An EAS Scalar-Field Model of Electron-Positron-Class Creation from Two Photon-Like Reports

This paper is archived as a speculative research work. This paper asks whether Entanglement–Algebraic Spacetime (EAS) scalar fields can model the scalar-field side of electron-positron-class creation from two photon-like input reports. The result is not presented as a purely formal possibility. It is the theorem-level consolidation of finite scalar-field model searches and gate audits. Those models blocked null input, association-only creation, capacity-only creation, non-rank-3 boundaries, disconnected internal closure, sub-burden weak activation, and automatic return after decomposition. They also produced the corrected connected scaffold and support-identity witness used by the theorem. Each input must first pass the EAS photon-like report certifier: a three-point cyclic carrier, three exterior-associated points, exactly one record-defined path-facing exterior continuation, two non-path transverse supports, and residual-free nonzero primitive transverse loading. The model-certified contact problem is then whether two such reports complete a persistent reciprocal bounded-support pair. The modeled scaffold result is N_tot = N_core + N_ext = 18 + 6 = 24, where the eighteen-point reciprocal Russian-doll core is internally closed but not yet an in-field support, and the six exterior points provide the minimal rank-3-compatible connection to the surrounding scalar-field association network. The corrected slot-unfolded extractor further verifies that each created branch has the Russian-doll grammar: inner rank-3 triangle + six-slot outer shell, three radial spokes + three boundary-to-dressing contacts, with branch-core degree sequence [2,2,2,3,3,3,3,3,3]. Under the scalar-loaded support taxonomy, the persistent supports are read as bounded scalar-field supports with nonzero SOO-selected lifted signatures, active conjugate classifications SF_REF and SF_CONJ rather than SF_SILENT, and deferred charge-sector eligibility through Q_b. The corrected model certificate verifies typed support-grammar identity with the k=1 lepton-hierarchy motif record A^(1) + C^(1), with same-ledger. Thus, the theorem establishes creation of reciprocal, non-silent, Q_b-eligible k=1 finite-support reports: P_1 + P_2 -> (S_e, S_e-bar), where S_e maps to (R_e=1, Q_b(SF_REF)) and S_e-bar maps to (R_e=1, Q_b(SF_CONJ)). This is not a QED amplitude, cross-section calculation, measured electric-charge derivation, dimensional mass actualization, or detector-event model.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-18
DOI
https://doi.org/10.5281/zenodo.20752567
Primary Topic
Noncommutative and Quantum Gravity Theories
Type
preprint
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preprint

An EAS Scalar-Field Model of Electron-Positron-Class Creation from Two Photon-Like Reports

Michael E. Labhard
Zenodo (CERN European Organization for Nuclear Research)
Noncommutative and Quantum Gravity Theories
preprint

An EAS Scalar-Field Model of Electron-Positron-Class Creation from Two Photon-Like Reports

Michael E. Labhard
preprint en

Abstract

This paper is archived as a speculative research work. This paper asks whether Entanglement–Algebraic Spacetime (EAS) scalar fields can model the scalar-field side of electron-positron-class creation from two photon-like input reports. The result is not presented as a purely formal possibility. It is the theorem-level consolidation of finite scalar-field model searches and gate audits. Those models blocked null input, association-only creation, capacity-only creation, non-rank-3 boundaries, disconnected internal closure, sub-burden weak activation, and automatic return after decomposition. They also produced the corrected connected scaffold and support-identity witness used by the theorem. Each input must first pass the EAS photon-like report certifier: a three-point cyclic carrier, three exterior-associated points, exactly one record-defined path-facing exterior continuation, two non-path transverse supports, and residual-free nonzero primitive transverse loading. The model-certified contact problem is then whether two such reports complete a persistent reciprocal bounded-support pair. The modeled scaffold result is N_tot = N_core + N_ext = 18 + 6 = 24, where the eighteen-point reciprocal Russian-doll core is internally closed but not yet an in-field support, and the six exterior points provide the minimal rank-3-compatible connection to the surrounding scalar-field association network. The corrected slot-unfolded extractor further verifies that each created branch has the Russian-doll grammar: inner rank-3 triangle + six-slot outer shell, three radial spokes + three boundary-to-dressing contacts, with branch-core degree sequence [2,2,2,3,3,3,3,3,3]. Under the scalar-loaded support taxonomy, the persistent supports are read as bounded scalar-field supports with nonzero SOO-selected lifted signatures, active conjugate classifications SF_REF and SF_CONJ rather than SF_SILENT, and deferred charge-sector eligibility through Q_b. The corrected model certificate verifies typed support-grammar identity with the k=1 lepton-hierarchy motif record A^(1) + C^(1), with same-ledger. Thus, the theorem establishes creation of reciprocal, non-silent, Q_b-eligible k=1 finite-support reports: P_1 + P_2 -> (S_e, S_e-bar), where S_e maps to (R_e=1, Q_b(SF_REF)) and S_e-bar maps to (R_e=1, Q_b(SF_CONJ)). This is not a QED amplitude, cross-section calculation, measured electric-charge derivation, dimensional mass actualization, or detector-event model.

Zenodo (CERN European Organization for Nuclear Research)
Noncommutative and Quantum Gravity Theories
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