Solar energy paper index

Effective Intrinsic Ergodicity for renewal-type potentials on S-gap shifts

2026-06-15 · arXiv: 2606.17031

One-line summary

A solar energy research paper on Effective Intrinsic Ergodicity for renewal-type potentials on S-gap shifts.

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Chinese explanation / 中文解读

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Original abstract

We establish effective intrinsic ergodicity for renewal-type potentials on one-sided \(S\)-gap shifts. Inducing on the one-symbol cylinder \([1]\) reduces the system to a full shift over the alphabet \(S\), where the induced potential becomes a one-symbol potential and the equilibrium measure is Bernoulli. The associated renewal equation has a unique solution \(P\), and under the condition \(P>φ(0^\infty)\) (automatic when \(S\) is infinite), we show that \(P\) is the topological pressure and that the potential admits a unique equilibrium state \(μ_φ\). Our main result is an effective intrinsic ergodicity estimate: invariant measures whose free energy is within \(Δ\) of the pressure are \(O(\sqrtΔ)\)-close to \(μ_φ\) when tested against Hölder observables. As an application, every finite-word cylinder of positive \(μ_φ\)-measure yields a uniform pressure gap for the set of orbits avoiding that cylinder, leading in the entropy case to strict entropy and Hausdorff-dimension gaps.

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4.0Business relevance

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