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We know that a Heyting algebra satisfies the distributive law. I think this is simply an instance of distributivity in a CCC with coproducts.
Moreover, a complete lattice is a Heyting algebra if it satisfies the infinite distributive law.
I was wondering if this was an instance of some other abstract cateogory theoretic notion?
The first is the fact that left adjoints preserve colimits. You can think of the second as a poset version of the adjoint functor theorem: a monotone map that preserves all joins has a right adjoint.
Moreover, a complete lattice is a Heyting algebra if it satisfies the infinite distributive law.
A complete lattice in which finite meets distribute over arbitrary sups is also known as a [[frame]].
This isn't quite what you were asking, but there is a strong pull to saying that the notion [[Grothendieck topos]] categorifies the notion of frame or of its dual notion, [[locale]]. The sharpest expression of the analogy is probably Street's characterization. A frame is a poset such that its -enriched Yoneda embedding has a left exact (here, finite meet-preserving) left adjoint. Likewise, a Grothendieck topos is almost the same thing as a category such that its -enriched Yoneda embedding has a left exact (here, finite limit-preserving) left adjoint. To remove the "almost" you just need a mild size condition on the class of morphisms, working here under the assumption of one universe (i.e. a set vs. small set distinction), and assuming is locally small so that we can speak of its Yoneda embedding.
See also Giraud's characterization, which is closely related.