On ring-like structures of lattice-ordered numerical events
Dietmar Dorninger, Helmut L\"anger

TL;DR
This paper explores the structure of lattice-ordered algebras of numerical events in quantum mechanics, introducing ring-like structures to generalize Boolean ring correspondences and characterizing their properties.
Contribution
It defines ring-like structures of events (RLSEs), characterizes Boolean rings among them, and establishes their correspondence with lattice-ordered algebras of S-probabilities, extending classical algebraic relations.
Findings
RLSEs are characterized and their structure revealed.
Boolean rings are identified within RLSEs.
Two unique mappings relate RLSEs to lattice-ordered algebras of S-probabilities.
Abstract
Let S be a set of states of a physical system. The probabilities p(s) of the occurrence of an event when the system is in different states s of S define a function from S to [0,1] called a numerical event or, more accurately, an S-probability. Sets of S-probabilities ordered by the partial order of functions give rise to so called algebras of S-probabilities, in particular to the ones that are lattice-ordered. Among these there are the sigma-algebras known from probability theory and the Hilbert-space logics which are important in quantum-mechanics. Any algebra of S-probabilities can serve as a quantum-logic, and it is of special interest when this logic turns out to be a Boolean algebra because then the observed physical system will be classical. Boolean algebras are in one-to-one correspondence to Boolean rings, and the question arises to find an analogue correspondence for…
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