π Phase-Pi-Quantum-Prior Topological Superselection Z/6Z: Analytical Phase Derivation and Dissipative Stabilization for FTQC Cryptanalysis The analytic core of the Z/6Z topological superselection. The perfect geometric duality between the resonant channels (blue and red) demonstrates the Zero-Leakage adaptive strategy driven by the exact holonomic phase shift ΞΟ=Ο.* π― TL;DR β The Essentials π¬ Theoretical Breakthroughs π Analytical Phase Discovery: Proof that the optimal initialization phases (Ο1,Ο2) are not heuristic. Ο2=Ο emerges from the unit group isomorphism (Z/6Z)Γβ Z/2Z acting as a non-commutative Berry Holonomy. π Renormalization Group (RG) Origin: The thermodynamic phase Ο1βRfund/10 is strictly derived as an infrared fixed point of the Callan-Symanzik beta function, coupled to the Euler-Kronecker invariant. β‘ Polynomial Complexity: Exact state preparation via Matrix Product States (MPS) with constant topological bond dimension Οβ€6, avoiding the exponential O(2n) overhead of arbitrary distributions. π‘οΈ Parent Lindbladian it is the geometric penalty for trying to squeeze the continuous vacuum into a discrete binary register." This work establishes that arithmetic is not a random sequence, but a deterministic wave structure encoded in the Z/6Z topology. Recognizing this allows us to fundamentally rewrite the rules of quantum cryptanalysis and hardware initialization for the FTQC era. Last Update: May, 2026 | Status: Under Review at Journal of Physics A: Mathematical and Theoretical JPhysA-124899 | Built with βοΈ, π & π‘οΈ Lean 4
JosΓ© Ignacio Peinador Sala (Tue,) studied this question.