Abstract:Key words perturbations, skew product flows, spectra MSC (2000) 37H10, 34D08, 93B05 This paper presents an overview of topological, smooth, and control techniques for dynamical systems and their interrelations for the study of perturbed systems. We concentrate on spectral analysis via linearization of systems. Emphasis is placed on parameter dependent perturbed systems and on a comparison of the Markovian and the dynamical structure of systems with Markov diffusion perturbation process. A number of application… Show more
“…This theorem was first proved in [3], the version presented here follows the set-up of [4]. The Lyapunov exponent from Theorem 2.1 determines the stability behavior of the solutions of (1) in the following way: Corollary 2.2: Under the conditions of Theorem 2.1, the zero solution ϕ(t, 0, ξ t ) ≡ 0 of the stochastic linear systeṁ x(t) = A(ξ t )x(t) is almost surely exponentially stable if and only if λ < 0.…”
Section: A Lyapunov Exponents and Stability Of Stochastic Linear Sysmentioning
confidence: 90%
“…Theorem 2.1: Consider the linear system (1) with stochastic perturbation (2,4) under the assumptions (3,7). Then the system has a unique Lyapunov exponent…”
Section: A Lyapunov Exponents and Stability Of Stochastic Linear Sysmentioning
confidence: 99%
“…For background material on Lyapunov exponents of stochastic systems we refer the reader to [1], [4] and [14].…”
Section: A Lyapunov Exponents and Stability Of Stochastic Linear Sysmentioning
This paper studies linear systems under sustained random perturbations with the purpose of defining a stochastic stability reserve, i.e., of computing for a given size of the pertubation the values of the system parameters for which the system shows the best stability behavior. The stochastic perturbation model is given by a bounded Markov diffusion process. The Lyapunov exponent is used for computing the stability reserve. This paper presents a short description of four numerical methods for the computation of the Lyapunov exponent and the methodology is applied to linear oscillator in dimension 2 and to a one machine -infinite bus electric power system.
“…This theorem was first proved in [3], the version presented here follows the set-up of [4]. The Lyapunov exponent from Theorem 2.1 determines the stability behavior of the solutions of (1) in the following way: Corollary 2.2: Under the conditions of Theorem 2.1, the zero solution ϕ(t, 0, ξ t ) ≡ 0 of the stochastic linear systeṁ x(t) = A(ξ t )x(t) is almost surely exponentially stable if and only if λ < 0.…”
Section: A Lyapunov Exponents and Stability Of Stochastic Linear Sysmentioning
confidence: 90%
“…Theorem 2.1: Consider the linear system (1) with stochastic perturbation (2,4) under the assumptions (3,7). Then the system has a unique Lyapunov exponent…”
Section: A Lyapunov Exponents and Stability Of Stochastic Linear Sysmentioning
confidence: 99%
“…For background material on Lyapunov exponents of stochastic systems we refer the reader to [1], [4] and [14].…”
Section: A Lyapunov Exponents and Stability Of Stochastic Linear Sysmentioning
This paper studies linear systems under sustained random perturbations with the purpose of defining a stochastic stability reserve, i.e., of computing for a given size of the pertubation the values of the system parameters for which the system shows the best stability behavior. The stochastic perturbation model is given by a bounded Markov diffusion process. The Lyapunov exponent is used for computing the stability reserve. This paper presents a short description of four numerical methods for the computation of the Lyapunov exponent and the methodology is applied to linear oscillator in dimension 2 and to a one machine -infinite bus electric power system.
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