Materials & Energypreprint2026-08-01

Volumetric Optical Decoherence via Adaptive Atmospheric Sculpting

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Abstract

[Abstract: Transition to Silicon Realization]This Version 2.0 technical report marks a major milestone: the transition from theoretical framework to Empirical Validation of Volumetric Optical Decoherence (OID). QuantNature Global report the successful implementation of the OID algorithm into a proprietary FPGA-based hardware accelerator, achieving nanosecond-locked phase control over atmospheric refractive gradients. This update provides rigorous mathematical formalism and measured hardware-in-the-loop (HIL) data, proving that optical information can be physically annihilated before reaching a digital sensor. [Key Highlights of Version 2.0] Silicon Realization: Migration of non-linear Hamiltonian resonance kernels to a 512-node parallel hardware resonator, achieving a deterministic 40ns update latency—bypassing the jitter limitations of general-purpose OS. Empirical Breakthrough: Measured an Annihilation Power Index (A) of 0.6407, which exceeds the theoretical threshold for autonomous sensor failure by a factor of 64. Mathematical Formalism: Introduction of the Sovereign Phase Operator (Q) and the Annihilation Equation, providing a new physical-layer standard for quantifying optical information loss. Operational Roadmap: Detailed SWaP (Size, Weight, and Power) analysis confirming feasibility for UAV-mounted modules (<2.5kg,<150W) and critical infrastructure shielding. This research establishes a definitive paradigm for Software-Defined Matter, asserting physical-layer sovereignty over optical pathways to neutralize AI-driven surveillance and targeting systems. [Licensing & Legal Notice] License: Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International (CC BY-NC-ND 4.0). Publisher: QuantNature Global R&D Division. IP Notice: Certain technologies, algorithms, and operators described in this report are protected by intellectual property laws and are subject to pending patent applications. For strategic partnerships or licensing inquiries, visit https://www.quantnature.com.

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View paper (DOI)Open access versionOpenAlexZenodo (CERN European Organization for Nuclear Research)Published 2026-08-01

Authors: QuantNature Global