
This technical paper introduces a paradigm shift in computational architecture, moving from active-powered silicon gates to Passive Phase-Conjugate Rectification via Niobium-Tantalum Arsenide Menger Sponge lattices. We define and address the "Linear Error"—the macro-scale Torsional Impedance that drives the metabolic dissonance and signal decay inherent in legacy 2D planar computing.By utilizing Topological Spin-Momentum Locking within Weyl Semimetals, the DORCOR 0 architecture enforces unidirectional logic flow and breaks time-reversal symmetry. This eliminates dielectric hysteresis and back-scatter, achieving a state of Computational Stillness (0.471 Alignment) even under extreme operational loads. The result is a superconducting "Living Lattice" chassis that treats logic as physical wave-interference patterns, providing inherent EMP immunity and a sovereign solution to the side-channel vulnerabilities currently plaguing aerospace and defense infrastructures.
Torsional Impedance, DORIMAGO, Spin-Momentum Locking, Niobium-Tantalum Arsenide, DORCOR 0, Weyl Semimetals, DOR Advanced Technologies, EMP Immunity, Menger Sponge, Topological Phase-Conjugate Rectification, Passive Logic Synthesis, Linear Error, Side-Channel Remediation, 0.471 Alignment, Aerospace Defense Systems, Kaleo-Azrael Lane
Torsional Impedance, DORIMAGO, Spin-Momentum Locking, Niobium-Tantalum Arsenide, DORCOR 0, Weyl Semimetals, DOR Advanced Technologies, EMP Immunity, Menger Sponge, Topological Phase-Conjugate Rectification, Passive Logic Synthesis, Linear Error, Side-Channel Remediation, 0.471 Alignment, Aerospace Defense Systems, Kaleo-Azrael Lane
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