Conference proceedings article

Optimization of thermomechanical processes for the functional gradation of polymers by means of advanced empirical modeling technique



Publication Details
Authors:
Biermann, D.; Rohde, B.; Hess, S.; Wagner, T.; Ries, A.; Wibbeke, A.; Heim, H.
Editor:
American Institute of Physics -AIP-
Publisher:
AIP Press
Place:
New York, N.Y.

Publication year:
2014
Pages range :
766-770
Book title:
29th International Conference of the Polymer Processing Society, PPS 2013
ISBN:
978-0-7354-1227-9
DOI-Link der Erstveröffentlichung:


Abstract

In this paper, an optimization procedure for complex manufacturing processes is presented. The procedure is based on advanced empirical modeling techniques and will be presented in two parts. The first part comprises the selection and generation of the empirical surrogate models. The process organization and the design of experiments are taken into account. In order to analyze and optimize the processes based on the empirical models, advanced methods and tools are presented in the second part. These tools include visualization methods and a sensitivity and robustness analysis. Moreover, the obtained surrogate models are used for a model-based multi-objective optimization in order to explore the gradation potential of the processes. The procedure is applied to two thermo-mechanical processes for the functional gradation of polymers – a monoxiale stretching of polycarbonate films and a compression moulding process for polypropylene sheets.



Keywords
design and analysis of computer experiments, empirical modeling, Functionally graded materials, multi-objective optimization, polymers

Last updated on 2025-22-01 at 12:31