It occurred to me a little while ago, that there is a trichotomy in set theory that maps to the positive solutions to the problem of the regress of inferential reasons. Namely, well-founded sets map to foundationalism, looping sets to coherentism, and infinitely descending elementhood chains to infinitism. (The empty set maps to the empty ("skeptical") justification logic, J0.) What I gleaned from this conception was that, though it is possible to represent axioms of antifoundation, such axioms conflict with the purpose of axioms, which is to provide for well-founded justification. In other words, despite being logical possibilities, such principles are not otherwise justifiable (though, to be sure, nonwell-founded justification itself is possible, i.e. there are beliefs that can be coherentistically or infinitistically justified, including beliefs about nonwell-founded sets existing).
Now, I also have been assuming that the general-particular ordering is the original source of mathematical order. Let us refer to generality as "," and the ordering in question as the " → F" order. The principal thing seems to be that " → F" is transitive: if A is more general than B, and if B is more general than C, then A is more general than C. I have a file downloaded somewhere, of an incomplete copy of Zalta's(?) axiomatic metaphysics treatise, so I imagine reflections like this are present there, but otherwise I've never read of the transitivity of " → F."
My question is this: does such a picture of axiomatic justification, rule out overly specific axioms? For example, in the SEP article on the Continuum Hypothesis, Koellner goes over an axiom that is stated like so: "Axiom (∗): ADL(ℝ) holds and L(P(ω1)) is a ℙmax-generic extension of L(ℝ)." But modulo , this sounds way too particular to be sufficiently justified.
One might object that the question of generalized justification is not otherwise at issue in characterizing a higher set-theoretic axiom; but I think that the deep issue of justifying axioms does involve the generalization problem, anyway.