Towards Non-FEA-Based Deformation Methods for Evaluating Perceived Quality of Split-Lines
Journal article, 2013

In the automotive industry, the evaluation of Perceived Quality of split-lines is strongly dependent on simulation and visualisation activities to analyse consequences of geometrical variation. A truthful representation of the part behaviour is therefore essential. Moreover, variation simulation of non-rigid parts is today performed by finite element analysis (FEA). FEA-based methods demand meshed models that correspond to the final engineering design to calculate the correct stiffness matrix. However, geometrical models in early phases have significantly lower level of detail. Approximate methods are therefore considered as options to better deal with this restriction. In this paper, an approximate non-FEA-based simulation method, based on a mesh morphing approach, has been the subject of a case study to evaluate its acceptance and applicability. It involved a focus group and individual interviews with engineers and project managers from two companies within the automotive industry. The study shows that providing the possibility to perform visualisation activities in the early phases is highly sought after, both on an engineering level and on a management level. Furthermore, a number of application scenarios for this type of approximate method were proposed. The study also identified strengths and risks of visualising the effects of geometrical variation in this way.

non-rigid

split-lines

perceived quality

geometry assurance

virtual evaluation

Author

Ola S Wagersten

Chalmers, Product and Production Development, Product Development

Casper Wickman

Chalmers, Product and Production Development, Product Development

Lars Lindkvist

Chalmers, Product and Production Development, Product Development

Rikard Söderberg

Chalmers, Product and Production Development, Product Development

Journal of Engineering Design

0954-4828 (ISSN) 1466-1837 (eISSN)

Vol. 24 9 623-639

Subject Categories

Production Engineering, Human Work Science and Ergonomics

Reliability and Maintenance

Areas of Advance

Production

DOI

10.1080/09544828.2013.803218

More information

Created

10/8/2017