Process Chain-Oriented Design Evaluation of Multi-Material Components by Knowledge-Based Engineering

Research output: Contribution to journalArticleResearchpeer review

Authors

  • Kevin Herrmann
  • Stefan Plappert
  • Paul Christoph Gembarski
  • Roland Lachmayer
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Details

Original languageEnglish
Article number247
JournalAlgorithms
Volume16
Issue number5
Publication statusPublished - 10 May 2023

Abstract

The design of components suitable for manufacturing requires the application of knowledge about the manufacturing process chain with which the component is to be manufactured. This article presents an assistance system for decision support in the context of design for manufacturing. The assistance system includes explicit manufacturing process chain knowledge and has an inference engine that can automatically evaluate the manufacturability of a component design based on a given manufacturing process chain and resolve emerging manufacturing conflicts by making adjustments on the component or resource side. A link with a CAD system additionally enables the three-dimensional representation of derived manufacturing stages and manufacturing resources. Within the assistance system, a manufacturing process chain is understood as a configurable design object and is implemented via a constraint satisfaction problem. Furthermore, the required abstraction of manufacturing processes within finite domains can be reduced to the extent that necessary modeling resolution is achieved by incorporating empirical or simulative surrogate models into the CSP. The assistance system was conceptually validated on a tailored forming process chain for the production of a multimaterial shaft and provides added value, as valuable manufacturing information for component designs is automatically derived and made available in explicit form during the component development.

Keywords

    constraint satisfaction problem, design for manufacturing, knowledge based engineering, process chain, product development, tailored forming

ASJC Scopus subject areas

Cite this

Process Chain-Oriented Design Evaluation of Multi-Material Components by Knowledge-Based Engineering. / Herrmann, Kevin; Plappert, Stefan; Gembarski, Paul Christoph et al.
In: Algorithms, Vol. 16, No. 5, 247, 10.05.2023.

Research output: Contribution to journalArticleResearchpeer review

Herrmann, K, Plappert, S, Gembarski, PC & Lachmayer, R 2023, 'Process Chain-Oriented Design Evaluation of Multi-Material Components by Knowledge-Based Engineering', Algorithms, vol. 16, no. 5, 247. https://doi.org/10.3390/a16050247
Herrmann, K., Plappert, S., Gembarski, P. C., & Lachmayer, R. (2023). Process Chain-Oriented Design Evaluation of Multi-Material Components by Knowledge-Based Engineering. Algorithms, 16(5), Article 247. https://doi.org/10.3390/a16050247
Herrmann K, Plappert S, Gembarski PC, Lachmayer R. Process Chain-Oriented Design Evaluation of Multi-Material Components by Knowledge-Based Engineering. Algorithms. 2023 May 10;16(5):247. doi: 10.3390/a16050247
Herrmann, Kevin ; Plappert, Stefan ; Gembarski, Paul Christoph et al. / Process Chain-Oriented Design Evaluation of Multi-Material Components by Knowledge-Based Engineering. In: Algorithms. 2023 ; Vol. 16, No. 5.
Download
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abstract = "The design of components suitable for manufacturing requires the application of knowledge about the manufacturing process chain with which the component is to be manufactured. This article presents an assistance system for decision support in the context of design for manufacturing. The assistance system includes explicit manufacturing process chain knowledge and has an inference engine that can automatically evaluate the manufacturability of a component design based on a given manufacturing process chain and resolve emerging manufacturing conflicts by making adjustments on the component or resource side. A link with a CAD system additionally enables the three-dimensional representation of derived manufacturing stages and manufacturing resources. Within the assistance system, a manufacturing process chain is understood as a configurable design object and is implemented via a constraint satisfaction problem. Furthermore, the required abstraction of manufacturing processes within finite domains can be reduced to the extent that necessary modeling resolution is achieved by incorporating empirical or simulative surrogate models into the CSP. The assistance system was conceptually validated on a tailored forming process chain for the production of a multimaterial shaft and provides added value, as valuable manufacturing information for component designs is automatically derived and made available in explicit form during the component development.",
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