轴向载荷作用下多孔薄壁柱的表征

Gilang Farhan Ramadhan Mulyadi, Sigit Puji Santosa, D. Widagdo, A. Jusuf
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摘要

上部结构是车身的主要承重结构,引入了空间框架结构的概念,通过细柱结构的装配实现轻量化结构。轻型上层结构是为电动汽车设计的。为了保证轻型上层结构的安全,引入了耐撞性的概念。耐撞性标准是根据国际安全法规制定的。为提高电动汽车的耐撞性和吸能性能,提出了设计碰撞箱系统的多单元平台。多单元平台可以增加碰撞箱的能量吸收。目前正在研究几种多细胞结构,如十字形、h形、t形和y形。多孔柱承受准静态和低速轴向载荷。仿真结果表明,多单元结构对吸能性能有不同的影响。增加单元格数和交点可以提高能量吸收,但由于峰值力的影响,对能量吸收不利。结果表明,最佳碰撞箱系统为H型截面。
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Characterization of Multi-Cell Thin-walled Columned Subjected to Axial Loading
The superstructure is the main load-bearing construction on the bus body, which introduces a concept of spaceframe structure with the assembly of thin columns structures to achieve lightweight constructions. The lightweight superstructures are designed for electric-based vehicles. The concept of crashworthiness is introduced to maintain the safety of the lightweight superstructures. The criteria for crashworthiness are developed by using international safety regulation. The multi-cell platform is proposed for designing a crash box system to improve the crashworthiness and energy absorption performance of electric vehicles. The multi-cell platform can increase the energy absorption of the crash box. There are several multi-cell configurations being studied, such as cruciform shape, H-shaped, T-shaped, and Y-shaped. The multi-cell columns are subjected to quasi-static and low-speed axial loading. The simulation results show that the multi-cell configurations have different effects on energy absorption capability. Increasing the number of cells and intersection can result in higher energy absorption but detrimental due to peak force. It is found that the optimum crash box system is the H configuration cross-section.
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