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Rigorous enclosure of Lyapunov exponents of stochastic flows

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arxiv 2411.07064 v3 pith:YQA5J6JT submitted 2024-11-11 math.DS cs.NAmath.NAmath.PR

classification math.DScs.NAmath.NAmath.PR
keywords methodexponentslyapunovstochasticapproachboundsflowsrigorous
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We develop a powerful and general method to provide rigorous and accurate upper and lower bounds for Lyapunov exponents of stochastic flows. Our approach is based on computer-assisted tools, the adjoint method and established results on the ergodicity of diffusion processes. We do not require any structural assumptions on the stochastic system and work under mild hypoellipticity conditions and outside of perturbative regimes. Therefore, our method allows for the treatment of systems that were so far out of reach from existing mathematical tools. We demonstrate our method to exhibit the chaotic nature of four different systems. Finally, we show the robustness of our approach by combining it with continuation methods to produce bounds on Lyapunov exponents over large parameter regions.

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    Small multiplicative noise makes the positions of two traveling pulse solutions of a FitzHugh-Nagumo type SPDE converge in probability, modulo periodic shifts, on the intermediate time scale σ^{-2} ≪ t ≪ exp(σ^{-2}).

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