Detachable connection mechanics of thin-walled cylindrical snap fit docking
A complete structure is composed of different components connected by various links/connections that plays extremely important role in maintaining the integrity of the structure, however, compared to the components, there is relatively less research on links/connections. Based on our accurate angle...
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Veröffentlicht in: | Extreme Mechanics Letters 2024-03, Vol.67, p.102122, Article 102122 |
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Format: | Artikel |
Sprache: | eng |
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Zusammenfassung: | A complete structure is composed of different components connected by various links/connections that plays extremely important role in maintaining the integrity of the structure, however, compared to the components, there is relatively less research on links/connections. Based on our accurate angle inversion of a detachable thin-walled cylindrical snap fit docking, we reformulate the elasticity of the snap fit and derive a new disassembly force and frictional energy dissipation of assembly/disassembly process. The studies shows that the irreversibility of frictional energy dissipation is the thermodynamic origin of snap-fit’s symmetry-breaking or asymmetry that is easy to assemble and not easy to disassemble. The results in this study are useful for the design of adjustable mechanical mechanism and/or snap-fit metamaterials. To make it easier for readers to use the formulas in this paper to solve their own problems, we provide a complete Maple program in the appendix.
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•Formulated the assembly/disassembly mechanics of a thin-walled cylindrical snap fit.•Modified a rotation reversion approximation based on exact solutions.•Derived a modified disassembly force of a thin-walled cylindrical snap fit.•Derived a frictional energy dissipation of a thin-walled cylindrical snap fit. |
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ISSN: | 2352-4316 2352-4316 |
DOI: | 10.1016/j.eml.2024.102122 |