气缸二维动态热回路网络模型

Manyi Guo, Shaoping Wang, Xingjian Wang, Di Wu, M. Tomovic
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引用次数: 0

摘要

众所周知,电液静压执行器(EHA)由于集成度高,散热条件差,具有升温快、明显的特点。针对这种情况,由于热阻具有变温特性,电机的热电路网络也有所不同。为此,本文在网络中引入了热滑动变阻器来修正模型。考虑到不同材料导热系数的温度变化规律,将无刷直流电机及其部件抽象为圆柱体作为研究基础。针对圆柱体,首先计算和讨论了其二维非定常热场的分布和变化规律,从而可以认识任意节点温度的时变特性;其次,应用上述结果建立了气缸的热滑动变阻器模型和二维动态热电路网络。最后给出了相应的仿真、相关结论和必要的讨论来解释新模型。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Two-dimension dynamic thermal circuit network model of cylinder
It's known that electro-hydrostatic actuators (EHA) are characterized by rapid and obvious temperature rise on account of high integration and poor conditions for heat dissipation. In view of this situation, thermal circuit network of motor in EHA differs because thermal resistances occupy temperature-varying properties. Hence, thermal slide rheostat has been introduced into network newly in this paper to modify models. As the research base, brushless direct current motor (BLDC) with its components is abstracted to cylinder considering time-varying properties due to temperature-varying laws of thermal conductivities of different materials. Aiming at the cylinder, firstly, distribution and variation rules of two-dimension unsteady thermal field of it are calculated and discussed, with which time-varying properties of arbitrary node temperature can be consequently acknowledged. Secondly, results above are applied to develop thermal slide rheostat model and two-dimension dynamic thermal circuit network of cylinder. At last, corresponding simulations, relevant conclusions and necessary discussions are available to explain the novel model.
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