Space Phase-Locking Theory (SPLT) Part II.5: Mass-Lifetime Duality of the Hadron Spectrum and Geometric Decay Deduction
- 1Independent Researcher
Abstract
As Part II.5 of the Space Phase-Locking Theory (SPLT) series, this study algebraically demonstrates across the entire hadron spectrum that the mass and radioactive decay lifetime of a particle are not mutually independent physical properties, but constitute a mass-lifetime duality stemming from a single projective-geometric causality. Whereas the mainstream Standard Model separates particle mass and lifetime to rely on Higgs parameters or weak-interaction decay constants, the present framework proves that the static structural tension (geometric friction, Gamma) generated when a tensor skeleton locks onto the 3-dimensional projection medium manifests mass while simultaneously converting these friction nodes dynamically into rupture perturbation nodes that dismantle the skeleton. This paper elucidates the mechanism by which the base rendering clock of the projection medium strictly drops into the 3-dimensional volumetric resistance (T_3 ≈ 10^-8 s) and 2-dimensional areal resistance (T_2 ≈ 10^-13 s) bands depending on the dimensional composition of the particle's anchors. Based on this, the present framework completely deduces without arbitrary parameters—solely through geometric fractional ratios—the extreme lifetime separation of neutral kaons (K_S, K_L) produced by the limits of 1-dimensional and 2-dimensional phase interference, the rupture node splitting (129 vs. 238) of charged sigmas (Sigma^±) due to charge repulsion imbalance, and the mass-lifetime trajectory of Xi_cc^++ undergoing extreme 4-dimensional tesseract projection. Furthermore, by reducing strong-interaction and electromagnetic resonance phenomena decaying within an ultra-short duration of 10^-20 ~ 10^-24 s to the projection rejection ratio (4/pi) induced by parallel tension and the mechanics of breaching the critical density defense barrier (1612) of 0-dimensional singularities, it is conclusively confirmed that the decay mechanics of elementary particles are governed by the pure spatial-algebraic laws of the cosmic base medium.
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BibTeX
@misc{jung2026space,
title = {{Space Phase-Locking Theory (SPLT) Part II.5: Mass-Lifetime Duality of the Hadron Spectrum and Geometric Decay Deduction}},
author = {Kiman Jung},
howpublished = {Zenodo (CERN European Organization for Nuclear Research)},
year = {2026},
month = oct,
doi = {10.5281/zenodo.23496707},
url = {https://doi.org/10.5281/zenodo.23496707},
note = {CC BY},
}
RIS
TY - UNPB
TI - Space Phase-Locking Theory (SPLT) Part II.5: Mass-Lifetime Duality of the Hadron Spectrum and Geometric Decay Deduction
AU - Kiman Jung
PY - 2026
DA - 2026/10/20
PB - Zenodo (CERN European Organization for Nuclear Research)
DO - 10.5281/zenodo.23496707
UR - https://doi.org/10.5281/zenodo.23496707
AB - As Part II.5 of the Space Phase-Locking Theory (SPLT) series, this study algebraically demonstrates across the entire hadron spectrum that the mass and radioactive decay lifetime of a particle are not mutually independent physical properties, but constitute a mass-lifetime duality stemming from a single projective-geometric causality. Whereas the mainstream Standard Model separates particle mass and lifetime to rely on Higgs parameters or weak-interaction decay constants, the present framework proves that the static structural tension (geometric friction, Gamma) generated when a tensor skeleton locks onto the 3-dimensional projection medium manifests mass while simultaneously converting these friction nodes dynamically into rupture perturbation nodes that dismantle the skeleton. This paper elucidates the mechanism by which the base rendering clock of the projection medium strictly drops into the 3-dimensional volumetric resistance (T_3 ≈ 10^-8 s) and 2-dimensional areal resistance (T_2 ≈ 10^-13 s) bands depending on the dimensional composition of the particle's anchors. Based on this, the present framework completely deduces without arbitrary parameters—solely through geometric fractional ratios—the extreme lifetime separation of neutral kaons (K_S, K_L) produced by the limits of 1-dimensional and 2-dimensional phase interference, the rupture node splitting (129 vs. 238) of charged sigmas (Sigma^±) due to charge repulsion imbalance, and the mass-lifetime trajectory of Xi_cc^++ undergoing extreme 4-dimensional tesseract projection. Furthermore, by reducing strong-interaction and electromagnetic resonance phenomena decaying within an ultra-short duration of 10^-20 ~ 10^-24 s to the projection rejection ratio (4/pi) induced by parallel tension and the mechanics of breaching the critical density defense barrier (1612) of 0-dimensional singularities, it is conclusively confirmed that the decay mechanics of elementary particles are governed by the pure spatial-algebraic laws of the cosmic base medium.
ER -