Solution to the Yang–Mills Mass Gap Problem Based on SEP in TRR–NOTIME Framework

This document presents a formal, self-consistent solution to the Yang–Mills Mass Gap problem based on the TRR–NOTIME framework, where time is eliminated as a fundamental physical quantity. Instead of temporal evolution, the framework introduces a layered structure of spatial projections defined by directional energy potential (SEP). Axioms and postulates are clearly formulated to replace the standard time-dependent Hilbert space with a timeless but layered directional space, retaining all key features necessary for a Yang–Mills-type gauge theory: symmetry, nonlinearity, confinement, and structure-preserving projections. The mass gap Δ>0 is proven formally as a direct consequence of the omnidirectional, non-zero vacuum field , whose projection onto any directional layer is strictly positive. This projection yields a bounded below spectrum of interaction amplitudes, establishing the existence of a spectral gap without introducing time, geometry, or additional fields. The document includes a section mapping TRR–NOTIME structures to Yang–Mills concepts, a philosophical commentary on the origin of interaction, and a formal spectral analysis consistent with the Clay Mathematics Institute’s criteria (with the exception of peer-reviewed publication, addressed via this open repository). An appendix is provided: TRR–NOTIME Interpretation of Riemann Zeros and the Universe Without Dark Energy, which extends the theoretical implications of the SEP framework toward cosmology and number theory, offering a structural reinterpretation of observational anomalies without hypothetical constructs.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-06-18
DOI
https://doi.org/10.5281/zenodo.15690167
Primary Topic
Visual perception and processing mechanisms
Type
article
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article

Solution to the Yang–Mills Mass Gap Problem Based on SEP in TRR–NOTIME Framework

Zenodo (CERN European Organization for Nuclear Research)
Visual perception and processing mechanisms
article

Solution to the Yang–Mills Mass Gap Problem Based on SEP in TRR–NOTIME Framework

article en

Abstract

This document presents a formal, self-consistent solution to the Yang–Mills Mass Gap problem based on the TRR–NOTIME framework, where time is eliminated as a fundamental physical quantity. Instead of temporal evolution, the framework introduces a layered structure of spatial projections defined by directional energy potential (SEP). Axioms and postulates are clearly formulated to replace the standard time-dependent Hilbert space with a timeless but layered directional space, retaining all key features necessary for a Yang–Mills-type gauge theory: symmetry, nonlinearity, confinement, and structure-preserving projections. The mass gap Δ>0 is proven formally as a direct consequence of the omnidirectional, non-zero vacuum field , whose projection onto any directional layer is strictly positive. This projection yields a bounded below spectrum of interaction amplitudes, establishing the existence of a spectral gap without introducing time, geometry, or additional fields. The document includes a section mapping TRR–NOTIME structures to Yang–Mills concepts, a philosophical commentary on the origin of interaction, and a formal spectral analysis consistent with the Clay Mathematics Institute’s criteria (with the exception of peer-reviewed publication, addressed via this open repository). An appendix is provided: TRR–NOTIME Interpretation of Riemann Zeros and the Universe Without Dark Energy, which extends the theoretical implications of the SEP framework toward cosmology and number theory, offering a structural reinterpretation of observational anomalies without hypothetical constructs.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 51%
Visual perception and processing mechanisms
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