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Copy file name to clipboardExpand all lines: content/set-theory/spine/recursion.tex
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The empty function is trivially an $\emptyset$-approximation.
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If $g$ is a $\gamma$-approximation, then $g \cup
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\{\tuple{\ordsucc{\gamma}, \tau(g)}\}$ is a $\ordsucc{\gamma}$-approximation.
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\{\tuple{\gamma, \tau(g)}\}$ is a $\ordsucc{\gamma}$-approximation.
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If $\gamma$ is a limit ordinal and $g_\delta$ is a $\delta$-approximation for all $\delta < \gamma$, let $g = \bigcup_{\delta\in\gamma} g_\delta$. This
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is a function, since our various $g_\delta$s agree on all values. And
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Now, to vindicate \olref[valpha]{defValphas}, just take $A
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= \emptyset$ and $\tau(x) = \Pow{x}$ and $\theta(x) = \bigcup x$. At long last, this vindicates the definition of the $V_\alpha$s!{}
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