接触式记录头滑块摩擦自激振动分析

K. Ono, Atsushi Suzuki
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引用次数: 2

摘要

本文对一种接触式磁头滑块的摩擦自激振动进行了理论分析,该滑块是未来高密度记录磁盘存储的磁头设计候选之一。为了了解接触滑块的基本失稳机理,将滑块-悬架系统建模为二自由度系统。该系统的失稳是由摩擦力引起的刚度矩阵的不对称性引起的。从法向和角向固有频率、摩擦系数、滑块质量中心位置、接触刚度和悬架刚度等方面分析了该系统的不稳定区域。通过对复数模态振型的说明,阐明了摩擦力的失稳机理。由该模型可知,当滑块质心位于滑块悬架扭转中心之前时,系统始终保持稳定。
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Analysis of Friction-Induced Self-Excited Vibration of Contact Recording Head Slider
This paper presents a theoretical analysis of the friction-induced self-excited vibration of a contact head slider that is one of the head design candidates for future high density recording disk storage. In order to understand the fundamental destabilizing mechanism of the contact slider, the slider-suspension system is modeled as a two-degree-of-freedom (DOF) system. The instability of this system is caused by the asymmetry of the stiffness matrix due to the friction force. The unstable region of this system is examined in terms of the normal and angular natural frequencies, frictional coefficient, slider mass center position and the contact and suspension stiffnesses. The destabilizing mechanism of friction force is made clear by illustrating the mode shape of the complex number. From this model, it is found that the system always becomes stable if the center of mass of the slider is located ahead of the torsional center of slider suspension.
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