A specific technical architecture, mechanism, terminology, prediction, or construction is documented in a verifiable Reyes public record before the relevant external work.
Documented origin, public disclosure chronology, patent-family priority, and later technical overlap
Intellectual Property, Priority & Provenance Registry
This registry establishes the public provenance and priority record for technical architectures, mechanisms, terminology, scholarly claims, and filed intellectual-property families disclosed by Richard J. Reyes. For each listed contribution, it identifies the earliest verifiable public disclosure and, where applicable, the corresponding patent-family priority. Later publications or implementations exhibiting materially overlapping structures do not supersede these earlier Reyes disclosures as evidence of chronology or documented origin. Structural similarity alone does not establish copying, derivation, or infringement.
Canonical scholarly archive: rickyjreyes.github.io/publications/
Public patent portfolio: rickyjreyes.github.io/patents/
Audit rule
Priority, origin, influence, and patent scope are separate questions.
This registry records what can be established from dated public records without assuming copying or independence. A later external work can overlap an earlier Reyes disclosure while the pathway of influence remains unresolved. Patent-family chronology is recorded separately from patentability, validity, enforceability, claim scope, and infringement.
The earliest currently identified public record in this registry containing the listed Reyes contribution.
The earliest priority date reported for a filed application family. It records filing chronology, not claim scope or infringement.
A later external work exhibits the same or a closely corresponding mechanism or architecture.
Chronology and structural overlap do not alone determine derivation. Relevant evidence may include demonstrable access, distinctive terminology, uncommon mathematical constructions, matching parameters or figures, source-code similarity, citation trails, communications, or other provenance evidence.
Filed intellectual-property chronology
Patent-Family Priority Registry
These dates record the earliest priority date reported for each filed family and the later filing stage shown in the portfolio. They do not establish patentability, validity, enforceability, claim scope, or infringement.
| Family / docket | Earliest priority | Later filing | Public scope | Status |
|---|---|---|---|---|
| Persistent Wave MemoryREYES-MEM-2026-NP · Curvature-Feedback Persistent Wave Memory Device and Method of Operation | 2025-05-20 | U.S. nonprovisional filed 2026-05-18 | Persistent wave-state storage; spectral confinement; optical or acoustic readout; reset control; physical cells and arrays; software emulation. | Patent pending |
| Coherent Field GeneratorREYES-CPG-2026 · Coherent Particle Field Generator via Curvature-Locked Wave Confinement | 2025-05-21 | Updated U.S. provisional filed 2026-05-13 | Nonlinear wave media; structured excitation; curvature and torsion control; harmonic stabilization; closed-loop relocking; spectral or spatial readout. | Application filed |
| WaveLock and Drift DetectionREYES-WAVELOCK-2026-NP · Curvature-Regulated Wavefield Evolution, Protocol-Binding Commitments, and Drift Detection | 2025-06-18 | U.S. nonprovisional filed 2026-06-07 | Wavefield commitments; protocol binding; replay prevention; public verification; attestation; runtime drift detection. | Patent pending |
| Solid-State Frequency ReferenceREYES-FREQ-2025 · Solid-State Frequency Reference via Curvature-Locked Resonant Semiconductors | 2025-12-18 | U.S. provisional filed 2025-12-18 | Structured optical programming; persistent semiconductor resonance; harmonic signatures; frequency readout; external oscillator integration. | Application filed |
Patent chronology rule: family → earliest reported priority date → later filing stage → public non-enabling scope. For legal status or claim scope, consult the official application record.
Verified comparison layer
Later External Works Overlapping Earlier Reyes Disclosures
These six date-checked cases document later external publications whose mechanisms materially overlap specific earlier Reyes disclosures. Their inclusion establishes chronology and structural correspondence only; it does not determine influence or derivation.
| Case | Earlier WCT anchor | Later external work | Mechanism-level correspondence | Provenance status | Class |
|---|---|---|---|---|---|
| P2 | Phase-Flux Field (2025-09-08) + Effective Mass: Solenoidal Topology (2025-10-27) | Emergence of giant vortices under nonlinear rotation with attractive interactions in a toroidal condensatearXiv submitted 2026-07-22 | Toroidal confinement, nonlinear feedback/rotation, quantized circulation, excitation spectra, and multiply quantized-vortex stability. | REYES DISCLOSURE PRECEDESINFLUENCE UNRESOLVED | B |
| P3 | Self-Emergent Fourier Cymatics (2025-09-16) | Quasiparticle modes across soliton transition with density-dependent gauge field in optical latticesarXiv submitted 2026-07-31 | Field-dependent feedback drives localization into a soliton state together with a modified excitation gap and suppressed breathing response. | REYES DISCLOSURE PRECEDESINFLUENCE UNRESOLVED | B |
| P4 | Phase-Flux Field (2025-09-08) + Self-Emergent Fourier Cymatics (2025-09-16) | Time-domain Stokes mechanism of pair-correlated k-gap solitons in nonlinear photonic time-crystal slabsarXiv submitted 2026-07-08 | Finite-k amplification followed by nonlinear saturation/arrest and formation of stabilized localized soliton states. | REYES DISCLOSURE PRECEDESINFLUENCE UNRESOLVED | B |
| P5 | Self-Emergent Fourier Cymatics (2025-09-16) | Self-Organized Stabilization of Straight Dark Solitons in Stripe SupersolidsarXiv submitted 2026-06-24 | Self-generated structure intrinsically stabilizes a localized soliton branch and hardens its excitation spectrum. | REYES DISCLOSURE PRECEDESINFLUENCE UNRESOLVED | B |
| P6 | Self-Emergent Fourier Cymatics (2025-09-16) | Quantum Geometry in the Continuum: Solitons in Shallow LatticesarXiv submitted 2026-06-23 | Fourth-order dispersion/geometry enters directly into localization and soliton structure of a weakly interacting continuum system. | REYES DISCLOSURE PRECEDESINFLUENCE UNRESOLVED | B |
| P7 | Self-Emergent Fourier Cymatics (2025-09-16) | Perfect soliton crystals in Kerr optical cavities with pure-quartic dispersionOriginal manuscript 2026-04-22; published 2026-07-13 | Spatiotemporal chaos evolves into spontaneously ordered, persistent soliton-crystal states under high-order dispersion and nonlinearity. | REYES DISCLOSURE PRECEDESINFLUENCE UNRESOLVED | B |
Additional high-priority comparisons under review
The comparison is strongest at the architectural level where multiple mechanisms co-occur. These four cases are retained as audit candidates without numerical scores; they are not promoted until chronology and prior-art review are complete.
| External work | WCT comparison anchor | Why it remains high priority | Status |
|---|---|---|---|
| Persistent-current superpositions in toroidal BECs | WCT-PFF-001 + WCT-MASS-001 | Toroidal topology, persistent currents, winding-sector structure, and quantized circulation occur together. | Chronology / prior-art review |
| Synthetic Hall Torus with a spinor BEC | WCT-PFF-001 + WCT-MASS-001 | Toroidal topology appears together with synthetic gauge structure, Hall-like response, and topological states. | Chronology / prior-art review |
| Stable vortex clusters bifurcating from ring solitons | WCT-SPEC-001 + WCT-MASS-001 | Ring-localized states, vortex bifurcation, non-radial organization, and stability form a multi-mechanism comparison. | Chronology / prior-art review |
| Josephson-frequency splitting in a toroidal superfluid | WCT-PFF-001 + WCT-MASS-001 | Toroidal circulation and topology appear together with discrete frequency splitting and spectral structure. | Chronology / prior-art review |
Negative controls
Older prior art is part of the record.
The historical claim is not that WCT invented every ingredient. Important primitives substantially predate the WCT corpus and constrain what can legitimately be claimed as original.
Finite-wavenumber localization and related pattern-selection mechanisms predate WCT. WCT priority claims must concern narrower combinations, not Swift-Hohenberg localization itself.
Toroidal confinement, winding, and persistent circulation were studied well before 2025. The narrower WCT comparison concerns how topology is combined with curvature feedback, spectral selection, and mass/locking constructions.
Fourth-order-dispersion solitons were experimentally demonstrated before WCT. Later high-order-dispersion results are convergence/context unless the compared architecture contains additional distinctive WCT structure.
DOI-backed source layer
Claim-Level Scholarly Priority Registry
The table maps distinctive claims and architectures in the Richard J. Reyes research corpus to their earliest public archival records.
| Claim ID | Distinct contribution | Earliest public record | Date | DOI |
|---|---|---|---|---|
| WCT-CORE-001 | Wave Confinement Theory as a geometric framework in which mass, force, spectra, and effective spacetime geometry emerge from confined oscillatory fields. | The Geometry of Resonance | 2025-04-22 | 10.5281/zenodo.15644222 |
| WCT-CONST-001 | Derivation program for physical constants from resonance geometry and wave confinement. | Structure and Derivation of Physical Constants through Wave Confinement | 2025-04-26 | 10.5281/zenodo.15596159 |
| WCT-COMP-001 | Curvature-bounded wave-computation classes and model-relative separation of P_WCC and NP_WCC. | P vs NP in Curvature-Bounded Wave Computation | 2025-05-07 | 10.5281/zenodo.17743607 |
| WCT-EXP-001 | Report of long-lived optical or harmonic behavior in water cavities after excitation. | Observation of Long-Lived Photon Resonance Confinement in Water Cavities | 2025-05-17 | 10.5281/zenodo.17206381 |
| WCT-AI-001 | Resonance-Confinement Architecture as a physically bounded substrate for safe superintelligence. | Resonance-Confinement Architecture | 2025-06-11 | 10.5281/zenodo.17732661 |
| WCT-DIM-001 | Proposed hard upper bound of three stable spatial dimensions under WCT confinement assumptions. | Hard Upper Bound on Spatial Dimensionality in Wave Confinement Theory | 2025-08-13 | 10.5281/zenodo.17081283 |
| WCT-PFF-001 | Phase-Flux Field substrate with zero-wave invariance, finite-k Lyapunov band-pass, shell quantization, and D4-to-continuum construction. | Phase-Flux Field (PFF) | 2025-09-08 | 10.5281/zenodo.17578766 |
| WCT-SPEC-001 | Entropic eigenmode formation and finite-band Fourier support emerging from broadband or chaotic initial states. | Self-Emergent Fourier Cymatics | 2025-09-16 | 10.5281/zenodo.17732648 |
| WCT-MASS-001 | Effective mass arising from solenoidal or curved topology of confined vibrational energy. | Emergence of Effective Mass | 2025-10-27 | 10.5281/zenodo.17459463 |
| WCT-MASS-002 | Density-weighted loop-curvature locking relation for rest energy and inertial mass. | Rest Energy from Density-Weighted Loop Curvature | 2025-11-11 | 10.5281/zenodo.20533537 |
| WCT-NU-001 | Detector-facing analysis of whether WCT ghost-mode neutrino modulations could survive JUNO resolution and smearing. | JUNO Energy Resolution and Detectability of WCT Ghost-Mode Neutrinos | 2025-11-20 | 10.5281/zenodo.17715872 |
| WCT-COMP-002 | Discrete wave-constrained computation and classical Turing-equivalence analysis. | Discrete Wave-Constrained Computation and Classical Complexity | 2025-11-26 | 10.5281/zenodo.17732642 |
| WCT-COMP-003 | Argument that unrestricted classical P versus NP is physically incomplete when real computation is bounded by energy, geometry, and propagation. | The Classical P vs NP Problem Is Mathematically and Physically Ill-Posed | 2025-12-01 | 10.5281/zenodo.17783074 |
| WCT-CRYPTO-001 | WaveLock one-way function based on bounded nonlinear PDE evolution. | WaveLock | 2025-12-01 | 10.5281/zenodo.19122146 |
| WCT-PHOTO-001 | Prediction and protocol ledger for long-lived harmonic state induction in photodiodes. | Prediction & Protocol Ledger | 2025-12 | 10.5281/zenodo.17957713 |
| WCT-KOIDE-001 | Curvature-harmonic explanation of the charged-lepton Koide relation. | Wave Confinement Theory Predicts the Koide Mass Relation | 2025-12-10 | 10.5281/zenodo.17887562 |
| WCT-LEPTON-001 | Logarithmic curvature flow and filament localization as a proposed origin of the lepton mass spectrum. | Logarithmic Curvature Flow, Filament Localization, and the Geometric Origin of the Lepton Mass Spectrum | 2026-03-10 | 10.5281/zenodo.18936949 |
| WCT-FUSION-001 | Self-sustaining resonance-control architecture for tokamak operation. | Nuclear Fusion Tokamak with Self Sustaining Resonance | 2026-04-14 | 10.5281/zenodo.19578185 |
| WCT-LHCB-001 | Curvature-induced log-periodic deformation of the Wilson coefficient C9(q²). | A Curvature-Induced Log-Periodic Deformation of C9(q²) | 2026-04-23 | 10.5281/zenodo.19705254 |
| WCT-LHCB-002 | Log-spectral and Koide-like winding analysis of open-data B0 to K*0 mu+mu- candidate spectra. | Log-Spectral Structure and Koide-Like Winding Geometry | 2026-05-09 | 10.5281/zenodo.20164333 |
| WCT-AI-002 | Timestamped external validation audit of Recursive AI Drift predictions. | Recursive AI Drift: A 2025 Prediction Timeline External Validation Audit and Technical Note | 2026-05 | 10.5281/zenodo.20142976 |
| WCT-NIST-001 | Bin-stable log-periodic structure test in public NIST atomic line-density lists. | Bin-Stable Log-Periodic Structure in Public NIST Atomic Line List | 2026-05-28 | 10.5281/zenodo.20435463 |
Required scholarly attribution chain: Claim ID → Richard J. Reyes → exact paper title → original public release date → canonical Zenodo DOI.
Rights and attribution
Reservation of Rights
Publication of this registry documents chronology, provenance, attribution, and publicly disclosed intellectual-property positions. Nothing herein should be interpreted as a waiver, dedication to the public, implied license, abandonment of patent rights, limitation of inventorship positions, or consent to unattributed reuse. Patent rights, where applicable, are governed by the corresponding application or issued patent and applicable law.