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The stabilization of program motions of controlled nonlinear mechanical systems

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Abstract

We consider a controlled nonlinear mechanical system described by the Lagrange equations. We determine the control forcesQ 1 and the restrictions for the perturbationsQ 2 acting on the mechanical system which allow to guarantee the asymptotic stability of the program motion of the system. We solve the problem of stabilization by the direct Lyapunov's method and the method of limiting functions and systems. In this case we can use the Lyapunov's functions having nonpositive derivatives. The following examples are considered: stabilization of program motions of mathematical pendulum with moving point of suspension and stabilization of program motions of rigid body with fixed point.

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Correspondence to Sergey Bezglasnyi.

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Sergey Bezglasnyi graduated from Moscow Lomonosov State University (MSU) in 1993. He is a Soros postgraduate student (1996), Russian President's grant holder (1997, Institute of Mathematics in Seged, Hungry) and DAAD grant holder (2000, Fern-University in Hagen Germany). He received his PhD at MSU under the supervision of Prof. Alexander Andreev in 1998. From 1993 to 2000 he was a lecture at Ulyanovsk State University. His research interests focus on the control and stability of mechanical systems.

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Bezglasnyi, S. The stabilization of program motions of controlled nonlinear mechanical systems. JAMC 14, 251–266 (2004). https://doi.org/10.1007/BF02936112

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  • DOI: https://doi.org/10.1007/BF02936112

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