The Ontological Foundations of H3QM: Emergent Particle Hierarchy from Topological Vacuum Phonons

Modern theoretical physics suffers from the "Background Fallacy," assuming an absolute vacuum container in which particles interact. We present the Ontological Foundations of the Harmonic 3D Quantum Manifold (H3QM), proposing a relational space where tension precedes the vacuum ($\square^2 \Omega = -\kappa T_{\text{topo}}$). By introducing the Existential Stability Principle and 3D Kakeya Fourier Restriction (Hong Wang, 2026 Fields Medal), we deduce that long-term universal stability necessitates closed geometric curvature ($\oint \nabla P \cdot d\mathbf{l} = 2\pi n$), preventing linear dissipation. Combined with random tensor damping (Yu Deng, 2026 Fields Medal), this leads to a unified four-tier particle energy hierarchy based purely on geometry: (1) Chaotic Baseline (Phonons), acting as unknotted topological tension and thermal/gravitational background; (2) Derived Directional (Photons), arising from angular phase offsets; (3) Medium-Energy Stable (Electrons), formed by geometric knots in the phonon field; and (4) High-Energy Core (Protons/Neutrons), alongside pure vacuum topological knot states such as the glueball $X(2370)$ ($M_{\text{pred}} = 2375.00\text{ MeV}$, matching BESIII PRL 2024). Crucially, recent attosecond spectroscopic measurements of helium electron pair photoionization (Burgdörfer et al., PRL 2024) confirm that entanglement is not an instantaneous ($\Delta t=0$) jump, but a finite topological phase thread propagation process ($\Delta t = \Delta r/c \approx 233.5\text{ as}$, relative error $<0.64\%$). Multi-domain numerical benchmarks demonstrate that H3QM saturates the IEEE 754 float32 mantissa limit ($2^{-24} \approx 5.96 \times 10^{-7}$) at step 8, while achieving Exact 0 residual under simulated fixed-point integer sign-operator arithmetic---eliminating the qualitative boundary between fermions and bosons.(Note: The PDF files available for download include English, Traditional Chinese, and Simplified Chinese versions.)

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Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-14
DOI
https://doi.org/10.5281/zenodo.21939356
Primary Topic
Quantum, superfluid, helium dynamics
Type
preprint
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preprint

The Ontological Foundations of H3QM: Emergent Particle Hierarchy from Topological Vacuum Phonons

Chou Cosmo
Zenodo (CERN European Organization for Nuclear Research)
Quantum, superfluid, helium dynamics
preprint

The Ontological Foundations of H3QM: Emergent Particle Hierarchy from Topological Vacuum Phonons

Chou Cosmo
preprint en

Abstract

Modern theoretical physics suffers from the "Background Fallacy," assuming an absolute vacuum container in which particles interact. We present the Ontological Foundations of the Harmonic 3D Quantum Manifold (H3QM), proposing a relational space where tension precedes the vacuum ($\square^2 \Omega = -\kappa T_{\text{topo}}$). By introducing the Existential Stability Principle and 3D Kakeya Fourier Restriction (Hong Wang, 2026 Fields Medal), we deduce that long-term universal stability necessitates closed geometric curvature ($\oint \nabla P \cdot d\mathbf{l} = 2\pi n$), preventing linear dissipation. Combined with random tensor damping (Yu Deng, 2026 Fields Medal), this leads to a unified four-tier particle energy hierarchy based purely on geometry: (1) Chaotic Baseline (Phonons), acting as unknotted topological tension and thermal/gravitational background; (2) Derived Directional (Photons), arising from angular phase offsets; (3) Medium-Energy Stable (Electrons), formed by geometric knots in the phonon field; and (4) High-Energy Core (Protons/Neutrons), alongside pure vacuum topological knot states such as the glueball $X(2370)$ ($M_{\text{pred}} = 2375.00\text{ MeV}$, matching BESIII PRL 2024). Crucially, recent attosecond spectroscopic measurements of helium electron pair photoionization (Burgdörfer et al., PRL 2024) confirm that entanglement is not an instantaneous ($\Delta t=0$) jump, but a finite topological phase thread propagation process ($\Delta t = \Delta r/c \approx 233.5\text{ as}$, relative error $<0.64\%$). Multi-domain numerical benchmarks demonstrate that H3QM saturates the IEEE 754 float32 mantissa limit ($2^{-24} \approx 5.96 \times 10^{-7}$) at step 8, while achieving Exact 0 residual under simulated fixed-point integer sign-operator arithmetic---eliminating the qualitative boundary between fermions and bosons.(Note: The PDF files available for download include English, Traditional Chinese, and Simplified Chinese versions.)

Zenodo (CERN European Organization for Nuclear Research)
Housing Quality Network (United Kingdom) (GB)
Quantum, superfluid, helium dynamics
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