Friedrichs-Selected Schwarzschild Quantum Matter

Friedrichs-Selected Schwarzschild Quantum Matter develops the local matter theory of the same single real massless scalar field whose terminal operator and physical quantum dynamics were established in Papers 1 and 2 of this series. Starting from the original four-dimensional scalar action, the paper derives a shared real-scalar stress law, its Hilbert metric variation, its complex polarization, and the corresponding vacuum-relative quantum stress on the physical Schwarzschild Fock carrier. The physical-time theory is carried into local spacetime matter through the actual unitary clock. The resulting stress retains the complete normal and anomalous quadratic sectors generated by real-scalar Bogoliubov evolution. A dense dynamically transported regular class supports all-mode local stress, arbitrary conjugation-closed bank removal, and covariant conservation. The paper also preserves the independently constructed Friedrichs-continuum matter lane, where a dense regular finite-particle class admits presentation-independent, regulator-independent vacuum-relative stress and exact number-state scaling. Both constructions realize the same original-action real-scalar stress law while retaining their independently constructed quantum carriers. For spherically symmetric finite zero-mode states, the quantum source is coupled directly to the Schwarzschild Einstein tensor at first order, yielding an explicit machine-checked linear gravitational response. The analysis then compares this original-geometry quantum matter with the separately constructed nonlinear Einstein–real-scalar branch. Their full stresses agree at the common anchor with an explicitly derived normalization, while their global source laws separate through the geometry-dependent conservation structure. This identifies a precise mathematical boundary between original-geometry quantum matter and the changed-geometry quantum theory required for nonlinear continuation. All principal claims are formalized in Lean 4. The capstone theorem, Q12_realScalarQuantumMatter_owned_by_originalAction, packages original-action provenance, physical-clock stress covariance, Bogoliubov coherence, dense all-mode regularity, conservation, the independent continuum matter authority, spherical quantum sources, linear Einstein response, and the nonlinear source adjudication.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-17
DOI
https://doi.org/10.5281/zenodo.22819416
Primary Topic
Pulsars and Gravitational Waves Research
Type
preprint
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Friedrichs-Selected Schwarzschild Quantum Matter

Zed James
Zenodo (CERN European Organization for Nuclear Research)
Pulsars and Gravitational Waves Research
preprint

Friedrichs-Selected Schwarzschild Quantum Matter

Zed James
preprint en

Abstract

Friedrichs-Selected Schwarzschild Quantum Matter develops the local matter theory of the same single real massless scalar field whose terminal operator and physical quantum dynamics were established in Papers 1 and 2 of this series. Starting from the original four-dimensional scalar action, the paper derives a shared real-scalar stress law, its Hilbert metric variation, its complex polarization, and the corresponding vacuum-relative quantum stress on the physical Schwarzschild Fock carrier. The physical-time theory is carried into local spacetime matter through the actual unitary clock. The resulting stress retains the complete normal and anomalous quadratic sectors generated by real-scalar Bogoliubov evolution. A dense dynamically transported regular class supports all-mode local stress, arbitrary conjugation-closed bank removal, and covariant conservation. The paper also preserves the independently constructed Friedrichs-continuum matter lane, where a dense regular finite-particle class admits presentation-independent, regulator-independent vacuum-relative stress and exact number-state scaling. Both constructions realize the same original-action real-scalar stress law while retaining their independently constructed quantum carriers. For spherically symmetric finite zero-mode states, the quantum source is coupled directly to the Schwarzschild Einstein tensor at first order, yielding an explicit machine-checked linear gravitational response. The analysis then compares this original-geometry quantum matter with the separately constructed nonlinear Einstein–real-scalar branch. Their full stresses agree at the common anchor with an explicitly derived normalization, while their global source laws separate through the geometry-dependent conservation structure. This identifies a precise mathematical boundary between original-geometry quantum matter and the changed-geometry quantum theory required for nonlinear continuation. All principal claims are formalized in Lean 4. The capstone theorem, Q12_realScalarQuantumMatter_owned_by_originalAction, packages original-action provenance, physical-clock stress covariance, Bogoliubov coherence, dense all-mode regularity, conservation, the independent continuum matter authority, spherical quantum sources, linear Einstein response, and the nonlinear source adjudication.

Zenodo (CERN European Organization for Nuclear Research)
RIKEN Center for Biosystems Dynamics Research (JP)
Life in Land
Pulsars and Gravitational Waves Research
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