Quantum Coherence Spaces Revisited: A von Neumann (Co)Algebraic Approach
Abstract
We describe a categorical model of MALL (Multiplicative Additive Linear Logic) inspired by the Heisenberg-Schr\"odinger duality of finite-dimensional quantum theory. Proofs of formulas with positive logical polarity correspond to CPTP (completely positive trace-preserving) maps in our model, i.e. the quantum operations in the Schr\"odinger picture, whereas proofs of formulas with negative logical polarity correspond to CPU (completely positive unital) maps, i.e. the quantum operations in the Heisenberg picture. The mathematical development is based on noncommutative geometry and finite-dimensional von Neumann (co)algebras, which can be defined as special kinds of (co)monoid objects internal to the category of finite-dimensional operator spaces.
Keywords
Cite
@article{arxiv.2601.15832,
title = {Quantum Coherence Spaces Revisited: A von Neumann (Co)Algebraic Approach},
author = {Thea Li and Vladimir Zamdzhiev},
journal= {arXiv preprint arXiv:2601.15832},
year = {2026}
}
Comments
To appear in FoSSaCS'26