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Finite element analysis for tractive performance of a rigid wheel (Part 2): Tractive performance and stress distribution in soil

机译:刚性轮牵引性能的有限元分析(第2部分):牵引性能和土壤中的应力分布

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摘要

Tractive performance of a rigid wheel and stress distribution in soil were investigated with both calculations, using the finite element program proposed in Part 1, and experiments. The soil model proposed in the study is the combined model whichhad a viscoelastic model under a loading stress state and an elastic model under an unloading stress state. The results showed that the soil model which behaved like plastic materials under the running wheel was successful with less than 15% slip. Themaximum tractive efficiency was obtained at 15% slip. The maximum normal stress acting on the contact surface between the rigid wheel and the soil showed a slight decrease with increasing slippage. The normal stress in vertical direction and thevolumetric strain in the soil also decreased slightly with increasing slippage.
机译:使用第1部分中提出的有限元程序和实验,通过两种计算研究了刚性轮的牵引性能和土壤中的应力分布。研究中提出的土体模型是组合模型,该模型具有加载应力状态下的粘弹性模型和卸载应力状态下的弹性模型。结果表明,在下轮下,类似于塑料材料的土壤模型是成功的,滑移率小于15%。在滑差为15%时可获得最大牵引效率。随着滑移的增加,作用在刚性轮与土壤之间的接触表面上的最大法向应力略有下降。垂直方向的正应力和土壤中的体积应变也随着滑动增加而略有下降。

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