Simulating the induction welding process of thermoplastic composite materials for aircraft structures

Purpose This paper aims to use two different numerical approaches to simulate the induction welding process for a hybrid thermoplastic material, and the results have been validated experimentally. Design/methodology/approach The first approach used a numerical model that combines electromagnetism, heat transfer and solid mechanics in the same numerical environment using Hexagon Marc software. Simultaneously, a computationally efficient approach combined steady-state electromagnetism results at specific intervals in the Ansys EM suite with heat transfer and solid mechanics in Ansys Workbench. Findings The results from both numerical approaches showed a strong correlation with the experimental findings. Originality/value The current research offers valuable insights into enhancing induction welding procedures within the aerospace industry, as well as across broader industrial applications. The synergistic combination of numerical simulations and experimental validation served as a robust framework for future research endeavors aimed at enhancing the efficiency, reliability and quality of thermoplastic welding techniques.

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Publication Details

Journal
Aircraft Engineering and Aerospace Technology
Published
2024-09-23
DOI
https://doi.org/10.1108/aeat-04-2024-0116
Citations
1
Primary Topic
Material Properties and Applications
Type
article
Field-Weighted Citation Impact
1.47
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article

Simulating the induction welding process of thermoplastic composite materials for aircraft structures

Leonardo Cosma, Dionysios Markatos, G. Labeas, Francesca Felline et al.
1 citations
Aircraft Engineering and Aerospace Technology
Material Properties and Applications
1.47
article

Simulating the induction welding process of thermoplastic composite materials for aircraft structures

Leonardo Cosma, Dionysios Markatos, G. Labeas, Francesca Felline, Rosario Dotoli, Panagiota Polydoropoulou
article en
1 citations

Abstract

Purpose This paper aims to use two different numerical approaches to simulate the induction welding process for a hybrid thermoplastic material, and the results have been validated experimentally. Design/methodology/approach The first approach used a numerical model that combines electromagnetism, heat transfer and solid mechanics in the same numerical environment using Hexagon Marc software. Simultaneously, a computationally efficient approach combined steady-state electromagnetism results at specific intervals in the Ansys EM suite with heat transfer and solid mechanics in Ansys Workbench. Findings The results from both numerical approaches showed a strong correlation with the experimental findings. Originality/value The current research offers valuable insights into enhancing induction welding procedures within the aerospace industry, as well as across broader industrial applications. The synergistic combination of numerical simulations and experimental validation served as a robust framework for future research endeavors aimed at enhancing the efficiency, reliability and quality of thermoplastic welding techniques.

Aircraft Engineering and Aerospace TechnologyVol. 97(1)
University of Patras (GR)
Openalex Percentile: Top 15%
Material Properties and Applications
1.47
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Simulating the induction welding process of thermoplastic composite materials for aircraft structures — Leonardo Cosma, Dionysios Markatos, et al. · Aircraft Engineering and Aerospace Technology (2024) | TGRS Research Map | TGRS