Finite Bipartite Graphs as Induced Subgraphs of Subfactor Principal Graphs

Every finite bipartite simple graph occurs as a vertex-induced unrooted subgraph of the principal graph of an irreducible finite-depth inclusion of hyperfinite type II1 factors. For part sizes m and n, an explicit neighborhood-multiplicity parameter q gives index q3^n, with q at most m+1, and depth at most four. The selected vertices have depths two and three. The complete depth ranks and adjacency spectrum are computed. A separate amplification realizes every finite bipartite multigraph as an ordinary subgraph, with edge deletion allowed. Scope: complete theorem for finite unrooted simple subgraphs across variable indices, not closure of the full AIM polymer programme, fixed-index rooted extension, infinite subgraphs or induced multigraph universality. The finite-group subfactor construction and representation-theoretic ingredients are classical. Historical novelty confidence is low, possibly folklore; no absolute priority is claimed. AI-assisted, self-audited, unrefereed preprint. No independent peer review or formal verification is claimed. Author: Alper Ferudun, Mercury Software GmbH. Corpus identifier: AIM-OTHER-0060, UnsolvedMath v1.6.0. Paper page: https://eulersolve.org/papers/aim-other-0060/

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-30
DOI
https://doi.org/10.5281/zenodo.23048180
Primary Topic
Advanced Graph Theory Research
Type
preprint
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preprint

Finite Bipartite Graphs as Induced Subgraphs of Subfactor Principal Graphs

Alper Ferudun
Zenodo (CERN European Organization for Nuclear Research)
Advanced Graph Theory Research
preprint

Finite Bipartite Graphs as Induced Subgraphs of Subfactor Principal Graphs

Alper Ferudun
preprint en

Abstract

Every finite bipartite simple graph occurs as a vertex-induced unrooted subgraph of the principal graph of an irreducible finite-depth inclusion of hyperfinite type II1 factors. For part sizes m and n, an explicit neighborhood-multiplicity parameter q gives index q3^n, with q at most m+1, and depth at most four. The selected vertices have depths two and three. The complete depth ranks and adjacency spectrum are computed. A separate amplification realizes every finite bipartite multigraph as an ordinary subgraph, with edge deletion allowed. Scope: complete theorem for finite unrooted simple subgraphs across variable indices, not closure of the full AIM polymer programme, fixed-index rooted extension, infinite subgraphs or induced multigraph universality. The finite-group subfactor construction and representation-theoretic ingredients are classical. Historical novelty confidence is low, possibly folklore; no absolute priority is claimed. AI-assisted, self-audited, unrefereed preprint. No independent peer review or formal verification is claimed. Author: Alper Ferudun, Mercury Software GmbH. Corpus identifier: AIM-OTHER-0060, UnsolvedMath v1.6.0. Paper page: https://eulersolve.org/papers/aim-other-0060/

Zenodo (CERN European Organization for Nuclear Research)
Advanced Graph Theory Research
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