What question did this study set out to answer?

The study aims to present a unified framework that connects geometry, matter, and fundamental interactions without adjustable parameters.

May 27, 2026Open Access

TUM v0.8: Physical Foundations and Experimental Bases

Puntos clave

The study aims to present a unified framework that connects geometry, matter, and fundamental interactions without adjustable parameters.
Developed a geometric-algebraic structure based on the reduction of Cl(10) to Cl(8)
Defined the Metric Coherence Parameter Ξ₁₀ to describe the coupling of geometry and matter
Derived resonance conditions and thermodynamic consistency from the established model.
All fundamental properties are derived from the symmetries and algebraic closure of the space without external inputs.
The model successfully unifies descriptions of quantum, gravitational, and cosmological behaviors.
Measurement criteria and implications for future research are established as part of the new framework.

Resumen

TUM is a self-contained geometric-algebraic framework based on the reduction of Cl(10) to Cl(8). All fundamental properties — including the gauge group structure, fermion content, mass spectrum, and interaction laws — follow directly from the algebraic closure and symmetries of the underlying space, without any external inputs or adjustable parameters. This document establishes the physical foundations, defines the Metric Coherence Parameter Ξ₁₀ as the key quantity governing the coupling between geometry and matter, and presents the resonance conditions, thermodynamic consistency, and measurement criteria derived from the model. The framework unifies the description of quantum scales, gravitational interactions, and cosmological behavior through a single mathematical structure.

Leer artículo completoexternamente

Preguntar a la IA

Me gusta

Guardar

Ver artículo completo