We have the following indirect implication of form equivalence classes:
Implication | Reference |
---|---|
430-p \(\Rightarrow\) 67 | clear |
67 \(\Rightarrow\) 144 |
Axioms of multiple choice, Levy, A. 1962, Fund. Math. |
144 \(\Rightarrow\) 415 |
Constructive order theory, Ern'e, M. 2001, Math. Logic Quart. |
Here are the links and statements of the form equivalence classes referenced above:
Howard-Rubin Number | Statement |
---|---|
430-p: | (Where \(p\) is a prime) \(AL21\)\((p)\): Every vector space over \(\mathbb Z_p\) has the property that for every subspace \(S\) of \(V\), there is a subspace \(S'\) of \(V\) such that \(S \cap S' = \{ 0 \}\) and \(S \cup S'\) generates \(V\) in other words such that \(V = S \oplus S'\). Rubin, H./Rubin, J [1985], p.119, AL21. |
67: | \(MC(\infty,\infty)\) \((MC)\), The Axiom of Multiple Choice: For every set \(M\) of non-empty sets there is a function \(f\) such that \((\forall x\in M)(\emptyset\neq f(x)\subseteq x\) and \(f(x)\) is finite). |
144: | Every set is almost well orderable. |
415: | Every \(\cal W\)-compactly generated complete lattice is algebraic. \ac{Ern\'e} \cite{2000}. |
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