DOCSLIB.ORG

GMS User Manual (V8.3) the Groundwater Modeling System

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text

Load more

GMS User Manual (v8.3) The Groundwater Modeling System PDF generated using the open source mwlib toolkit. See http://code.pediapress.com/ for more information. PDF generated at: Tue, 31 Jul 2012 20:55:45 UTC Contents Articles 1. Learning GMS 1 What is GMS? 1 The GMS Screen 1 Tool Palettes 4 Project Explorer 6 Tutorials 7 2. Set Up 8 64 bit 8 License Agreement 8 Registering GMS 9 Community Edition 10 Graphics Card Troubleshooting 11 Reporting Bugs 14 3. General Tools 15 3.1. The File Menu 16 The File Menu 16 3.2. The Edit Menu 17 The Edit Menu 17 Units 18 Preferences 19 Materials 23 Material Set 24 3.2.1. Coordinate Systems 25 Coordinate Systems 25 Coordinate Conversions 27 Projections 28 CPP Coordinate System 29 Geographic Coordinate System 30 Local Coordinate System 30 Coordinate Transformation 31 Transform 32 3.3. The Display Menu 33 The Display Menu 33 Contour Options 35 Animations 37 Color Ramp 39 3.3.1. Display Options 41 Display Options 41 Drawing Grid Options 42 Vectors 43 Lighting Options 44 Plot Axes 45 3.4. Other Tools 47 Annotations 47 CAD Options 51 Cross Sections 51 Data Sets 55 Data Calculator 58 Display Theme 60 XY Series Editor 61 4. Interpolation 62 4.1. Introduction 63 Interpolation 63 Interpolation Commands 64 3D Interpolation Options 65 Steady State vs. Transient Interpolation 66 4.2. Linear 67 Linear 67 4.3. Inverse Distance Weighted 68 Inverse Distance Weighted 68 Shepards Method 68 Gradient Plane Nodal Functions 69 Quadratic Nodal Functions 70 Subset Definition 71 Computation of Interpolation Weights 72 4.4. Clough-Tocher 74 Clough-Tocher 74 4.5. Natural Neighbor 75 Natural Neighbor 75 4.6. Kriging 78 Kriging 78 Kriging Options 81 3D Kriging 82 Variogram Editor 83 4.7. Jackknifing 90 Jackknifing 90 5. Modules 91 5.1. TIN Module 92 TIN Module 92 Creating a TIN 93 Editing a TIN 94 TIN Settings 97 TIN Display Options 97 TIN Tool Palette 99 Converting TINS to Other Data Types 100 Building Solids and 3D Meshes with TINs 101 Triangulation 102 TIN Files 103 5.2. Boreholes Module 106 Boreholes Module 106 Creating and Editing Boreholes 107 Borehole Display Options 108 Borehole Tool Palette 109 Borehole Hydrogeologic Units 110 Converting Borehole Data 111 Borehole Cross Sections 112 5.2.1. Horizons 116 Horizons 116 Horizon Conceptual Model 117 Horizons Applications 119 Horizons to HUF 121 Horizons Wizard 122 Horizons to Solids 123 Horizons to 3D Mesh 125 5.3. Solid Module 126 Solid Module 126 Solid Properties 127 Solid Primitives 128 Solid Display Options 129 Solid Module Tool Palette 129 Solids to Layered Mesh 130 Solids to HUF 131 Solids to MODFLOW Command 132 5.4. 2D Mesh Module 139 2D Mesh Module 139 Creating a 2D Mesh 140 Editing 2D Meshes 141 2D Mesh Settings 144 2D Mesh Display Options 145 2D Mesh Tool Palette 146 Converting a 2D Mesh to other types of Data 148 Element types 150 2D Mesh Polygon Attributes 152 5.5. 2D Grid Module 155 2D Grid Module 155 2D Grid Types 156 Creating and Editing 2D Grids 156 2D Grid Display Options 158 2D Grid Tool Palette 159 Converting 2D Grids 160 5.6. 2D Scatter Point Module 161 2D Scatter Point Module 161 Creating and Editing 2D Scatter Point Sets 162 2D Scatter Point Display Options 163 2D Scatter Point Tool Palette 164 Interpolating with 2D Scatter Points 164 Converting 2D Scatter Points to Other Types of Data 165 Gaussian Field Generator 165 Active/Inactive Points 168 2D Interpolation Options 169 5.7. 3D Mesh Module 171 3D Mesh Module 171 3D Element Types 171 Creating a 3D Mesh 172 Editing a 3D Mesh 174 3D Mesh Display Options 177 3D Mesh Tool Palette 178 Classify Material Zones 180 Iso Surfaces 181 Converting 3D Meshes to Other Data Types 184 Building the 3D Mesh from the FEMWATER Conceptual Model 185 5.8. 3D Grid Module 186 3D Grid Module 186 3D Grid Types 187 Creating and Editing 3D Grids 187 3D Grid Display Options 189 3D Grid Tool Palette 190 Classify Material Zones 191 3D Grid Viewing Modes 192 Converting 3D Grids to Other Data Types 193 Exporting Grids 195 Cell Properties 196 Active/Inactive Cells 197 Named Layer Ranges 198 Redistribute Grid Cells 198 Redistribute Layers 199 5.9. 3D Scatter Point Module 200 3D Scatter Point Module 200 3D Scatter Point Display Options 201 3D Scatter Point Tool Palette 202 Interpolating with 3D Scatter Points 202 Converting 3D Scatter Points to Other Data Types 203 Bounding Grid 203 5.10. Map Module 204 Map Module 204 Feature Objects 205 Conceptual Model 208 Feature Object Display Options 209 Feature Object Tool Palette 210 Coverages 211 Grid Frame 213 Clean Command 213 Temporal Discretization 214 Map to Models 215 Map to Modules 216 5.11. GIS Module 219 GIS Module 219 GIS Display Options 220 GIS Tool Palette 220 Enabling ArcObjects 221 GIS to Feature Objects 222 Add Data 223 Arc Hydro Groundwater 223 6. Models 224 6.1. FEMWATER 225 FEMWATER 225 6.1.1. FEMWATER Pre-Processing 226 Building a FEMWATER Model 226 FEMWATER Conceptual Model Approach 229 FEMWATER Flows 231 Point Source/Sink BC 231 Assign Node/Face BC 232 FEMWATER Point / Arc Properties 233 FEMWATER Model Input 235 FEMWATER Initial Conditions 238 Saving a FEMWATER Simulation 240 6.1.2. FEMWATER Post-Processing 241 FEMWATER Display Options 241 FEMWATER Post Processing Viewing Options 242 FEMWATER Particle Sets 243 6.2. MODAEM 244 MODAEM 244 MODAEM License Agreement 245 MODAEM Display Options 252 6.3. MODFLOW 253 MODFLOW 253 MODFLOW 2005 254 6.3.1. MODFLOW Packages 256 MODFLOW Packages Supported in GMS 256 BCF Package 260 CHD Package 262 DE4 Package 263 DRN Package 264 DRT Package 265 ETS Package 266 EVT Package 268 GHB Package 270 Global Options/Basic Package 271 GMG Package 274 HFB Package 275 HUF Package 276 LAK Package 278 LMG Package 278 LMG1 Package 280 LPF Package 281 MNW1 Package 283 MNW2 Package 284 NWT Package 285 PCG2 Package 286 RCH Package 287 RIV Package 288 SIP Package 289 SSOR Package 290 STR/SFR Packages 291 UZF Package 293 WEL Package 295 6.3.2. MODFLOW Pre-Processing 296 Building a MODFLOW Model 296 MODFLOW Array Editor 296 MODFLOW Grid Approach 298 MODFLOW Conceptual Model Approach 298 Activate Cells in Coverage 301 Stress Periods 302 Map to MODFLOW 303 Defining the Layer Elevations 305 Standard MODFLOW Parameters 308 MODFLOW Parameters - Two Methods 314 Conductance 314 Convergence Options 316 MODFLOW Parameters Disclaimer 317 Saving and Reading a MODFLOW Simulation 318 Output Control 319 Importing MODFLOW Files 320 MODFLOW with HDF5 327 Unsupported MODFLOW Features 331 Interpolate to MODFLOW Layers 332 MODFLOW Layers to 2D scatter points 334 MODFLOW Source/Sink Dialog 334 6.3.3. MODFLOW Post-Processing 337 MODFLOW Display Options 337 MODFLOW Post Processing Viewing Options 338 MODFLOW Solution Properties Dialog 340 Saving and Reading a MODFLOW Simulation 342 Cell Properties 343 MODFLOW World File 344 Error Summary Plot 345 Zone Budget 346 ZONEBUDGET 349 Viewing Computed Fluxes 350 6.4. MODPATH 351 MODPATH 351 MODPATH Particle Tracking 352 MODPATH Particle Sets 354 MODPATH Zone Codes 355 MODPATH Display Options 356 Exporting Pathlines 357 6.5. MT3DMS 358 MT3DMS 358 MT3D Packages 359 MT3D Source/Sink Mixing Package 360 Basic Transport Package Dialog 361 ICBUND Array 364 MT3D Source/Sink Mixing Package 365 MT3D point Sources/Sinks BC 367 Building an MT3DMS Simulation 368 Saving an MT3DMS Simulation 369 Importing an MT3D Simulation 369 MT3DMS Display Options 370 Calculate Mass 370 6.6. PEST 371 PEST 371 6.7. RT3D 372 RT3D 372 Basic Transport Package Dialog 374 6.8. SEAM3D 377 SEAM3D 377 6.9. SEAWAT 378 SEAWAT 378 Building a SEAWAT Model 379 SEAWAT Global Options Dialog 380 SEAWAT MODFLOW AUX Variables 380 SEAWAT Packages 381 Importing a SEAWAT Simulation 382 6.10. SEEP2D 383 SEEP2D 383 SEEP2D Display Options 386 SEEP2D Solution 387 6.11. T-PROGS 388 T-PROGS 388 Vertical Markov Chain 394 Strike Dip Markov Chain 398 TSIM 400 6.12. UTEXAS 401 UTEXAS 401 UTEXAS Display Options 407 6.13. WASH123D 408 WASH123D Display Options 408 7. Modeling 410 7.1. Calibration 411 Model Calibration 411 Automated Parameter Estimation 412 Parameter Estimation Dialog 414 PEST 418 Run Options 419 Observations 422 Plot Wizard 425 Calibration Targets 438 Model Checker 438 7.2. Parameters 440 Parameters 440 Parameter Dialog 442 Pilot Points 446 Multiplier Arrays for Parameters 447 Standard MODFLOW Parameters 448 7.3. Stochastic Modeling 455 Stochastic Modeling 455 Gaussian Field Generator 459 Risk Analysis Wizard 462 8. Importing/Exporting Data 466 Importing Non-native GMS Files 466 Text Import Wizard 467 Text Import Wizard Supported File Formats 468 Importing/Exporting CAD Data 474 Importing USGS DEMs 475 Importing/Exporting GIS Grids 476 Importing/Exporting Shapefiles 477 Shapefiles 481 Import From Database 481 Import from Web 482 Exporting Non-native GMS Files 488 Images 489 Registering an Image 490 KMZ files 492 GeoStudio Import 494 9. Appendix 495 File Formats 495 Data Set Files 496 Bugfixes GMS 505 Dialog Help 522 References Article Sources and Contributors 533 Image Sources, Licenses and Contributors 540 1 1. Learning GMS What is GMS? The Groundwater Modeling System (GMS) is a comprehensive graphical user environment for performing groundwater simulations. The entire GMS system consists of a graphical user interface (the GMS program) and a number of analysis codes (MODFLOW, MT3DMS, etc.). The GMS interface is developed by Aquaveo, LLC in Provo, Utah. GMS was designed as a comprehensive modeling environment.
Recommended publications
  • Hydrologic Processes Modeling Workshop Tucson, Arizona November 8-9, 2000

    Hydrologic Processes Modeling Workshop Tucson, Arizona November 8-9, 2000

    Hydrologic Processes Modeling Workshop Tucson, Arizona November 8-9, 2000 ACKNOWLEDGEMENTS This Workshop on Hydrologic Process Modeling and the report you are reading would not have been possible without the efforts of many individuals. These people gave of themselves because they care about hydrologic modeling, their profession, and because they want to see technology used for better resource decision making. The concept to pursue this workshop would not have been possible without the support from the Subcommittee on Hydrology (SOH). The SOH in their foresight established the Task Committee on Hydrologic Modeling and allowed those members the freedom to organize and convene this workshop. Appreciation is extended to all members on the Task Committee on Hydrologic Modeling, which includes: Mimi Dannel; Russ Kinnerson, Arlen Feldman; Marshall Flug; Donald Frevert, Chair; Doug Glysson; George Leavesley; Steve Markstrom; Jayantha Obeysekera; Mike Smith; Ming Tseng; Don Woodward; and Ray Whittemore. In addition, the University of Arizona provided our host facility, arranged the logistical details for the workshop, and provided a great environment for this workshop. Special appreciation is extended to Paul Baltes for making the on site arrangements for the workshop and to Pam Lawler, for assisting Paul with the on-site arrangements and also handling the registration for this workshop. Soroosh Sorooshian, who initially agreed to get the UA involved as host facility, and Hoshin Gupta, both of SAHRA as well as Jim Washburne, Assistant Director for Education at the UA are owed our thanks for arranging and coordinating UA’s faculty, staff and student support of this workshop. Special thanks are extended to Terri Sue Hogue for scheduling and overseeing the students from the University of Arizona that served as note takers, recorders, and prepared the written Discussions for the four Panels and of the Breakout sessions.
  • Assessment of Groundwater Modeling Approaches for Brackish Aquifers

    Assessment of Groundwater Modeling Approaches for Brackish Aquifers

    Assessment of Groundwater Modeling Approaches for Brackish Aquifers Final Report Prepared by Neil E. Deeds, Ph.D., P.E. Toya L. Jones, P.G. Prepared for: Texas Water Development Board P.O. Box 13231, Capitol Station Austin, Texas 78711-3231 November 2011 Texas Water Development Board Assessment of Groundwater Modeling Approaches for Brackish Aquifers Final Report by Neil E. Deeds, Ph.D., P.E. Toya L. Jones, P.G. INTERA Incorporated November 2011 iii This page is intentionally blank. iv Table of Contents Executive Summary ........................................................................................................................ 1 1.0 Introduction ......................................................................................................................... 2 2.0 Literature Review................................................................................................................ 3 2.1 Importance of Variable Density on Flow and Transport ........................................... 3 2.1.1 Introduction to Mixed Convection Systems .................................................. 3 2.1.2 Describing the Degree of Mixed Convection ................................................ 4 2.1.3 Examples of Mixed Convection Systems ...................................................... 5 2.2 Codes that Simulate Variable Density Flow and Transport ....................................... 6 2.3 Brackish Water Hydrogeology ................................................................................ 19 2.4 Brackish Water
  • Supported Operating Environment

    Supported Operating Environment

    Supported Operating Environment System Level Guides Current 9/28/2021 Table of Contents Supported Operating Environment Reference 5 Product List 8 Billing Data Server 10 Composer 12 CSTA Connector for BroadSoft BroadWorks 18 CX Contact 22 Decisions 26 eServices 29 Framework 49 Genesys Administrator Extension 72 Genesys Agent Scripting 80 Genesys Intelligent Automation (formerly GAAP) 84 Genesys Co-browse 88 Genesys Customer Experience Insights 92 Genesys Desktop 98 Genesys Info Mart 103 Genesys Interaction Recording 109 Genesys Interactive Insights 119 Genesys IVR SDK 127 Genesys Knowledge Center 131 Genesys Media Server 136 Genesys Mobile Services 146 Genesys Predictive Routing 151 Genesys Pulse 154 Genesys Quality Management (Zoom) 161 Genesys Rules System 164 Genesys Skills Management 171 Genesys Softphone 177 Genesys Video Gateway 182 Genesys Voice Platform 186 Genesys Voice Platform Studio 194 Genesys Voice Platform Voice Application Reporter 196 Genesys Web Engagement 199 Genesys WebRTC Service 204 Genesys Widgets 213 Gplus Adapter for Microsoft CRM 216 Gplus Adapter for SAP Analytics 218 Gplus Adapter for SAP CRM 222 Gplus Adapter for SAP Data Access Component 226 Gplus Adapter for SAP ERP 230 Gplus Adapter for SAP ICI Multi-Channel 234 Gplus Adapter for Siebel CRM 238 intelligent Workload Distribution 244 Interaction Concentrator 251 Interaction SDK 274 IVR Interface Option 281 License Reporting Manager 286 LivePerson Adapter 291 Load Distribution Server 295 Messaging Apps/Social Engagement 299 Multimedia Connector for Skype for
  • Application of MODFLOW with Boundary Conditions Analyses Based on Limited Available Observations: a Case Study of Birjand Plain in East Iran

    Application of MODFLOW with Boundary Conditions Analyses Based on Limited Available Observations: a Case Study of Birjand Plain in East Iran

    water Article Application of MODFLOW with Boundary Conditions Analyses Based on Limited Available Observations: A Case Study of Birjand Plain in East Iran Reza Aghlmand 1 and Ali Abbasi 1,2,* 1 Department of Civil Engineering, Faculty of Engineering, Ferdowsi University of Mashhad, Mashhad 9177948974, Iran; [email protected] 2 Faculty of Civil Engineering and Geosciences, Water Resources Section, Delft University of Technology, Stevinweg 1, 2628 CN Delft, The Netherlands * Correspondence: [email protected] or [email protected]; Tel.: +31-15-2781029 Received: 18 July 2019; Accepted: 9 September 2019; Published: 12 September 2019 Abstract: Increasing water demands, especially in arid and semi-arid regions, continuously exacerbate groundwater resources as the only reliable water resources in these regions. Groundwater numerical modeling can be considered as an effective tool for sustainable management of limited available groundwater. This study aims to model the Birjand aquifer using GMS: MODFLOW groundwater flow modeling software to monitor the groundwater status in the Birjand region. Due to the lack of the reliable required data to run the model, the obtained data from the Regional Water Company of South Khorasan (RWCSK) are controlled using some published reports. To get practical results, the aquifer boundary conditions are improved in the established conceptual method by applying real/field conditions. To calibrate the model parameters, including the hydraulic conductivity, a semi-transient approach is applied by using the observed data of seven years. For model performance evaluation, mean error (ME), mean absolute error (MAE), and root mean square error (RMSE) are calculated. The results of the model are in good agreement with the observed data and therefore, the model can be used for studying the water level changes in the aquifer.
  • [1 ] Oracle Glassfish Server

    [1 ] Oracle Glassfish Server

    Oracle[1] GlassFish Server Release Notes Release 3.1.2 and 3.1.2.2 E24939-10 April 2015 These Release Notes provide late-breaking information about GlassFish Server 3.1.2 and 3.1.2.2 software and documentation. These Release Notes include summaries of supported hardware, operating environments, and JDK and JDBC/RDBMS requirements. Also included are a summary of new product features in the 3.1.2 and 3.1.2.2 releases, and descriptions and workarounds for known issues and limitations. Oracle GlassFish Server Release Notes, Release 3.1.2 and 3.1.2.2 E24939-10 Copyright © 2015, Oracle and/or its affiliates. All rights reserved. This software and related documentation are provided under a license agreement containing restrictions on use and disclosure and are protected by intellectual property laws. Except as expressly permitted in your license agreement or allowed by law, you may not use, copy, reproduce, translate, broadcast, modify, license, transmit, distribute, exhibit, perform, publish, or display any part, in any form, or by any means. Reverse engineering, disassembly, or decompilation of this software, unless required by law for interoperability, is prohibited. The information contained herein is subject to change without notice and is not warranted to be error-free. If you find any errors, please report them to us in writing. If this is software or related documentation that is delivered to the U.S. Government or anyone licensing it on behalf of the U.S. Government, then the following notice is applicable: U.S. GOVERNMENT END USERS: Oracle programs, including any operating system, integrated software, any programs installed on the hardware, and/or documentation, delivered to U.S.
  • Water Resource Software APPLICATION OVERVIEW and REVIEW Public Disclosure Authorized Public Disclosure Authorized

    Water Resource Software APPLICATION OVERVIEW and REVIEW Public Disclosure Authorized Public Disclosure Authorized

    APPLICATION OVERVIEW AND REVIEW Public Disclosure Authorized Water Resource Software APPLICATION OVERVIEW AND REVIEW Public Disclosure Authorized Public Disclosure Authorized By Carter Borden, Anju Gaur and Chabungbam R. Singh March 2016 Public Disclosure Authorized 1 Water Resource Software 2 APPLICATION OVERVIEW AND REVIEW Water Resource Software APPLICATION OVERVIEW AND REVIEW By Carter Borden, Anju Gaur and Chabungbam R. Singh March 2016 3 Water Resource Software Acknowledgements Many individuals and organization have supported this analysis. Specific contributions of note include water resources software developers Deltares, DHI, eWater, NIH, SEI, and USGS responded to a software questionnaire outlining the functionality and applications of their products. Individuals at the Government of India’s Central Water Commission and National Institute of Hydrology provided valuable comments on their experience of WRS applications in India. Kees Bons provided further clarification of the Deltares software functionality. Apruban Mukherjee and Anil Vyas provided additional information on USACE HEC software. Finally, Dr. Daniele Tonina provided a thorough and comprehensive review of the document. 4 APPLICATION OVERVIEW AND REVIEW OVERVIEW The National Hydrology Project (NHP) is an initiative by the Government of India’s Ministry of Water Resources and the World Bank to develop hydro-meteorological monitoring systems and provide scientifically-based tools and design aids to assist implementing agencies in the effective water resources planning
  • Device Manager CLI User Guide

    Device Manager CLI User Guide

    HP StorageWorks Command View XP Advanced Edition software Device Manager CLI user guide Part number: T1780-96038 Sixth Edition: February 2007 Legal notices © Copyright 2005, 2007 Hewlett-Packard Development Company, L.P. Confidential computer software. Valid license from HP required for possession, use or copying. Consistent with FAR 12.211 and 12.212, Commercial Computer Software, Computer Software Documentation, and Technical Data for Commercial Items are licensed to the U.S. Government under vendor's standard commercial license. The information contained herein is subject to change without notice. The only warranties for HP products and services are set forth in the express warranty statements accompanying such products and services. Nothing herein should be construed as constituting an additional warranty. HP shall not be liable for technical or editorial errors or omissions contained herein. AIX and IBM are registered trademarks of International Business Machines Corporation. BSAFE is a registered trademark or trademark of RSA Security Inc. in the United States and/or other countries. Emulex is a registered trademark of Emulex Corporation in the United States and other countries. Itanium is a registered trademark of Intel Corporation or its subsidiaries in the United States and other countries. Java, JDK, and Sun are trademarks of Sun Microsystems, Inc. in the United States and other countries. Linux is a registered trademark of Linus Torvalds. Microsoft and Windows are registered trademarks of Microsoft Corporation. NetWare is a registered trademark of Novell, Inc. RC2 is a registered trademark or trademark of RSA Security Inc. in the United States and/or other countries. RC4 is a registered trademark or trademark of RSA Security Inc.
  • Open GIS Consortium Inc

    Open GIS Consortium Inc

    Open GIS Consortium Inc. OpenGIS Web Map Server Cookbook April 28, 2003 Editor: Kris Kolodziej OGC Document Number: 03-050 Version: 1.0.0 Stage: Draft Language: English OpenGIS Web Map Server Cookbook Open GIS Consortium Inc. Copyright Notice © 2003 Open GIS Consortium, Inc. All Rights Reserved. OpenGIS® is a registered trademark of the Open GIS Consortium, Inc. and may only be used by permission. This Open GIS Consortium, Inc. (OGC) document is a draft document and is copyright-protected by OGC. While the reproduction of drafts in any form for use by participants in the OGC standards development process is permitted without prior permission from OGC, neither this document nor any extract from it may be reproduced, stored, or transmitted in any form for any other purpose without prior written permission from OGC. Recipients of this document are invited to submit, with their comments, notification of any relevant patent rights of which they are aware and to provide supporting documentation. Note: This document is not an OGC Standard. Internal and external documents cannot refer to it as such. Drafts are distributed for review and comment and are subject to change without notice. Revision History Version Date Author/Editor Comments 1.0.0 April 14, 2003 Kris Kolodziej Document Contact Information If you have questions or comments regarding this document, you can contact: Name Organization Contact Information Greg Buehler OGC [email protected] +1 (812) 334-0601 Future Work Version: 1.0.0 ii http://www.opengis.org OpenGIS Web Map Server Cookbook
  • A Guide to Using PEST for Groundwater-Model Calibration

    A Guide to Using PEST for Groundwater-Model Calibration

    Groundwater Resources Program Global Change Research & Development Approaches to Highly Parameterized Inversion: A Guide to Using PEST for Groundwater-Model Calibration Original image Singular values used: 1 Singular values used: 2 Singular values used: 3 Singular values used: 4 Singular values used: 5 Singular values used: 7 Singular values used: 20 Scientific Investigations Report 2010–5169 U.S. Department of the Interior U.S. Geological Survey Cover photo: Michael N. Fienen Approaches to Highly Parameterized Inversion: A Guide to Using PEST for Groundwater-Model Calibration By . John E Doherty and Randall J. Hunt Scientific Investigations Report 2010–5169 U.S. Department of the Interior U.S. Geological Survey U.S. Department of the Interior KEN SALAZAR, Secretary U.S. Geological Survey Marcia K. McNutt, Director U.S. Geological Survey, Reston, Virginia: 2010 For more information on the USGS—the Federal source for science about the Earth, its natural and living resources, natural hazards, and the environment, visit http://www.usgs.gov or call 1-888-ASK-USGS For an overview of USGS information products, including maps, imagery, and publications, visit http://www.usgs.gov/pubprod To order this and other USGS information products, visit http://store.usgs.gov Any use of trade, product, or firm names is for descriptive purposes only and does not imply endorsement by the U.S. Government. Although this report is in the public domain, permission must be secured from the individual copyright owners to reproduce any copyrighted materials contained within this report. Suggested citation: Doherty, J.E., and Hunt, R.J., 2010, Approaches to highly parameterized inversion—A guide to using PEST for groundwater-model calibration: U.S.
  • APPENDIX 13A Assigned Software Matrix Contract NAS 10-02007

    APPENDIX 13A Assigned Software Matrix Contract NAS 10-02007

    APPENDIX 13A Assigned Software Matrix Contract NAS 10-02007 System Nomenclature ID Number TITLE QTY Supplier Transferrable to gov Reference Limited Note: Revision numbers provided on some of the software listed in this appendix reflects the inventory as of early 2001. Altitude Chamber Simplicity Gen. Elec. Yes Facilities Maintenance Management Computer System Yes No Andover 9000 Version 2.17 Yes No Logic Master Yes No Citrix Yes No Report Writer Yea No Smart Yes No SSPF Cable Database 1 PGOC Yes No license, custom database. Cables no longer being added. Data Systems Visual Basic 6 2 Microsoft Yes No Visual Suite 6 1 Microsoft Yes No Visual C++ 6 1 Microsoft Yes No PASS 1000 3.7 12 SBS Technologies Yes No CITE Exceed v5.2.1 2 Hummingbird Yes No Solaris 1.0.1 - operating system 8 Sun Microsystems Yes No Open Windows Ver.3 8 Sun Microsystems Yes No VX Works 5.0.2 8 Windriver Yes No Solstice Network Client 3.1 2 Sun Microsystems Yes No Exocode 3 Expert Object Corp. Yes No GPIB for VxWorks 3 National Instruments Yes No Advanced Archival Products SQ Erasable Optical Disk Device Driver 6 Advanced Archival Products Yes No Milan TCP/IP Fastport network Print Serve 3 Milan Yes No Network Computing Devices TCMS PCX Ware 16 (NCD) Yes Note: SW version numbers are current as of RFP release Modification 173 APPENDIX 13A and may change during contract award period. Page: 1 of 16 APPENDIX 13A Assigned Software Matrix Contract NAS 10-02007 System Nomenclature ID Number TITLE QTY Supplier Transferrable to gov Reference Limited (Operations) TCMS 6.0 IRIX
  • An Overview of Commonly Used Groundwater Modelling Software

    An Overview of Commonly Used Groundwater Modelling Software

    ISSN: 2350-0328 International Journal of AdvancedResearch in Science, Engineering and Technology Vol. 6, Issue 1, January 2019 An Overview of Commonly Used Groundwater Modelling Software C. P. Kumar Scientist ‗G‘, National Institute of Hydrology, Roorkee – 247667, India ABSTRACT: A groundwater model is any computational method that represents an approximation of an underground water system. While groundwater models are, by definition, a simplification of a more complex reality, they have proven to be useful tools over several decades for addressing a range of groundwater problems and supporting the decision-making process. There are many different ground-water modelling codes available, each with their own capabilities, operational characteristics, and limitations. If modelling is considered for a project, it is important to determine if a particular code is appropriate for that project, or if a code exists that can perform the simulations required in the project. This article presents an overview of most commonly used groundwater modelling codes. KEY WORDS: Groundwater, Numerical Modelling, MODFLOW, FEFLOW, PEST. I. INTRODUCTION Groundwater systems are affected by natural processes and human activity, and require targeted and ongoing management to maintain the condition of groundwater resources within acceptable limits, while providing desired economic and social benefits. Groundwater management and policy decisions must be based on knowledge of the past and present behaviour of the groundwater system, the likely response to future changes and the understanding of the uncertainty in those responses. The location, timing and magnitude of hydrologic responses to natural or human-induced events depend on a wide range of factors — for example, the nature and duration of the event that is impacting groundwater, the subsurface properties and the connection with surface water features such as rivers and oceans.

  • GMS User Manual (V9.1) the Groundwater Modeling System

    GMS User Manual (v9.1) The Groundwater Modeling System PDF generated using the open source mwlib toolkit. See http://code.pediapress.com/ for more information. PDF generated at: Wed, 08 May 2013 16:51:22 UTC Contents Articles 1. Learning GMS 1 What is GMS? 1 The GMS Screen 3 Tool Palettes 6 Project Explorer 9 Tutorials 10 2. Set Up 11 64 bit 11 License Agreement 11 Registering GMS 12 Community Edition 13 Graphics Card Troubleshooting 14 Reporting Bugs 18 3. General Tools 19 3.1. The File Menu 20 The File Menu 20 3.2. The Edit Menu 22 The Edit Menu 22 Units 24 Preferences 24 Materials 29 Material Set 29 3.2.1. Coordinate Systems 31 Coordinate Systems 31 Coordinate Conversions 32 Projections 33 CPP Coordinate System 35 Geographic Coordinate System 35 Local Coordinate System 36 Coordinate Transformation 36 Transform 37 3.3. The Display Menu 39 The Display Menu 39 Contour Options 41 Animations 44 Color Ramp 46 3.3.1. Display Options 48 Display Options 48 Drawing Grid Options 49 Vectors 50 Lighting Options 51 Plot Axes 53 3.4. Other Tools 54 Annotations 54 CAD Options 58 Cross Sections 59 Data Sets 63 Data Calculator 66 Display Theme 68 XY Series Editor 69 4. Interpolation 70 4.1. Introduction 71 Interpolation 71 Interpolation Commands 72 3D Interpolation Options 73 Steady State vs. Transient Interpolation 74 4.2. Linear 75 Linear 75 4.3. Inverse Distance Weighted 76 Inverse Distance Weighted 76 Shepards Method 77 Gradient Plane Nodal Functions 78 Quadratic Nodal Functions 79 Subset Definition 80 Computation of Interpolation Weights 81 4.4.