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Thermal and Entropic Flows

Author: Mark Anthony Higgins
© Mark Anthony Higgins 11 October 2025
Revised Date: 21st Febuary 2026
Audio Overview

Introduction

Thermodynamics is often introduced as the study of heat, energy transfer, and entropy. Yet beneath its familiar laws lies a deeper structural question:

What is heat, when viewed as a coherence process rather than a statistical abstraction?

Within the Holographic Space-Time (HST) framework, thermal behaviour is not merely the motion of particles nor the counting of microstates. It is the redistribution of boundary coherence across interacting systems.

This category examines temperature, entropy, and thermodynamic evolution as expressions of coherence gradient flow.

Here, we reinterpret:

  • Heat as boundary energy transfer across coherence differentials
  • Entropy as structural dispersion of boundary information
  • Irreversibility as asymmetry in recursive coherence reconstruction
  • Equilibrium as stable gradient minimisation
  • Phase transitions as coherence regime shifts
  • The arrow of time as directional entropy curvature

Rather than treating entropy as disorder alone, HST frames it as measurable boundary dispersion — a quantifiable change in coherence geometry.

Thermal systems become visible not as chaotic aggregates, but as dynamic fields seeking stable constraint balance.

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These chapters connect microscopic fluctuation to macroscopic law, showing that the same coherence principles governing particles and fields also govern temperature, radiation, black-body spectra, and large-scale thermodynamic evolution.

In this category, thermodynamics is elevated from statistical description to structural geometry.

Heat is no longer merely energy in motion.

It is coherence in transition.

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