Electromechanical System Motion Control in Direct and Inverse Time

Roman Voliansky, Nina Volianska, N. Krasnoshapka, Oleksii Statsenko, O. Sadovoi, Shramko Iurii
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引用次数: 2

Abstract

The paper deals with the development of mathematical backgrounds to transform dynamical system into the generalized time domain. This transformation allows to change the trajectory of the dynamical system's motion and gives to dynamical system new properties and features. One of such features is the possibility to form motion trajectories with identical anterior and posterior fronts. This feature gives us the possibility to improve system performance and accuracy and we consider system motion in direct and inverse time to ensure it. We study different time domains and define transformation functions to perform the transition from the one time domain into another one. As a result of our studies, we define generalized transformation factor and patterns in its determining, which usage makes it possible to rewrite the differential equation of the considered dynamical system into desired time domain without applying any transformation routines and defining any transformation functions. The implementation of our approach brings us to consider variable structure dynamical system which has an identical start and stop trajectories.
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正逆时机电系统运动控制
本文讨论了将动力系统转换为广义时域的数学背景的发展。这种转换允许改变动力系统的运动轨迹,并赋予动力系统新的属性和特征。其中一个特点是可能形成运动轨迹与相同的前后锋面。这一特点使我们有可能提高系统的性能和精度,我们考虑系统运动在正逆时间,以确保它。我们研究了不同的时域,并定义了变换函数来实现从一个时域到另一个时域的转换。我们的研究结果是,我们定义了广义变换因子及其确定模式,它的使用使得在不应用任何变换例程和定义任何变换函数的情况下,将所考虑的动力系统的微分方程改写为所需的时域成为可能。该方法的实现使我们考虑具有相同起始和停止轨迹的变结构动力系统。
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