双同步迟滞控制原理

Y. Kolokolov, A. Monovskaya
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引用次数: 3

摘要

关于双同步迟滞控制(hds控制)的讨论是分支理论对调节器特性理解的显著影响的最具说明意义的例子之一。一方面,hds调节器提供了能量转换的效率、简单性和稳定性,但却牺牲了迟滞控制和脉冲控制两者优点的成功结合。另一方面,hds的运行状态不能完全从控制理论来解释。简单地说,任何系统在hds控制下都不可避免地表现出非线性动力学;而hds -运行状态则代表了四个同步面所引起的不同顺序的结构变化,以及相同频率(同步频率)的几个运行过程(所谓的基本过程)之间的各种变化。从分岔理论出发,出现了以下几个不平凡的问题:有多少基本过程?如何处理变化?也许,由于这些情况,hds -稳压器在2009年之后的工业应用中实际上被忽略了(在俄罗斯1984年莫斯科-圣彼得堡铁路线上使用的ER200高速铁路列车的控制系统中使用hds -稳压器25年后,没有发生过事故)。当重点从期望的操作性能转向潜在的非线性现象时,新的结果引发了对hds动力学非线性图像的重新关注。本文简要评述了hds控制的基础,并结合计算机模拟和实验测试对这些特点进行了讨论。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
To Fundamentals of the Hysteresis Control with Double Synchronization
Discussion on the hysteresis control with double synchronization (HDS-control) represents one of the most illustrative examples of striking influence of the bifurcation theory on the comprehension of regulator peculiarities. On the one hand, the HDS-regulator provides efficiency, simplicity and stability of energy conversion at the expense of the successful combination of advantages of both hysteresis control and pulse control. On the other hand, it turned out, that the HDS-operating regime can not be explained completely from the control theory only. Simplistically, any system under the HDS-control will inevitably demonstrate nonlinear dynamics; and HDS-operating regime represents various alternations between several operating processes (so-called elementary processes) with equal frequency (the synchronization frequency) and different orders of structural changes caused by four synchronizing surfaces. From the bifurcation theory, the following nontrivial points appear: how many elementary processes and how to treat alternations? Perhaps, due to these circumstances HDS-regulators are practically ignored in industrial applications after 2009 (after quarter-of-a-century accident-free usage of HDS-regulators in the control system of the high-speed railway train ER200 exploited on the railway line Moscow - St. Petersburg from year 1984, Russia). Revival interest in the HDS-dynamics nonlinear picture was initiated by the novel results when accents were shifted from the desired operating performance towards potential nonlinear phenomena. Here we comment briefly HDS-control basis and discuss these accents with attracting both computer simulations and experimental tests.
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