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On the finiteness of accessibility test for nonlinear discrete-time systems

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arxiv 1905.10154 v2 pith:TCDZV4UJ submitted 2019-05-24 cs.SY cs.SYmath.OC

classification cs.SYmath.OC
keywords accessibilitysystemsystemsaccessiblefinitealgorithmsdiscrete-timeinput
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abstract

It is shown that for two large subclasses of discrete-time nonlinear systems - analytic systems defined on a compact state space and rational systems - the minimum length $r^*$ for input sequences, called here accessibility index of the system, can be found, such that from any point $x$, system is accessible iff it is accessible for input sequences of length $r^*$. Algorithms are presented to compute $r^*$, as well as an upper bound for it, which can be computed easier, and hence provide finite tests for determination of accessibility. The algorithms also show how to construct the set of points from which the system is not accessible in any finite number of steps. Finally, some relations between generic accessibility of the system and accessibility of individual points in finite steps are given.

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  1. Finite determination of accessibility and geometric structure of singular points for nonlinear systems

    math.OC 2019-08 conditional novelty 7.0 of 10

    For polynomial (and immersible analytic) control systems, the set of accessibility singular points is algebraic, and the paper provides algorithms to compute it and the exact accessibility index.

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