通过优化齿轮接触片减少后轴啸叫

Atul A Gaikwad, Shriniwas D Chivate, Dr. Nagesh H Walke
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摘要

驾驶室内的啸叫声在各类车辆中都是一种非常恼人的现象。本研究考虑的后轮驱动(RWD)乘用车的驾驶室内噪音包括车轴啸叫噪音。这种啸叫声在大油门(WOT)和滑行时的多种速度下都能听到。为解决啸叫声问题,我们进行了一系列测量,以确定啸叫声的来源和传递路径。噪声测量结果表明,后桥小齿轮啮合顺序是造成驾驶室内啸叫的原因。通过测量证实,啸叫是由结构引起的。后车桥基于阶次的运行偏移形状显示,在受影响的速度区域,差速器鼻部振动过大。由此得知,啸叫是由于后桥的小齿轮和冠轮接触不良造成的。工作范围内的三个共振放大了这种啮合顺序,从而导致啸叫。因此决定从噪声源,即齿轮而非传递路径入手。通过齿接触分析(TCA)优化了准双曲面齿轮的设计。对齿轮制造的研磨和热处理过程进行了修改。在齿轮测试机上确定了优化齿轮的接触模式。发现接触模式有明显改善。对优化后的准双曲面齿轮进行了驾驶室内噪音测量,结果发现啸叫已完全消除。关键词后轴、减少啸叫、齿轮接触、齿面优化、后轮驱动、啸叫源、传递路径上的振动、噪声产生、准双曲面齿轮、热处理
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Rear Axle Whine Reduction by Gear Contact Patch Optimization
In-cab whine is a highly annoying phenomena in all the category of vehicles. The in-cab noise of passenger vehicle with Rear Wheel Drive ( RWD) considered for this study consist of axle whine noise. The whine noise is heard at multiple speeds during Wide Open Throttle (WOT) as well as coasting. To resolve the issue of whine noise, series of measurement are carried out to identify the source and transfer path of the whine. The noise measurement revealed that rear axle pinion mesh order is responsible for in-cab whine. It is confirmed through measurement that the whine is structure borne. The order based operational deflections shapes of rear axle show excessive vibration on differential nose in affected speed zones. It is thus learnt that whine is due to poor contact pattern of pinion and crown wheel of the rear axle. The three resonances in operation range amplify this mesh order resulting in whine. It is decided to work on noise source i.e. gear rather than transfer path. The hypoid gear design is optimized through Tooth Contact Analysis (TCA). The lapping and heat treatment processes of gear manufacturing are modified. The contact pattern of optimized gear is identified on gear tester machine. Significant improvement is observed in contact pattern. The in-cab noise measurement is carried out with optimized hypoid gear and it is found that the whine is completely eliminated. Keywords: Rear axle, Whine reduction, Gear contact, Patch optimization, Rear Wheel Drive, Whine Source, Vibration on Transfer Paths, Noise Generation, Hypoid Gear, Heat Treatment
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