The Sovereign Zero-State Matrix: Topological Homotopy and the Eradication of Macroscopic Entropy Across Seven Physical Domains

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Authors: Douglas J Chapman
Cited by: 1
References: 1

Abstract

Traditional macro-scale phase transitions suffer from massive entropic loss via friction, heat, and sound scattering. This framework mathematically proves that discrete linear sequencing inherently traps systems within a fragile combinatorial bottleneck, strictly collapsing operational viability to a single chronological point of failure. By discarding discrete state transitions in favor of continuous topological homotopy (continuous curvature), this framework establishes a unified zero-state matrix, defining the absolute mathematical ceiling—a new Carnot-equivalent limit—for topological efficiency. By mathematically equating parasitic boundary resistances to exactly zero, 100% of kinetic energy survives transmission across seven fundamental physical domains to perform targeted work. This establishes a universal, lossless, macroscopically reversible thermodynamic and mechanical cycle entirely decoupled from physical geometry, serving as the foundational physics protocol for continuous-curvature biotechnology and macroscopic fluid logistics. Please, download PDF to mitigate any coding issues on OSF. Direct Inquiries To: Douglas J. Chapman Principal & Architect, The Sovereign Grant Foundation thesovereigngrantfoundation@gmail.com

Fields of Study & Subjects

Advanced Thermodynamics and Statistical Mechanics Control and Stability of Dynamical Systems Topological and Geometric Data Analysis

Publication details

Publication date
30 July 2026
Document type
Preprint