IPR Details
Nathan M Allen's General License Statement
Note: Updates to IPR disclosures must only be made by authorized representatives of the original submitters. Updates will automatically be forwarded to the current Patent Holder's Contact and to the Submitter of the original IPR disclosure.
I. Patent Holder/Applicant ("Patent Holder")
| Holder legal name | Nathan M Allen |
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II. Patent Holder's Contact for License Application
| Holder contact name | Nathan M Allen |
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| Holder contact email | Nathan@interferencedr.com |
| Holder contact info |
808-313-2473 |
III. Disclosure of Patent Information
i.e., patents or patent applications required to be disclosed by RFC 8179
A. For granted patents or published pending patent applications, please provide the following information:
| Patent, Serial, Publication, Registration, or Application/File number(s) |
Number: US64/031448 |
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B. Does this disclosure relate to an unpublished pending patent application?:
| Has patent pending | Yes |
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IV. Statement
| Statement |
Licensing: I am disclosing this in fulfillment of a duty to inform the global network apparatus of this logic-based mitigation for quantum-scale temporal hijacking. All licensing is subject to the "Mandatory Technical Advisory and Reservation of Rights" included in the provisional filing. |
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V. Contact Information of Submitter of this Form
| Submitter name | Nathan M Allen |
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| Submitter email | Nathan@interferencedr.com |
VI. Other Notes
| Additional notes |
PROVISIONAL APPLICATION INVENTOR: Nathan M Allen PROVISIONAL APPLICATION FOR PATENT COVER SHEET I. FIELD OF THE INVENTION The present invention relates to Physical Layer Security (PLS) and Non-Von Neumann Computing Architecture. Specifically, it defines a method for Substrate Integrated Post-Quantum Cryptography (SI-PQC) that utilizes the physical propagation properties of a communication medium to execute deterministic cryptographic logic. II. BACKGROUND: THE "NEGATIVE CERTIFICATION" OF LEGACY HARDWARE Current Post-Quantum Cryptography (PQC) standards rely on algorithmic software layers that are fundamentally decoupled from the physical hardware substrate. This decoupling creates a Temporal Side-Channel Gap. Legacy hardware—including standard Co-Packaged Optics (CPO) and traditional PCB architectures—operates on probabilistic clock-and-data recovery (CDR). This creates a Negative Certification state where the software claims security while the physical layer remains vulnerable to quantum-scale temporal hijacking. III. SUMMARY OF THE INVENTION: THE DISCOVERY LOGIC The invention is a Deterministic Logic Machine integrated into the communication substrate. It replaces probabilistic digital sampling with a Wave Union interaction. The Core Discovery Logic: Substrate-Anchored Timing: The invention establishes the physical lattice and dielectric properties of the substrate as the absolute temporal reference, rather than an external electronic clock. Pulse-Phase Vernier Carry: Logic is executed by the interaction of multiple pulse-phases. This "Vernier Scale" effect in the temporal domain allows the system to validate signal integrity with sub-picosecond resolution. Wave Union Interference Deletion: The invention utilizes the principle of superposition to physically nullify signals that do not match the substrate-anchored timing. Non-coherent signals are ignored via zli interface or truncated. IV. HARDWARE TYPE INTEGRATIONS The SI-PQC Logic is designed for heterogeneous integration across the following hardware types: Refractory Bedding Types: high density high dissipation materials (Scandium Tungsten, vitrimer) to stabilize the Wave Union against thermal drift. Liquid-Phase Interface Types: Environments utilizing high-mobility elements (e.g., Gallium) to enhance Direct-Point Sensitivity for pulse detection. Field-Effect Integration Types: Substrates incorporating 2D materials (e.g., Graphene) to translate substrate-anchored phase changes into high-speed logic states. Stabilized Dielectric Types: Architectures utilizing self-healing or dynamic covalent networks (e.g., Vitrimers) to maintain the geometric precision required for the Interference Ring Deletion. Copyright Nathan M Allen |
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