Using mesh-geometry relationships to transfer analysis models between CAE tools

Research output: Contribution to journalArticle

6 Citations (Scopus)

Abstract

Integrating analysis and design models is a complex task due to differences between the models and the architectures of the toolsets used to create them. This complexity is increased with the use of many different tools for specific tasks using an analysis process. In this work various design and analysis models are linked throughout the design lifecycle, allowing them to be moved between packages in a way not currently available. Three technologies named Cellular Modeling, Virtual Topology and Equivalencing are combined to demonstrate how different finite element meshes generated on abstract analysis geometries can be linked to their original geometry. Cellular models allow interfaces between adjacent cells to be extracted and exploited to transfer analysis attributes such as mesh associativity or boundary conditions between equivalent model representations. Virtual Topology descriptions used for geometry clean-up operations are explicitly stored so they can be reused by downstream applications. Establishing the equivalence relationships between models enables analysts to utilize multiple packages for specialist tasks without worrying about compatibility issues or substantial rework.
LanguageEnglish
Pages465-481
Number of pages17
JournalEngineering With Computers
Volume31
Issue number3
Early online date02 Sep 2014
DOIs
Publication statusPublished - Jul 2015

Fingerprint

Computer aided engineering
Model Analysis
Mesh
Geometry
Topology
Rework
Associativity
Model
Life Cycle
Compatibility
Adjacent
Attribute
Equivalence
Relationships
Finite Element
Boundary conditions
Cell
Modeling
Demonstrate
Design

Cite this

@article{bd850324cdaa4f9c9f2f54b50d6ac64f,
title = "Using mesh-geometry relationships to transfer analysis models between CAE tools",
abstract = "Integrating analysis and design models is a complex task due to differences between the models and the architectures of the toolsets used to create them. This complexity is increased with the use of many different tools for specific tasks using an analysis process. In this work various design and analysis models are linked throughout the design lifecycle, allowing them to be moved between packages in a way not currently available. Three technologies named Cellular Modeling, Virtual Topology and Equivalencing are combined to demonstrate how different finite element meshes generated on abstract analysis geometries can be linked to their original geometry. Cellular models allow interfaces between adjacent cells to be extracted and exploited to transfer analysis attributes such as mesh associativity or boundary conditions between equivalent model representations. Virtual Topology descriptions used for geometry clean-up operations are explicitly stored so they can be reused by downstream applications. Establishing the equivalence relationships between models enables analysts to utilize multiple packages for specialist tasks without worrying about compatibility issues or substantial rework.",
author = "Christopher Tierney and Declan Nolan and Trevor Robinson and Cecil Armstrong",
year = "2015",
month = "7",
doi = "10.1007/s00366-014-0377-7",
language = "English",
volume = "31",
pages = "465--481",
journal = "Engineering With Computers",
issn = "0177-0667",
publisher = "Springer London",
number = "3",

}

TY - JOUR

T1 - Using mesh-geometry relationships to transfer analysis models between CAE tools

AU - Tierney, Christopher

AU - Nolan, Declan

AU - Robinson, Trevor

AU - Armstrong, Cecil

PY - 2015/7

Y1 - 2015/7

N2 - Integrating analysis and design models is a complex task due to differences between the models and the architectures of the toolsets used to create them. This complexity is increased with the use of many different tools for specific tasks using an analysis process. In this work various design and analysis models are linked throughout the design lifecycle, allowing them to be moved between packages in a way not currently available. Three technologies named Cellular Modeling, Virtual Topology and Equivalencing are combined to demonstrate how different finite element meshes generated on abstract analysis geometries can be linked to their original geometry. Cellular models allow interfaces between adjacent cells to be extracted and exploited to transfer analysis attributes such as mesh associativity or boundary conditions between equivalent model representations. Virtual Topology descriptions used for geometry clean-up operations are explicitly stored so they can be reused by downstream applications. Establishing the equivalence relationships between models enables analysts to utilize multiple packages for specialist tasks without worrying about compatibility issues or substantial rework.

AB - Integrating analysis and design models is a complex task due to differences between the models and the architectures of the toolsets used to create them. This complexity is increased with the use of many different tools for specific tasks using an analysis process. In this work various design and analysis models are linked throughout the design lifecycle, allowing them to be moved between packages in a way not currently available. Three technologies named Cellular Modeling, Virtual Topology and Equivalencing are combined to demonstrate how different finite element meshes generated on abstract analysis geometries can be linked to their original geometry. Cellular models allow interfaces between adjacent cells to be extracted and exploited to transfer analysis attributes such as mesh associativity or boundary conditions between equivalent model representations. Virtual Topology descriptions used for geometry clean-up operations are explicitly stored so they can be reused by downstream applications. Establishing the equivalence relationships between models enables analysts to utilize multiple packages for specialist tasks without worrying about compatibility issues or substantial rework.

U2 - 10.1007/s00366-014-0377-7

DO - 10.1007/s00366-014-0377-7

M3 - Article

VL - 31

SP - 465

EP - 481

JO - Engineering With Computers

T2 - Engineering With Computers

JF - Engineering With Computers

SN - 0177-0667

IS - 3

ER -