Chiral Symmetry Coupling: The Ontological Foundation of Spectral Reality

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Authors: Ennio Zunino
Cited by: 0

Abstract

This work formalizes the transition from a phenomenological description of mass to its ontological genesis within the Spectral Deconvolution Theory (TSD) framework. We postulate that the intrinsic limit of contemporary physics lies in having investigated exclusively the hemisymmetric (”right-handed”) component of reality. We introduce the concept of Chiral Torque and redefine the spectral superposition (ψ · ψ ∗ ) as the coherence operator of the interface between specular manifolds (CR, CL). This framework provides the mechanical basis for the geometric derivations previously established in the TSD. Description: This work constitutes the second pillar of the Spectral Deconvolution Theory (TSD). While the previous study ("Spectral Emergence of Fermionic Baryogenesis") established the geometric foundations and mass ratios of fundamental particles, this paper introduces an ontological breakthrough: Chiral Symmetry Coupling. The author proposes that spacetime is not a static vacuum but the dynamic interface between two specular chiral manifolds (CR , CL). Through the introduction of the concept of Chiral Torque (τχ), mass is redefined as the torsional friction required to maintain phase-locking between these two manifolds. The paper addresses and resolves some of the deepest gaps in contemporary physics: The Nature of Mass: Explained as spectral viscosity within a non-Hermitian Hamiltonian framework. The Neutrino Problem: Identified as a near-zero torsion singularity, providing a definitive falsification benchmark for the model against the Standard Model. Macro-Micro Unification: Extends the chiral coupling concept to the cosmological constant and black hole physics, interpreted as "short-circuits" of the interface.

Fields of Study & Subjects

Particle physics theoretical and experimental studies Relativity and Gravitational Theory Advanced Mathematical Theories and Applications

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
30 January 2026
Document type
Preprint