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引用次数: 0
摘要
给出了广义系统补偿器设计的完整几何理论。关键的几何工具是(C;E,A;B)对。这个概念涉及到(A, E, B)不变子空间的概念。作者介绍了正则(C;E,A;B)对的使用,它保证了闭环的正则性和两个耦合条件,一个用于定义域,一个用于上域。它们显示了构成开环信息的(C;E,A;B)-对在描述动态补偿器影响下可能的闭环几何结构中的重要性。利用这些结果,提出了广义系统的一般补偿器综合原理。
A general compensator synthesis approach for generalized systems using (C;E,A;B)-pairs
A complete geometric theory is presented for the design of compensators in generalized systems. The key geometric tool is that of (C;E,A;B)-pairs. This concept involves the notion of (A, E, B)-invariant subspaces. The authors introduce the use of regular (C;E,A;B)-pairs that guarantees the closed-loop regularity and two coupling conditions, one for the domain and one for the codomain. They show the importance of (C;E,A;B)-pairs, which constitute open-loop information, in describing the possible closed-loop geometric structure under the influence of a dynamic compensator. A general compensator synthesis principle using these results for generalized systems is presented.<>