Dynamic Analysis on a Sub-Scaled Physical Model of a 4-Ton Truck Composite Ladder Type Cassis

Dr. Madhavi M., B. Sai Maanas, Karthik Rajasekar
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Abstract

Composites are materials created by combining dissimilar materials with a view to improve their properties or to create materials with desired properties. Advanced fibre-reinforced polymer composites have emerged as an important class of engineering materials for load-bearing applications with all-round properties for many engineering and social applications. The automobile chassis is the basic framework where major systems like transmission, steering, suspension, braking, etc are attached to and supported by the chassis frame. When the vehicle travels along the road, the chassis is subjected to excitation from the engine and transmission system as well as due to the road profile. Due to these excitations, the chassis begins to vibrate. If the natural frequency of the vibration coincides with the frequency of external excitation, resonance occurs, which leads to excessive deflection and failure. In such critical conditions, the material of the chassis plays a key role in damping the vibrations. Fibre-reinforced composites proved to crave high specific strength and good damping properties. The aim of the work is an experimental investigation of dynamic analysis of a sub-scaled model of a 4-ton truck composite chassis. In the present work, an attempt is made to develop E-glass/ Epoxy pultruded chassis frame. Keywords: Excitation, Fibre Reinforced, E glass/ Epoxy, Pultrusion method
4 吨卡式复合云梯亚比例物理模型的动态分析
复合材料是将不同材料组合在一起的材料,其目的是改善材料的性能或创造出具有所需性能的材料。先进的纤维增强聚合物复合材料已成为一类重要的承重工程材料,具有多种工程和社会应用的全面特性。汽车底盘是一个基本框架,传动、转向、悬挂、制动等主要系统都连接在底盘框架上,并由底盘框架支撑。当车辆在道路上行驶时,底盘会受到发动机和传动系统以及路面状况的激励。在这些激励作用下,底盘开始振动。如果振动的固有频率与外部激励的频率一致,就会产生共振,从而导致过度变形和故障。在这种危急情况下,底盘材料在抑制振动方面起着关键作用。事实证明,纤维增强复合材料具有较高的比强度和良好的阻尼特性。这项工作的目的是对 4 吨卡车复合底盘的次比例模型进行动态分析实验研究。本作品尝试开发 E 玻璃/环氧树脂拉挤底盘框架:激发、纤维增强、E 玻璃/环氧树脂、拉挤法
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