Volumetric Optical Decoherence via Adaptive Atmospheric Sculpting

Abstract

Volumetric Optical Decoherence via Adaptive Atmospheric Sculpting (VOD v3.0) establishes an advanced empirical validation and mathematical framework for software-defined wavefront steering, computational photon scattering, and non-destructive electro-optical sensor defense within an ambient atmospheric medium without physical solid lenses. Executive Summary & Physical Mechanism Traditional solid-state optical systems are constrained by physical rigidity, thermal distortion, and surface fouling. By exploiting the Gladstone-Dale relation (n − 1 = K · ρ), non-linear acoustic radiation pressure fields sculpt localized spatial density gradients (∇n) in ambient air. This transforms the atmosphere itself into a reconfigurable optical medium ("virtual air-lenses") capable of microsecond-scale wavefront reshaping and computational photon diversion. Multi-Scale Validation Architecture Macroscopic 3D Numerical Digital Twin (97,336 Nodes): Instantiates a 10 cm3 spatial continuum discretized into a 46 × 46 × 46 lattice with 2.1 mm resolution, integrating continuous Eikonal ray-tracing (d/ds [n (dr/ds)] = ∇n) across over 10,000 simultaneous light trajectories. Proprietary 512-Node FPGA Hardware Accelerator (HIL Engine): Non-linear kernels are executed directly within dedicated FPGA Programmable Logic (PL), achieving a deterministic execution latency of 40 ns per node update (< 100 ns total loop latency). Physical Oscilloscope Telemetry & Modulation Capture: Direct digital storage oscilloscope probing of physical FPGA output driver lines validates clean 3.3V LVCMOS switching (Vp-p = 3.49 V) with dynamic acoustic carrier frequency sweeping (35.12–55.36 kHz) and active duty-cycle chaos gating (58.82%–72.32%). Key Quantitative & Empirical Results Measured Decoherence Power Index: Hardware-in-the-Loop (HIL) register telemetry yields a measured A = 0.6407—exceeding the baseline digital sensor disruption threshold by a factor of 64. Mutual Information Collapse: Injected physical drives optical mutual information to zero (lim I(X; Y) → 0), neutralizing automated machine vision, AI convolutional targeting, and LiDAR sensors without laser emission. Hardware Feasibility & SWaP Profile: Electro-acoustic engineering confirms that a fully integrated 256-element AESA panel (20 cm × 20 cm × 5 cm, mass < 2.5 kg) operates below a sub-150W power budget, enabling direct integration onto UAVs, UGVs, and perimeter defense masts. Release Note (v3.0): Integrated physical digital storage oscilloscope telemetry validating real-time FPGA 3.3V LVCMOS dynamic carrier modulation (35.12–55.36 kHz) and non-linear duty-cycle control (58.82%–72.32%), refined Eikonal ray-tracing digital twin formulations, and updated Size, Weight, and Power (SWaP) engineering specifications. Document ID: QN-VOD-2026-V3 Publisher: QuantNature Global