轮胎-土壤相互作用离散元模拟参数标定

IF 0.6 Q4 AGRICULTURAL ENGINEERING
Yajun Zhao, Yifan Hou, Xiao Li, Haijun Zhu, Siyuan Cen, Hongling Jin
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引用次数: 0

摘要

为了进行轮胎-土壤相互作用的模拟研究,采用EDEM软件对试验土及轮胎与土壤的接触参数进行标定。土壤接触模型为爱丁堡弹塑性黏附(EEPA)模型。以土休止角为休止值,分别采用Plackett-Burman试验、最陡爬坡试验和Box-Behnken试验计算接触塑性比、土-土滚动摩擦系数和拉伸指数(拉伸exp),得到最优参数组合为E = 0.08、B = 0.1、F = 4.8。其余参数取值为:土-土静摩擦系数为0.45,恢复系数为0.5,表面能为4,切向刚度乘数为0.35。基于边坡滑动法,计算土与橡胶的静摩擦系数为0.88。在此基础上,设计中心组合试验对橡胶-土滚动摩擦系数和恢复系数进行标定,优选出H = 0.18, I = 0.55的最佳组合。利用最优参数建立了土槽模型,并将仿真结果与轮胎行驶过程的实验结果进行对比,验证了所建立的土离散元模型和橡胶-土接触参数的正确性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
PARAMETER CALIBRATION FOR THE DISCRETE ELEMENT SIMULATION OF TIRE-SOIL INTERACTION
To carry out simulation research on tire-soil interaction, EDEM software was used to calibrate the test soil and the contact parameters between the tire and soil. The soil contact model was the Edinburgh Elasto-Plastic Adhesion (EEPA) model. Using the soil repose angle as the repose value, the contact plasticity ratio, the soil-soil rolling friction coefficient, and the tensile exponential (Tensile exp) were respectively calculated using the Plackett-Burman test, the steepest climbing test, and the Box-Behnken test, and the optimal combination of parameters was found to be E = 0.08, B = 0.1, and F = 4.8. The values of the remaining parameters were as follows: a soil-soil static friction coefficient of 0.45, a restitution coefficient of 0.5, a surface energy of 4, and a tangential stiffness multiplier of 0.35. Based on the slope sliding method, the coefficient of static friction between soil and rubber was calculated as 0.88. On this basis, a central combination test was designed to calibrate the rubber-soil rolling friction coefficient and coefficient of restitution, the optimal combination of which was found to be H = 0.18 and I = 0.55. A soil tank model was created using the optimal parameters, and the correctness of the established soil discrete element model and rubber-soil contact parameters was validated by comparing the simulation results and the results of an experiment of the tire driving process.
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来源期刊
INMATEH-Agricultural Engineering
INMATEH-Agricultural Engineering AGRICULTURAL ENGINEERING-
CiteScore
1.30
自引率
57.10%
发文量
98
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