A Review on the modeling of the clinching process chain—Part II: Joining Process

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Abstract

Clinching is often used to join sheet-like parts, which can be made of different materials, to produce complex lightweight structures. The holistic prediction of the joinability, the properties and the life cycle of a joint requires the modeling and simulation of the complete clinching process chain. Therefore, (i) the design phase, (ii) the joining process itself and (iii) the resulting properties of the connection in the operational phase must be taken into account. This paper is the second part (part II) of a series of reviews summarizing the current state of research on modeling and simulation of clinching. The topic of this second part is the joining process itself, i.e. the process simulation of the clinching process. Thereby, the focus is on material models for the process simulations, on plasticity-damage models for metallic materials and on multi-scale material models for fiber-reinforced plastic composites. These complex material models are required to make clinching process simulations more accurate and predictive. More detailed process simulations allow better prediction of the properties of the clinch joints, which is essential for their distribution and optimization in the design phase (part I of the review series) and for the subsequent simulation of the operating phase considering corrosion and fatigue cracks (part III).

Details

Original languageEnglish
Article number100134
Number of pages14
JournalJournal of Advanced Joining Processes
Volume6
Issue number6
Publication statusPublished - Nov 2022
Peer-reviewedYes

External IDs

Mendeley ba2c7860-002d-3377-9468-ef57ea9ced3d
WOS 000892242900002

Keywords

DFG Classification of Subject Areas according to Review Boards

Subject groups, research areas, subject areas according to Destatis

Keywords

  • Clinching, Fiber-reinforced plastic composites, Mechanical joining, Metallic materials, Multi-scale material models, Plasticity-damage models, Process simulation, Plasticity -damage models, Multi -scale material models, Fiber -reinforced plastic composites