Palička Peter, Huňady Róbert, Hagara Martin, Lengvarský Pavol
Department of Applied Mechanics and Mechanical Engineering, Faculty of Mechanical Engineering, Technical University of Kosice, 04001 Kosice, Slovakia.
Materials (Basel). 2022 Dec 30;16(1):377. doi: 10.3390/ma16010377.
Tires are one of the most basic and important components of vehicles, including bicycles, cars, trucks, and aircraft. They consist of several layers that provide complex and dynamically changing functions. This work aims to optimize the mounting process of the tire apex to the bead. The bead locks the tire to the rim and helps minimize the risk of rim slip, and the apex provides dynamic stiffness, stress distribution, and driving stability. In mounting the apex onto the bead, air can be trapped between the apex and bead, which is an undesirable and significant problem in tire manufacturing. An FE model was created to simulate and optimize this process. After modifying the apex dimensions, the air was displaced from the space between the apex and the bead. Based on the simulation results, a set of recommendations for producing suitable apex shapes is provided.
轮胎是包括自行车、汽车、卡车和飞机在内的车辆最基本且最重要的部件之一。它们由几层结构组成,这些结构具备复杂且动态变化的功能。这项工作旨在优化轮胎胎尖与胎圈的安装过程。胎圈将轮胎锁定在轮辋上,并有助于将轮辋打滑的风险降至最低,而胎尖则提供动态刚度、应力分布和行驶稳定性。在将胎尖安装到胎圈上时,空气可能会被困在胎尖和胎圈之间,这在轮胎制造中是一个不良且严重的问题。创建了一个有限元模型来模拟和优化此过程。修改胎尖尺寸后,空气从胎尖和胎圈之间的空间排出。基于模拟结果,提供了一组关于生产合适胎尖形状的建议。