Constraint Closure and the ℓ1 Structure of Physical Law

This upload is an as-is republication and extension of an earlier constraint-closure toy model (v1.2). It is explicitly presented as a finite, exploratory toy model, not as a derivation of continuous general relativity, quantum gravity, the Standard Model, or physical law. The paper studies ℓ¹ residual accounting on finite simplicial and cochain complexes. Within that finite setting, it develops gauge-invariant quotient residuals, exact linear-programming dual certificates, Regge-calculus deficit-cochain examples, scoped Bianchi-style identities and counterexamples, and Wheeler-DeWitt-inspired Hamiltonian and momentum diagnostics encoded as finite cochain data. The central finite quotient norm is Φ([ω]) = inf_{α ∈ C⁰} ‖ω − d₀α‖₁, with dual certificates of the form Φ([ω]) = sup_{w ∈ Z₁, ‖w‖∞ ≤ 1} ⟨w, ω⟩. The included Python and Lean 4 artifacts are intended as best-effort executable evidence for finite, discrete, linear-algebraic claims and for falsification receipts around overextended high-energy analogies. Speculative extensions toward Standard Model gauge structure, electroweak symmetry breaking, supersymmetry scales, fine-structure numerology, and dark-sector interpretations are explicitly quarantined or refuted within the model. This package includes the manuscript, generated PDF, plain-text export, Python code and tests, Lean 4 manifest evidence, notebooks, a publication manifest with SHA-256 hashes, and a replayable source bundle. AuthorityEffect: None. Draft / upload record:https://zenodo.org/uploads/22715569

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-11
DOI
https://doi.org/10.5281/zenodo.22715569
Primary Topic
International Science and Diplomacy
Type
preprint
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preprint

Constraint Closure and the ℓ1 Structure of Physical Law

JEREMY H. CARROLL
Zenodo (CERN European Organization for Nuclear Research)
International Science and Diplomacy
preprint

Constraint Closure and the ℓ1 Structure of Physical Law

JEREMY H. CARROLL
preprint en

Abstract

This upload is an as-is republication and extension of an earlier constraint-closure toy model (v1.2). It is explicitly presented as a finite, exploratory toy model, not as a derivation of continuous general relativity, quantum gravity, the Standard Model, or physical law. The paper studies ℓ¹ residual accounting on finite simplicial and cochain complexes. Within that finite setting, it develops gauge-invariant quotient residuals, exact linear-programming dual certificates, Regge-calculus deficit-cochain examples, scoped Bianchi-style identities and counterexamples, and Wheeler-DeWitt-inspired Hamiltonian and momentum diagnostics encoded as finite cochain data. The central finite quotient norm is Φ([ω]) = inf_{α ∈ C⁰} ‖ω − d₀α‖₁, with dual certificates of the form Φ([ω]) = sup_{w ∈ Z₁, ‖w‖∞ ≤ 1} ⟨w, ω⟩. The included Python and Lean 4 artifacts are intended as best-effort executable evidence for finite, discrete, linear-algebraic claims and for falsification receipts around overextended high-energy analogies. Speculative extensions toward Standard Model gauge structure, electroweak symmetry breaking, supersymmetry scales, fine-structure numerology, and dark-sector interpretations are explicitly quarantined or refuted within the model. This package includes the manuscript, generated PDF, plain-text export, Python code and tests, Lean 4 manifest evidence, notebooks, a publication manifest with SHA-256 hashes, and a replayable source bundle. AuthorityEffect: None. Draft / upload record:https://zenodo.org/uploads/22715569

Zenodo (CERN European Organization for Nuclear Research)
Peace, Justice and strong institutions
International Science and Diplomacy
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