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Atoms and Dobrakov submeasures in effect algebras. (English) Zbl 1176.03046

Summary: The present paper deals with the study of the notion of Dobrakov submeasure \(m\) defined on an effect algebra \(L\) with values in \([0,\infty)\). We establish the equivalence of the following three properties for a Dobrakov submeasure \(m\) defined on a \(\sigma \)-complete effect algebra \(L\): (i) \(m\) is atomless, (ii) \(m\) has the Saks property, (iii) \(m\) has the Darboux property. We also study the concept of an atom of a function \(\mu\) defined on an effect algebra \(L\) with values in \([0,\infty)\), and finally we prove for a monotone, \(m\)-continuous and semicontinuous function \(\mu\) defined on a \(\sigma\)-complete effect algebra \(L\) that \(\mu\) is non-atomic if and only if \(\mu\) is atomless.

MSC:

03G12 Quantum logic
28C99 Set functions and measures on spaces with additional structure
81P10 Logical foundations of quantum mechanics; quantum logic (quantum-theoretic aspects)
Full Text: DOI

References:

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