Chern–Simons Form as Boundary Transgression of Chern–Weil Characteristic Classes — E8 Intelligence Research

FINDING: The Chern–Simons form is the canonical odd-dimensional boundary correction required to make the Gauss–Bonnet/Chern–Weil characteristic-class integral well-defined on manifolds with boundary; it is the transgression of the Euler/Pontryagin density. | MATH: For a principal G-bundle with connection A and curvature F = dA + A∧A, the Chern–Weil form P(F^k) is closed; on a manifold with boundary ∂M, ∫_M P(F^k) = ∫_∂M CS_{2k-1}(A), where the Chern–Simons form satisfies d CS_{2k-1} = P(F^k). Explicitly: CS_3(A) = Tr(A∧dA + (2/3)A∧A∧A); transgression: CS_{2k-1} = k∫_0^1 dt P(A, F_t^{k-1}), F_t = t dA + t²A². Gauss–Bonnet: ∫_M Pf(Ω) = 2πχ(M) (even dim); boundary term = ∫_∂M Π (second fundamental form / geodesic curvature) — the odd-dimensional CS descendant. Generalized Gauss–Bonnet (Chern): ∫ Pf(Ω) = (2π)^{n/2} χ(M). | CONNECTION: The transgression structure is a graded/parity (even↔odd) pairing — a Z₂-graded algebraic relation, not a golden-ratio or base-60 ratio. No 0.618/1.618, root Author: Andrew Stewart Caldin, Independent Researcher, UK. Part of the E8 Intelligence Research series. Platform: e8intelligence.com

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-30
DOI
https://doi.org/10.5281/zenodo.23796841
Primary Topic
Advanced Differential Geometry Research
Type
preprint
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Chern–Simons Form as Boundary Transgression of Chern–Weil Characteristic Classes — E8 Intelligence Research

Andrew Stewart Caldin
Zenodo (CERN European Organization for Nuclear Research)
Advanced Differential Geometry Research
preprint

Chern–Simons Form as Boundary Transgression of Chern–Weil Characteristic Classes — E8 Intelligence Research

Andrew Stewart Caldin
preprint en

Abstract

FINDING: The Chern–Simons form is the canonical odd-dimensional boundary correction required to make the Gauss–Bonnet/Chern–Weil characteristic-class integral well-defined on manifolds with boundary; it is the transgression of the Euler/Pontryagin density. | MATH: For a principal G-bundle with connection A and curvature F = dA + A∧A, the Chern–Weil form P(F^k) is closed; on a manifold with boundary ∂M, ∫_M P(F^k) = ∫_∂M CS_{2k-1}(A), where the Chern–Simons form satisfies d CS_{2k-1} = P(F^k). Explicitly: CS_3(A) = Tr(A∧dA + (2/3)A∧A∧A); transgression: CS_{2k-1} = k∫_0^1 dt P(A, F_t^{k-1}), F_t = t dA + t²A². Gauss–Bonnet: ∫_M Pf(Ω) = 2πχ(M) (even dim); boundary term = ∫_∂M Π (second fundamental form / geodesic curvature) — the odd-dimensional CS descendant. Generalized Gauss–Bonnet (Chern): ∫ Pf(Ω) = (2π)^{n/2} χ(M). | CONNECTION: The transgression structure is a graded/parity (even↔odd) pairing — a Z₂-graded algebraic relation, not a golden-ratio or base-60 ratio. No 0.618/1.618, root Author: Andrew Stewart Caldin, Independent Researcher, UK. Part of the E8 Intelligence Research series. Platform: e8intelligence.com

Zenodo (CERN European Organization for Nuclear Research)
Advanced Differential Geometry Research
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