Recovering Quantum Field Structure in Pattern Field Theory
Year: 2026
Type: preprint
Abstract: Recovering Quantum Field Structure in Pattern Field Theory establishes the mathematical correspondence between the native relational architecture of Pattern Field Theory (PFT) and the field, phase, gauge, statistics and scattering structures of relativistic Quantum Field Theory (QFT). Building upon Quantum Gravity Fully Derived and accompanying Recovering General Relativity in Pattern Field Theory, this work extends PFT's foundations of Identity, Relation, Transport, Admissibility, Persistence and Continuation into the effective mathematical structures governing quantum interactions. The central result is the recovery of relativistic quantum field structure as the continuum calculus of persistent, admissible, action-weighted relational excitations. Fields and particles emerge downstream of native physical relations, providing a common causal foundation for the gravitational and quantum-field descriptions of nature. Principal contributions include: Quantum Action and Phase: Derives the complex phase representation from additive continuation action and continuous unitary representation, connecting admissible relational histories to the mathematical structure of quantum amplitudes. Amplitude Composition: Establishes the composition of unresolved admissible alternatives and their connection to the effective path-integral and propagation-kernel descriptions. Quantum Probability: Develops the conditional quadratic probability measure through Hilbert-space consistency and the Born measure, distinguishing amplitude propagation from physical outcome commitment. Persistent Excitations and Effective Fields: Establishes the transition from retained relational configurations to continuum field excitations, with effective fields representing persistent patterns of admissible continuation. Relational Gauge Structure: Derives the local U(1) phase connection from relational phase comparison, recovering the gauge-covariant mathematical structure used in quantum electrodynamics. Charge and Negotiator Fields: Connects PFT's duplex charge architecture, Phase Alignment Lock (PAL) and Equilibrion (EQUI) conditions to charged excitation fields and their effective interactions. Quantum Statistics: Recovers the effective mathematical structures associated with bosonic and fermionic exchange classes, canonical quantization and relativistic spin-statistics consistency. Interaction and Scattering: Develops interaction vertices, propagators and S-matrix observables through negotiated admissibility between interacting relational identities. A worked effective quantum electrodynamics example examines negotiator-negotiator scattering. Vacuum and Renormalization: Connects vacuum fluctuations, loop corrections and renormalization-group behaviour to the effective field description and its scale-dependent continuum parameters. Causal Structure: Relates microcausality and relativistic propagation to the native Transport ceiling and the corresponding effective causal structure. Verification and Derivation Integrity: Provides explicit mathematical dependencies, derivation classifications and observable test points for assessing the correspondence between PFT and established quantum field predictions. The paper separates the recovery of quantum field structure from specific remaining questions of physical closure. These include the complete Standard Model gauge structure, particle generations, numerical masses and coupling parameters, and the native physical commitment mechanism underlying exclusive measurement outcomes. An accompanying Derivation Ledger and Integration Ledger distinguish inherited PFT results, derived representations, effective continuum constructions and explicitly conditional physical interfaces. The significance of this work is the recovery of quantum field theory's mathematical architecture from the same native Transport and relational continuation framework used to describe gravitation. Quantum fields, gauge connections, particle statistics and scattering amplitudes become downstream expressions of admissible physical relations. Together with Recovering General Relativity in Pattern Field Theory, this paper establishes a common mathematical and causal foundation for examining the relationship between gravitational geometry and relativistic quantum field structure. James Johan Sebastian AllenPattern Field Theoryhttps://patternfieldtheory.com/https://zenodo.org/communities/pft
Author: Allen, James Johan Sebastian
Language: English
Subfield: Astronomy and Astrophysics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7225343883