Probabilistic logic of quantum observations
A. Sernadas, J. Rasga, C. Sernadas, L. Alc\'acer, A. B. Henriques

TL;DR
This paper introduces a probabilistic logic framework for reasoning about quantum measurement outcomes, incorporating epistemic aspects of observable compatibility, with a formal axiomatization based on real closed fields.
Contribution
It presents a novel probabilistic propositional logic with an epistemic component for quantum observations, including a sound and weakly complete axiomatization.
Findings
Logic is a conservative extension of classical propositional logic.
Axiomatization relies on decidable first-order theory of real closed fields.
Framework effectively models quantum measurement reasoning.
Abstract
A probabilistic propositional logic, endowed with an epistemic component for asserting (non-)compatibility of diagonizable and bounded observables, is presented and illustrated for reasoning about the random results of projective measurements made on a given quantum state. Simultaneous measurements are assumed to imply that the underlying observables are compatible. A sound and weakly complete axiomatization is provided relying on the decidable first-order theory of real closed ordered fields. The proposed logic is proved to be a conservative extension of classical propositional logic.
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Taxonomy
TopicsLogic, Reasoning, and Knowledge · Advanced Algebra and Logic · Quantum Mechanics and Applications
