Unified Field and the Law of Entropy Increase: Higgs Field as the Stable State of an Entropy Flow Compression Tensor Field and the Mass Mechanism

This paper proposes a novel theoretical framework—the Information Compression and Causal Flow (ICCF) model—that unifies gravitational, quantum, and thermodynamic phenomena through the geometric and informational structure of entropy flow. We reinterpret the Higgs field as the stable configuration of an entropy compression tensor field, providing a causal and physically grounded explanation for the origin of mass without relying on ad hoc scalar fields. Mass is shown to emerge from the structural stability of compressed entropy flow, where the flow dynamics yield time, curvature, and interaction simultaneously. The modified field equations incorporate a generalized conservation principle, establishing a compression tensor as the fundamental source of geometric deformation and gravitational-like effects. This model explains the emergence of time via Wick projection, describes entropy as the primary cosmic driver, and introduces the law of compression conservation as a bridge between energy, information, and causality. Predictions regarding topological mass quantization and experimental deviations from General Relativity are also outlined. By embedding thermodynamic irreversibility into field dynamics, ICCF offers a rigorous, mathematically consistent, and experimentally approachable pathway toward a unified theory of structure, interaction, and consciousness.

Publication Details

Journal
OSF Preprints (OSF Preprints)
Published
2025-01-01
DOI
https://doi.org/10.17605/osf.io/prkm8
Primary Topic
Statistical Mechanics and Entropy
Type
article
Field-Weighted Citation Impact
0.00
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article

Unified Field and the Law of Entropy Increase: Higgs Field as the Stable State of an Entropy Flow Compression Tensor Field and the Mass Mechanism

OSF Preprints (OSF Preprints)
Statistical Mechanics and Entropy
article

Unified Field and the Law of Entropy Increase: Higgs Field as the Stable State of an Entropy Flow Compression Tensor Field and the Mass Mechanism

article en

Abstract

This paper proposes a novel theoretical framework—the Information Compression and Causal Flow (ICCF) model—that unifies gravitational, quantum, and thermodynamic phenomena through the geometric and informational structure of entropy flow. We reinterpret the Higgs field as the stable configuration of an entropy compression tensor field, providing a causal and physically grounded explanation for the origin of mass without relying on ad hoc scalar fields. Mass is shown to emerge from the structural stability of compressed entropy flow, where the flow dynamics yield time, curvature, and interaction simultaneously. The modified field equations incorporate a generalized conservation principle, establishing a compression tensor as the fundamental source of geometric deformation and gravitational-like effects. This model explains the emergence of time via Wick projection, describes entropy as the primary cosmic driver, and introduces the law of compression conservation as a bridge between energy, information, and causality. Predictions regarding topological mass quantization and experimental deviations from General Relativity are also outlined. By embedding thermodynamic irreversibility into field dynamics, ICCF offers a rigorous, mathematically consistent, and experimentally approachable pathway toward a unified theory of structure, interaction, and consciousness.

OSF Preprints (OSF Preprints)
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Statistical Mechanics and Entropy
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