Semantic Possibility Conditions in Entropically Stabilized Systems

Semantic Possibility Conditions in Entropically Stabilized Systems explores the hypothesis that meaning—understood as structured, interpretable information—can only emerge in physical systems that meet specific thermodynamic constraints. The paper introduces the Semantic Window Hypothesis, which proposes that semantics arises within a bounded entropy range defined by both energetic input and information coherence. Drawing from thermodynamics, information theory, cognitive science, AI, planetary science, and systems theory, the work develops a cross-disciplinary framework linking entropy management to semantic viability. Case studies span biological networks, artificial intelligence systems, planetary environments, and civilizational structures. The paper argues that semantics is not abstract or disembodied, but thermodynamically gated—built upon the physical capacity to buffer entropy while sustaining interpretive feedback.

Publication Details

Journal
Open Science Framework
Published
2025-01-01
DOI
https://doi.org/10.17605/osf.io/w4tv6
Primary Topic
Sustainability and Ecological Systems Analysis
Type
article
Field-Weighted Citation Impact
0.00
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article

Semantic Possibility Conditions in Entropically Stabilized Systems

Open Science Framework
Sustainability and Ecological Systems Analysis
article

Semantic Possibility Conditions in Entropically Stabilized Systems

article en

Abstract

Semantic Possibility Conditions in Entropically Stabilized Systems explores the hypothesis that meaning—understood as structured, interpretable information—can only emerge in physical systems that meet specific thermodynamic constraints. The paper introduces the Semantic Window Hypothesis, which proposes that semantics arises within a bounded entropy range defined by both energetic input and information coherence. Drawing from thermodynamics, information theory, cognitive science, AI, planetary science, and systems theory, the work develops a cross-disciplinary framework linking entropy management to semantic viability. Case studies span biological networks, artificial intelligence systems, planetary environments, and civilizational structures. The paper argues that semantics is not abstract or disembodied, but thermodynamically gated—built upon the physical capacity to buffer entropy while sustaining interpretive feedback.

Open Science Framework
Openalex Percentile: Top 55%
Sustainability and Ecological Systems Analysis
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