Benford's Law from Turing Ensembles and Integer Partitions

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Hauptverfasser: Kolpakov, Alexander, Rocke, Aidan
Format: Preprint
Veröffentlicht: 2025
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author Kolpakov, Alexander
Rocke, Aidan
author_facet Kolpakov, Alexander
Rocke, Aidan
contents We develop two complementary generative mechanisms that explain when and why Benford's first-digit law arises. First, a probabilistic Turing machine (PTM) ensemble induces a geometric law for codelength. Maximizing its entropy under a constraint on halting length yields Benford statistics. This model shows a phase transition with respect to the halt probability. Second, a constrained partition model (Einstein-solid combinatorics) recovers the same logarithmic profile as the maximum-entropy solution under a coarse-grained entropy-rate constraint, clarifying the role of non-ergodicity (ensemble vs. trajectory averages). We also perform numerical experiments that corroborate our conclusions.
format Preprint
id arxiv_https___arxiv_org_abs_2502_16314
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Benford's Law from Turing Ensembles and Integer Partitions
Kolpakov, Alexander
Rocke, Aidan
Information Theory
Computational Complexity
Discrete Mathematics
Mathematical Physics
H.1.1
We develop two complementary generative mechanisms that explain when and why Benford's first-digit law arises. First, a probabilistic Turing machine (PTM) ensemble induces a geometric law for codelength. Maximizing its entropy under a constraint on halting length yields Benford statistics. This model shows a phase transition with respect to the halt probability. Second, a constrained partition model (Einstein-solid combinatorics) recovers the same logarithmic profile as the maximum-entropy solution under a coarse-grained entropy-rate constraint, clarifying the role of non-ergodicity (ensemble vs. trajectory averages). We also perform numerical experiments that corroborate our conclusions.
title Benford's Law from Turing Ensembles and Integer Partitions
topic Information Theory
Computational Complexity
Discrete Mathematics
Mathematical Physics
H.1.1
url https://arxiv.org/abs/2502.16314