The independence of the axiom of choice from the Boolean prime ideal theorem
J. Halperin (1964)
Fundamenta Mathematicae
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J. Halperin (1964)
Fundamenta Mathematicae
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B. R. Salinas, F. Bombal (1973)
Collectanea Mathematica
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H. Keisler, Alfred Tarski (1964)
Fundamenta Mathematicae
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J. Łoś (1957)
Fundamenta Mathematicae
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Roman Sikorski (1949)
Colloquium Mathematicum
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Eric Schechter (2006)
Fundamenta Mathematicae
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The principle that "any product of cofinite topologies is compact" is equivalent (without appealing to the Axiom of Choice) to the Boolean Prime Ideal Theorem.
Miroslav Repický (2015)
Commentationes Mathematicae Universitatis Carolinae
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We present a proof of the Boolean Prime Ideal Theorem in a transitive model of ZF in which the Axiom of Choice does not hold. We omit the argument based on the full Halpern-Läuchli partition theorem and instead we reduce the proof to its elementary case.
J. van Benthem (1975)
Fundamenta Mathematicae
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Josef Tkadlec (1991)
Colloquium Mathematicae
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We fix a Boolean subalgebra B of an orthomodular poset P and study the mappings s:P → [0,1] which respect the ordering and the orthocomplementation in P and which are additive on B. We call such functions B-states on P. We first show that every P possesses "enough" two-valued B-states. This improves the main result in [13], where B is the centre of P. Moreover, it allows us to construct a closure-space representation of orthomodular lattices. We do this in the third section. This result...