Chiral analysis reveals boundary readouts of electromagnetism and gravitation in quantum gauge theory, indicating their fundamental unity.
Within the Quantum Gauge Theory of Time (QGT), spacetime ℝ⁴ is the observable boundary generated by a non-invertible projection Π : 𝓜⁵ → ℝ⁴ of a Majorana spinor Ξ = CΞ̄ on 𝓜⁵ = ℝ⁴ × S¹(τ), governed by a single conservation law. Under projection, the two chiral sectors of Ξ separate into electromagnetism (η-channel) and gravitation (ξ-channel): not two independent fields, but two complementary boundary readouts of the same neutral field. The paper establishes four results. (i) The fine-structure constant emerges as the structural pole of the projection filter H(z) = P₄(z)/(1 − αz), with no free parameters. (ii) The scale hierarchy α_k = α · 10^k organises five distinct physical regimes from the electromagnetic to the hadronic. (iii) The discrete renormalisation law for boundary coherence Bₖ₊₁ = 2B_k2/3 is derived, with global fixed point B* = 8. (iv) The unified field equation (γ^μ D_μ + αξ + iαηγ⁵)Ψ = 0 is obtained, of which QED and GR are the chiral limiting cases. The absolute dimensional scale belongs to ker(Π*) by a model-independent structural theorem. The complete spectral factor F_nm = (2√5)^(5/2) φ²/(9π²) is closed in Paper P13 (DOI: 10.5281/zenodo.19392738). Editorial revision (April 2026): citation keys, level labels, internal cross-references, and abstract language aligned with closed results.
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Pasquale Camelia (2026) studied this question.
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