Each coordinate file represents a curve of the outer surface of the head in that particular plane. In this example, let’s look at a case where we have a number of files or cross-sectional coordinates from different planes of a human head. One possible format when working with scanned data is text files with coordinate data from images of slices produced by an MRI or CT scan. In this blog series, we will look at different ways of handling irregular shapes in COMSOL Multiphysics.Īn Example of an Irregular Shape: The Human Head These formats are common when working with scanned biological data. For example, we have previously discussed importing STL files and NASTRAN® meshes into the COMSOL Multiphysics® software. Irregular shapes can come in several different formats. 105 Common Pitfalls in the Usage of Structure Macros. 104 Use Dialog Boxes in Structure Macros. 102 Difficulties in Creating Structure Macros.
102 Create a Structure Macro or a New Project Template. 100 Access Farfield Data from a VBA Script. 99 Access the Currently Displayed Plot Data. 99 Traverse Folders and Select Items from the Navigation Tree. 98 Adding Data Items to the Navigation Tree. 94 Global Macros and Global Library Path.
92 7.4 Concepts of Macro Programming in CST STUDIO SUITE™.93 User-Defined Functions. 91 Mathematical Functions, Operators and Constants. 87 Applications, Objects and Their Methods. 86 Variables, Data Types and Type Conversions. 85 7.3 VBA Language Elements.86 Subroutines and Functions.
77 CHAPTER 7 - VBA MACRO LANGUAGE.83ħ.1 Introduction.83 7.2 VBA Development Environment. 75 6.2 Pre-Loaded Post-processing Templates.77 Example for Post-processing Templates. 75Ħ.1 Framework to Control Result Templates. 72ĬHAPTER 6 – TEMPLATE BASED POST-PROCESSING. 64 5.3 Inspect and Repair the Imported Model.66 5.4 Parameterize the Imported Model. 54 4.4 Meshing Thin Conductors Using Tetrahedral Grids.61 CHAPTER 5 - CAD DATA IMPORT AND HEALING. 53 4.3 Auto-Regressive Filtering (AR-Filter). 46 CHAPTER 4 – PERFORMANCE IMPROVEMENTS.48Ĥ.1 General Hints.48 4.2 High Frequency Transient Simulations. 41 Local Mesh Parameters for Tetrahedral Mesh Generation. 40 3.8 Mesh Tuning.41 Local Mesh Parameters for Hexahedral Mesh Generation. 25 3.5 Hexahedral Mesh Adaptation for Low Frequency Problems.29 3.6 Tetrahedral Mesh Generation.33 3.7 Recommended Initial Hexahedral Discretizations. 20 3.4 Hexahedral Mesh Generation for Low Frequency Problems. 15 3.3 Hexahedral Mesh Adaptation for High Frequency Problems. 14 3.2 Hexahedral Mesh Generation for High Frequency Problems. 14ģ.1 Methods of Hexahedral Mesh Generation. 12 Disagreement between Simulation Model and Reality. 11 2.2 Error Sources / Sources of Inaccuracy. 4 The Finite Integration Technique (FIT). 4Ģ.1 Background of the Simulation Method. Other brands and their products are trademarks or registered trademarks of their respective holders and should be noted as such.ĬST – Computer Simulation Technology CST STUDIO SUITE™ 2006 – Advanced TopicsĬontents CHAPTER 1 - INTRODUCTION. Trademarks CST MICROWAVE STUDIO,CST DESIGN ENVIRONMENT, CST EM STUDIO, CST PARTICLE STUDIO, CST DESIGN STUDIO are trademarks or registered trademarks of CST GmbH. No part of this documentation may be reproduced, stored in a retrieval system, or transmitted in any form or any means electronic or mechanical, including photocopying and recording for any purpose other than the purchaser’s personal use without the written permission of CST.
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The software described in this document is furnished under a license agreement or non-disclosure agreement. Information in this document is subject to change without notice. CST STUDIO SUITE ™ 2006 CST DESIGN ENVI RONMENT™ | CST MIC ROWAVE STU DIO® CST EM STU DIO™ | CST PARTIC LE STU DIO™ | CST DESIGN STU DIO™Ĭopyright © 2005 CST GmbH – Computer Simulation Technology All rights reserved.
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