Fundamental Quantum Theories and Physical Bounds in Adversarial Cryptanalysis: A Unified Framework
TL;DR
A unified framework integrating Bose-Einstein statistics, Schrödinger wave mechanics, Heisenberg uncertainty relations, Noether’s symmetry theorem, Jackson’s semiconductor physics, and Dirac’s quantum field formalism is presented to characterize, predict, and detect physical-layer attacks on quantum cryptographic systems.
Abstract
Quantum key distribution (QKD) and postquantum cryptographic systems rely on physical properties for security guarantees. However, the weaponization of quantum phenomena by adversaries necessitates a comprehensive theoretical framework grounding attack surfaces in fundamental physics. We present a unified framework integrating Bose-Einstein statistics, Schrödinger wave mechanics, Heisenberg uncertainty relations, Noether’s symmetry theorem, Jackson’s semiconductor physics, and Dirac’s quantum field formalism to characterize, predict, and detect physical-layer attacks on quantum cryptographic systems. This framework reveals that all attacks manifest as violations of fundamental symmetries, enabling comprehensive detection through conserved quantity monitoring. I demonstrate how material constraints defined by semiconductor physics bound the parameter space of exploits, while Noether’s theorem provides the mathematical foundation for complete attack attribution. The synthesis yields both theoretical attack bounds and practical detection methodologies, validated against documented quantum cryptanalyses including detector blinding, photon-number splitting, decoherence engineering, and spectral separation attacks.