磁流变作动器控制方案研究进展

Gabriel N. Mendes, J. Gołdasz
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引用次数: 1

摘要

磁流变(MR)致动器是已知的半主动器件。本质上,所述硬件包括一个阀,该阀是一个具有流道的螺线管。向螺线管线圈提供电流会在通道中产生磁场。结果,流体从近牛顿流体转变为伪固体。在本文中,我们表明可以通过探索磁链反馈控制系统而不是电流反馈控制系统来实现磁流变作动器动力学的显着改进。基于磁通的方法可以改善系统的响应时间和带宽,并将涡流的影响降至最低。因此,进行了数值模拟来验证原来的假设。获得的数据(来自联合仿真)证明了所提出的方法提供了良好的结果,尽管在构建真正的原型之前需要进一步研究进一步优化控制器的增益。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Advances in the Control Schemes for MR Actuators
Magnetorheological (MR) actuators are known semi-active devices. In the essence, the hardware incorporates a valve being a solenoid with a flow channel. Supplying the current to the solenoid’s coil induces the magnetic field in the channel. As a results, the fluid transitions from a near-Newtonian one to a pseudo-solid. In the paper we show that significant improvements in the MR actuator dynamics can be achieved by exploring flux feedback control systems rather than current feedback ones. The flux-based approach would improve the system’s response time and its bandwidth as well as minimize the contribution of the eddy currents. Thus, numerical simulations have been carried out to test the original hypothesis. The obtained data (from co-simulations) prove that the proposed approach delivers good results although further research is required on further optimizing the controller’s gains and prior to building a real prototype.
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