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Analysis and Optimization of Static Contact Characteristics of Heavy-Duty Tracked Vehicle Rollers

机译:重型跟踪车辊静电接触特性的分析与优化

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The static contact characteristics of heavy-duty tracked vehicle roller and track plate contact structure are analyzed, and the influence mechanism of the roller’s shape parameters on the contact stress is studied. According to the Hertz contact theory, a mathematical model of the roller and track plate contact is established. The contact structure model is established in ANSYS software, and the simulation results are compared with the Hertz theory results to verify each other. In the parameter optimization section for the roller and track plate, based on the Hertz stress calculation formula, a new method is proposed to establish a roller and track plate Kriging model and to globally optimize the model by the genetic algorithm (GA). After that, the relationship among the track roller radius , the track roller rim radius , and the track plate rim radius is analyzed. The results show that the difference between the radius of the rim of the roller and the track plate and the radius of the roller rim both affect the maximum contact stress. Changing the plane contact into the curved surface contact can reduce the maximum contact stress by 33%. This study can provide a reference for the design and manufacture of supporting track rollers and track plates.
机译:分析了重型跟踪车辆辊和轨道板接触结构的静态接触特性,研究了辊形状参数对接触应力的影响机理。根据赫兹接触理论,建立了滚子和轨道板触点的数学模型。在ANSYS软件中建立了联系结构模型,并将仿真结果与赫兹理论结果进行了比较,以互相验证。在滚子和轨道板的参数优化部分中,基于赫兹应力计算公式,提出了一种新方法来建立滚子和轨道克里格模型,并通过遗传算法(GA)全局优化模型。之后,分析了轨道滚子半径,轨道辊边缘半径和轨道板边缘半径之间的关系。结果表明,辊子的边缘和轨道板的半径与滚子边缘的半径之间的差异均影响最大接触应力。将平面接触更换为弯曲表面接触可以将最大接触应力降低33%。该研究可以为支撑轨道辊和轨道板提供设计和制造的参考。

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