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首页> 外文期刊>Wear: an International Journal on the Science and Technology of Friction, Lubrication and Wear >Application of thermodynamic principles in determining the degradation of tribo-components subjected to oscillating motion in boundary and mixed lubrication regimes
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Application of thermodynamic principles in determining the degradation of tribo-components subjected to oscillating motion in boundary and mixed lubrication regimes

机译:热力学原理在确定边界和混合润滑制度振荡运动的摩擦组分降解中的应用

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摘要

Recent studies reveal that the degradation-entropy generation (DEG) theorem based on thermodynamic principles can be satisfactorily employed to determine the degradation of a tribo-pair operating in dry uni- and bidirectional sliding as well as lubricated uni-directional sliding conditions. The theorem is based on the thermodynamic principles that consider degradation forces and correlates the entropy generation to wear through a parameter called degradation coefficient. This paper reports an investigation of the efficacy of extending the DEG theorem to lubricated oscillatory sliding conditions subjected to boundary and mixed-lubrication regimes. For this purpose, series of oscillatory sliding experiments are performed using a pin-on-disk test setup that cover a wide range of operating conditions. From the obtained experimental results, a new methodology to characterize the friction coefficient in oscillatory motion is presented and thereafter DEG theorem is applied to characterize the wear during the lubricated oscillatory sliding motion covering a wide range of oscillating angles and operating conditions.
机译:最近的研究表明,基于热力学原理的降解 - 熵产生(DEG)定理可以令人满意地用于确定在干燥的单向和双向滑动中操作的摩擦对的劣化以及润滑的单向滑动条件。定理基于考虑劣化力的热力学原理,并通过称为降级系数的参数来关联熵的佩戴。本文报告了对将涂抹曲线定理延伸到受边界和混合润滑制度的润滑振荡滑动条件的功效的研究。为此目的,使用覆盖各种操作条件的引脚盘测试设置,进行一系列振荡滑动实验。从所获得的实验结果,提出了一种表征振动运动中摩擦系数的新方法,然后施加DEG定理以表征润滑振荡滑动期间的磨损,覆盖宽范围的振荡角度和操作条件。

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