Inter-Universal Teichmüller Theory Comes Home

This paper gives a paraconsistent formulation of Inter-Universal Teichmüller Theory in which the nonclassical carrier is part of the construction itself rather than a semantic reinterpretation imposed after a Boolean calculation. The native state space is $\\mathcal X=\\mathcal P(\\{T,F,t,f\\})$, equipped with a non-explosive consequence relation; Belnap--Dunn FOUR and the Boolean pair $\\{F,T\\}$ occur only as successive restrictions of this larger carrier. Within this setting, the $\\Theta$-link is represented as transport across locally incompatible arithmetic structures without identifying them, while decomposition, branchwise transformation, recombination, filtration, and invariant retention are expressed by ordinary maps on $\\mathcal X$ and enriched spaces over it. The formulation yields three central results. First, contradiction and indeterminacy remain local states of the calculation rather than triggers for global collapse. Second, graph-theoretic reconnection is distinct from classical agreement: the bounded-discrepancy execution can reconnect while terminating in the non-Boolean state $Ftf=\\{F,t,f\\}$. Third, filtration position is mathematical data, not dispensable notation. Suppressing the index that carries the $j^2$ weights produces a tensor-blind scalar comparison and can render the resulting inequality vacuous. Mochizuki's rejection of the Scholze-Stix commuting-loop surrogate is therefore sharpened here as a locality and information-retention statement: incompatible local data need not be identified or eliminated in order for the global construction to remain well formed. Classicalization appears only at the terminal readout, as a lossy projection of a richer paraconsistent computation.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-21
DOI
https://doi.org/10.5281/zenodo.22876499
Primary Topic
Homotopy and Cohomology in Algebraic Topology
Type
preprint
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preprint

Inter-Universal Teichmüller Theory Comes Home

Christopher Mills
Zenodo (CERN European Organization for Nuclear Research)
Homotopy and Cohomology in Algebraic Topology
preprint

Inter-Universal Teichmüller Theory Comes Home

Christopher Mills
preprint en

Abstract

This paper gives a paraconsistent formulation of Inter-Universal Teichmüller Theory in which the nonclassical carrier is part of the construction itself rather than a semantic reinterpretation imposed after a Boolean calculation. The native state space is $\mathcal X=\mathcal P(\{T,F,t,f\})$, equipped with a non-explosive consequence relation; Belnap--Dunn FOUR and the Boolean pair $\{F,T\}$ occur only as successive restrictions of this larger carrier. Within this setting, the $\Theta$-link is represented as transport across locally incompatible arithmetic structures without identifying them, while decomposition, branchwise transformation, recombination, filtration, and invariant retention are expressed by ordinary maps on $\mathcal X$ and enriched spaces over it. The formulation yields three central results. First, contradiction and indeterminacy remain local states of the calculation rather than triggers for global collapse. Second, graph-theoretic reconnection is distinct from classical agreement: the bounded-discrepancy execution can reconnect while terminating in the non-Boolean state $Ftf=\{F,t,f\}$. Third, filtration position is mathematical data, not dispensable notation. Suppressing the index that carries the $j^2$ weights produces a tensor-blind scalar comparison and can render the resulting inequality vacuous. Mochizuki's rejection of the Scholze-Stix commuting-loop surrogate is therefore sharpened here as a locality and information-retention statement: incompatible local data need not be identified or eliminated in order for the global construction to remain well formed. Classicalization appears only at the terminal readout, as a lossy projection of a richer paraconsistent computation.

Zenodo (CERN European Organization for Nuclear Research)
Homotopy and Cohomology in Algebraic Topology
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