Linear response for random and sequential intermittent maps

Abstract This work establishes a quenched (trajectory‐wise) linear response formula for random intermittent dynamical systems, consisting of Liverani–Saussol–Vaienti maps with varying parameters. This result complements recent annealed (averaged) results in the independent and identically distributed setting. As an intermediate step, we show existence, uniqueness and statistical stability of the random absolutely continuous invariant probability measure for such nonuniformly expanding systems. Furthermore, we investigate sequential intermittent dynamical systems of this type and establish a linear response formula. Our arguments rely on the cone technique introduced by Baladi and Todd and further developed by Leppänen. We also demonstrate that sequential systems exhibit a subtle distinction from both random and autonomous settings: they may possess infinitely many sequential absolutely continuous equivariant densities. However, only one of these corresponds to an SRB state in the sense of Ruelle.

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Publication Details

Journal
Journal of the London Mathematical Society
Published
2025-04-01
DOI
https://doi.org/10.1112/jlms.70150
Citations
3
Primary Topic
Mathematical Dynamics and Fractals
Type
article
Field-Weighted Citation Impact
11.08

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article

Linear response for random and sequential intermittent maps

Davor Dragičević, Julien Sedro, Cecilia González‐Tokman
3 citations
Journal of the London Mathematical Society
Mathematical Dynamics and Fractals
11.08
article

Linear response for random and sequential intermittent maps

Davor Dragičević, Julien Sedro, Cecilia González‐Tokman
article en
3 citations

Abstract

Abstract This work establishes a quenched (trajectory‐wise) linear response formula for random intermittent dynamical systems, consisting of Liverani–Saussol–Vaienti maps with varying parameters. This result complements recent annealed (averaged) results in the independent and identically distributed setting. As an intermediate step, we show existence, uniqueness and statistical stability of the random absolutely continuous invariant probability measure for such nonuniformly expanding systems. Furthermore, we investigate sequential intermittent dynamical systems of this type and establish a linear response formula. Our arguments rely on the cone technique introduced by Baladi and Todd and further developed by Leppänen. We also demonstrate that sequential systems exhibit a subtle distinction from both random and autonomous settings: they may possess infinitely many sequential absolutely continuous equivariant densities. However, only one of these corresponds to an SRB state in the sense of Ruelle.

Journal of the London Mathematical SocietyVol. 111(4)
University of Rijeka (HR), The University of Queensland (AU)
Australian Research Council
Openalex Percentile: Top 2%
Mathematical Dynamics and Fractals
11.08
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Linear response for random and sequential intermittent maps — Davor Dragičević, Julien Sedro, et al. · Journal of the London Mathematical Society (2025) | TGRS Research Map | TGRS