Finite path integrals on stochastic branched structures

Fuente: arXiv
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Autores principales: Dekhil, Roukaya, Ellgen, Clifford, Klajn, Bruno
Formato: Preprint
Publicado: 2026
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author Dekhil, Roukaya
Ellgen, Clifford
Klajn, Bruno
author_facet Dekhil, Roukaya
Ellgen, Clifford
Klajn, Bruno
contents In this paper, we present a statistical model of spacetime trajectories based on a finite collection of paths organized into a branched manifold. For each configuration of the branched manifold, we define a Shannon entropy. Given the variational nature of both the action in physics and the entropy in statistical mechanics, we explore the hypothesis that the classical action is proportional to this entropy. Under this assumption, we derive a Wick-rotated version of the path integral that remains finite and exhibits both quantum interference at the microscopic level and classical determinism at the macroscopic scale. In effect, this version of the path integral differs from the standard one because it assigns weights of non-uniform magnitude to different paths. The model suggests that wave function collapse can be interpreted as a consequence of entropy maximization. Although still idealized, this framework provides a possible route toward unifying quantum and classical descriptions within a common finite-entropy structure.
format Preprint
id arxiv_https___arxiv_org_abs_2603_14136
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Finite path integrals on stochastic branched structures
Dekhil, Roukaya
Ellgen, Clifford
Klajn, Bruno
Quantum Physics
High Energy Physics - Theory
Mathematical Physics
In this paper, we present a statistical model of spacetime trajectories based on a finite collection of paths organized into a branched manifold. For each configuration of the branched manifold, we define a Shannon entropy. Given the variational nature of both the action in physics and the entropy in statistical mechanics, we explore the hypothesis that the classical action is proportional to this entropy. Under this assumption, we derive a Wick-rotated version of the path integral that remains finite and exhibits both quantum interference at the microscopic level and classical determinism at the macroscopic scale. In effect, this version of the path integral differs from the standard one because it assigns weights of non-uniform magnitude to different paths. The model suggests that wave function collapse can be interpreted as a consequence of entropy maximization. Although still idealized, this framework provides a possible route toward unifying quantum and classical descriptions within a common finite-entropy structure.
title Finite path integrals on stochastic branched structures
topic Quantum Physics
High Energy Physics - Theory
Mathematical Physics
url https://arxiv.org/abs/2603.14136