Abstract
This paper develops a structural analysis of proofs in ZFC that distinguishes
between their inferential identity and their ordinal modes of justification across
models of set theory. While forcing extensions preserve the validity of proofs, they
disperse the ordinal grounds on which those proofs can be justified.
I introduce the notion of a proof skeleton, isolating the inferential core of a
proof from its semantic parameters, and prove that this skeleton is invariant under
forcing. I t…
Read moreAbstract
This paper develops a structural analysis of proofs in ZFC that distinguishes
between their inferential identity and their ordinal modes of justification across
models of set theory. While forcing extensions preserve the validity of proofs, they
disperse the ordinal grounds on which those proofs can be justified.
I introduce the notion of a proof skeleton, isolating the inferential core of a
proof from its semantic parameters, and prove that this skeleton is invariant under
forcing. I then define the ordinal support spectrum of a proof and measure its
dispersion via an entropic invariant. My main technical result establishes an upper
bound on this entropy in terms of the proof-theoretic complexity of the proof itself.
These results show that the set-theoretic multiverse is neither chaotic nor ar
bitrary: dispersion is real but controlled. The multiverse supports a form of dis
tributed rationality in which proofs retain their identity while acquiring a modal
profile that cannot be expressed within low-entropy universes such as L.