Selection as Orbit, Time as Knot: The Bost–Connes Realization of VID's Modular Substrate

We present the first explicit realization of the Virtual Invasion Dynamics (VID) modular substrate in the Bost–Connes system. At the critical inverse temperature β=1, the unique KMS state generates the hyperfinite type III₁ factor R∞. We prove that nontrivial knot classes [e^{ith}] ∈ H¹(σ, U(R∞)) exist for σ-fixed directions h, establishing the first explicit nontrivial elements of VID §24. We prove a general adiabatic theorem: entropy production under any automorphism dynamics is identically zero, forcing the time arrow to reside in thermodynamic drift paths. We compute entropy production for commuting and non-commuting perturbations, revealing a trade-off between total asymmetry and local production rate. We formulate the Shuttle Group Conjecture: selection of condensation outcomes is an orbit under group action, with knots marking tearing points on the substrate.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-27
DOI
https://doi.org/10.5281/zenodo.23705020
Primary Topic
Advanced Operator Algebra Research
Type
preprint
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preprint

Selection as Orbit, Time as Knot: The Bost–Connes Realization of VID's Modular Substrate

Trace Drift
5 links
Zenodo (CERN European Organization for Nuclear Research)
Advanced Operator Algebra Research
preprint

Selection as Orbit, Time as Knot: The Bost–Connes Realization of VID's Modular Substrate

Trace Drift
preprint en

Abstract

We present the first explicit realization of the Virtual Invasion Dynamics (VID) modular substrate in the Bost–Connes system. At the critical inverse temperature β=1, the unique KMS state generates the hyperfinite type III₁ factor R∞. We prove that nontrivial knot classes [e^{ith}] ∈ H¹(σ, U(R∞)) exist for σ-fixed directions h, establishing the first explicit nontrivial elements of VID §24. We prove a general adiabatic theorem: entropy production under any automorphism dynamics is identically zero, forcing the time arrow to reside in thermodynamic drift paths. We compute entropy production for commuting and non-commuting perturbations, revealing a trade-off between total asymmetry and local production rate. We formulate the Shuttle Group Conjecture: selection of condensation outcomes is an orbit under group action, with knots marking tearing points on the substrate.

Zenodo (CERN European Organization for Nuclear Research)
Advanced Operator Algebra Research
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Selection as Orbit, Time as Knot: The Bost–Connes Realization of VID's Modular Substrate — Trace Drift · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS