We have the following indirect implication of form equivalence classes:
Implication | Reference |
---|---|
67 \(\Rightarrow\) 89 |
On cardinals and their successors, Jech, T. 1966a, Bull. Acad. Polon. Sci. S'er. Sci. Math. Astronom. Phys. |
89 \(\Rightarrow\) 90 | The Axiom of Choice, Jech, 1973b, page 133 |
90 \(\Rightarrow\) 91 | The Axiom of Choice, Jech, 1973b, page 133 |
91 \(\Rightarrow\) 79 | clear |
79 \(\Rightarrow\) 367 |
Eine Basis aller Zahlen und die unstetigen Losungen der Functionalgleichung: \(f(x+y) = f(x) + f(y)\), Hamel, G. 1905, Math. Ann. |
Here are the links and statements of the form equivalence classes referenced above:
Howard-Rubin Number | Statement |
---|---|
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). |
89: | Antichain Principle: Every partially ordered set has a maximal antichain. Jech [1973b], p 133. |
90: | \(LW\): Every linearly ordered set can be well ordered. Jech [1973b], p 133. |
91: | \(PW\): The power set of a well ordered set can be well ordered. |
79: | \({\Bbb R}\) can be well ordered. Hilbert [1900], p 263. |
367: | There is a Hamel basis for \(\Bbb R\) as a vector space over \(\Bbb Q\). |
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