-Dimensional Pumping Problem (LHS mode)

Download the step by step Simple applications manual.



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Wahyu Hardyanto, Universitas Negeri Semarang