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PreprintCC BY-NC-ND 4.0Zenodo

Interaction Topologies of Celestial Radiative States

  1. 1Institute Lux Consilio

Abstract

This eighth paper in the Gaussian Physical States and Celestial Representation series establishes the successive interaction-dependent topologies required for continuous gravitational observables on a faithful physical celestial representation. Building on the physical Clebsch–Gordan transform of Paper VI and the cubic gravitational instability established in Paper VII, the analysis incorporates the complete finite-regulator cubic and fixed-action-leg quartic observables of the radiative Bose-pair sector.

The original retained celestial coefficient is densely defined, injective, unbounded, and closable, with a canonical closed realization on a proper dense source domain. On its exact retained image, the complete cubic and quartic interaction families generate the strict hierarchy

[

\tau_{\mathrm{ret}}\subsetneq\tau_3\subsetneq\tau_{3,4}.

]

The first strict inclusion follows from the gravitational cubic adjoint-range obstruction. The second establishes that a physical quartic Riesz vector lies outside the sum of the genuine partial-adjoint range and the span of the full admissible cubic family. Its proof combines annular logarithmic source regularity, one-sided physical cell-face traces, two-log Mellin reconstruction, finite-regulator support reduction, and a seven-row augmented minor of complete-action gravitational coefficients. The determinant is certified through exact rational estimates involving five physical polarization moments.

Further results distinguish compatible native null-face quartic refinements from occupied-to-null-face comparisons with persistent response defects. Finite-action cubic mesh and radius-child transport calculations provide additional tests of regulator compatibility.

Together, these results characterize the continuity requirements imposed by successive gravitational interaction orders on the retained celestial state space. They provide a mathematical basis for investigating compatible asymptotic domains, physical evolution, and regulator transport in subsequent celestial scattering constructions. The present analysis concerns physical Hilbert states and complete finite-regulator action observables; it does not assume or construct a continuum scattering operator, connected scattering amplitudes, or interacting celestial operator products.

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BibTeX
@misc{james2026interaction,
  title = {{Interaction Topologies of Celestial Radiative States}},
  author = {Zed James},
  howpublished = {Zenodo},
  year = {2026},
  month = oct,
  doi = {10.5281/zenodo.23651438},
  url = {https://zenodo.org/records/23651438},
  note = {CC BY-NC-ND 4.0},
}
RIS
TY  - UNPB
TI  - Interaction Topologies of Celestial Radiative States
AU  - Zed James
PY  - 2026
DA  - 2026/10/25
PB  - Zenodo
DO  - 10.5281/zenodo.23651438
UR  - https://zenodo.org/records/23651438
AB  - This eighth paper in the Gaussian Physical States and Celestial Representation series establishes the successive interaction-dependent topologies required for continuous gravitational observables on a faithful physical celestial representation. Building on the physical Clebsch–Gordan transform of Paper VI and the cubic gravitational instability established in Paper VII, the analysis incorporates the complete finite-regulator cubic and fixed-action-leg quartic observables of the radiative Bose-pair sector.  The original retained celestial coefficient is densely defined, injective, unbounded, and closable, with a canonical closed realization on a proper dense source domain. On its exact retained image, the complete cubic and quartic interaction families generate the strict hierarchy  [  \tau_{\mathrm{ret}}\subsetneq\tau_3\subsetneq\tau_{3,4}.  ]  The first strict inclusion follows from the gravitational cubic adjoint-range obstruction. The second establishes that a physical quartic Riesz vector lies outside the sum of the genuine partial-adjoint range and the span of the full admissible cubic family. Its proof combines annular logarithmic source regularity, one-sided physical cell-face traces, two-log Mellin reconstruction, finite-regulator support reduction, and a seven-row augmented minor of complete-action gravitational coefficients. The determinant is certified through exact rational estimates involving five physical polarization moments.  Further results distinguish compatible native null-face quartic refinements from occupied-to-null-face comparisons with persistent response defects. Finite-action cubic mesh and radius-child transport calculations provide additional tests of regulator compatibility.  Together, these results characterize the continuity requirements imposed by successive gravitational interaction orders on the retained celestial state space. They provide a mathematical basis for investigating compatible asymptotic domains, physical evolution, and regulator transport in subsequent celestial scattering constructions. The present analysis concerns physical Hilbert states and complete finite-regulator action observables; it does not assume or construct a continuum scattering operator, connected scattering amplitudes, or interacting celestial operator products.
ER  -