The Infinitesimal Structure of Quantum Information
arXiv:2607.12559
The paper develops a geometric framework that embeds quantum state spaces into truncated dual number algebras, representing states as scheme‑theoretic points and turning the nonlinear Liouville‑von Neumann dynamics into linear algebraic flows.
Abstract
This paper establishes a rigorous, unified geometric framework for quantum state spaces by constructing smooth, regular embeddings into higher-order dual number algebras , wherein every quantum state is faithfully represented as a non-reduced scheme-theoretic point. We show that under this unified family of truncated rings, the non-linear matrix commutators governing the Liouville-von Neumann dynamics map globally onto flat, linear, and rigid algebraic flows, establishing nilpotent dual algebras as a pristine geometric landscape for higher-dimensional quantum kinematics. As , this family converges to a Cauchy-complete power series ring , where non-Archimedean completion linearizes the phase space, aligning the Fubini-Study geometry with the classical Fisher-Rao manifold.
Placed the persistent scalar trace background 1/N which defines the exact baricentro of the configuration space representing the maximally mixed state across all dimensions N