Projected Yukawa Operator and Chiral Polar Factor

This note takes the second step of the mass-sector frontier of the fermionic-matter sub-programme of Cosmochrony, and draws a sharp negative conclusion at its entry. The companion line note fixed the determinant line ${L_{Y}} = \\wedge^{2}({\\mathcal{S}_{\\Pi}})$ as the Yukawa coupling line and the generation-level assignment from ${E_{\\Pi}}^{2}|_{{\\mathbb{C}^{3}_{\\mathrm{gen}}}} = {\\operatorname{diag}}(1, \\tfrac12 + u, \\tfrac12 - u)$. We ask whether the squared projective residue determines the Yukawa morphism itself, and show that it does not. The generation-level observable produced by the Schur-residue sector is the positive hermitian square ${H_{\\Pi}}:= {Y_{\\Pi}}^{\\dagger}{Y_{\\Pi}}$, whose spectrum on ${\\mathbb{C}^{3}_{\\mathrm{gen}}}$ is fixed up to the overall Yukawa norm by ${H_{\\Pi}}|_{{\\mathbb{C}^{3}_{\\mathrm{gen}}}} = {\\lambda_{Y}}^{2}\\,{\\operatorname{diag}}(1, \\tfrac12 + u, \\tfrac12 - u)$. The morphism ${Y_{\\Pi}}$ is then determined only up to a chiral polar factor, ${Y_{\\Pi}} = {U_{\\Pi}}\\,{H_{\\Pi}}^{1/2}$, with ${U_{\\Pi}}$ a unitary chiral map on the support of ${H_{\\Pi}}$. Hence the squared residue fixes the squared Yukawa levels but not the morphism: ${U_{\\Pi}}$ carries the chiral orientation, the relative generation phases, and the mixing, while the positive scale ${\\lambda_{Y}}$ is a separate normalisation of ${H_{\\Pi}}$ — none of it visible to the dimensionless level operator ${E_{\\Pi}}^{2}|_{{\\mathbb{C}^{3}_{\\mathrm{gen}}}}$. Front 3b is therefore closed as a squared-Yukawa-levels result, not a mixing result. A further analysis characterises ${U_{\\Pi}}$ not as a canonical matrix but as a rephasing class, the double quotient $[{U_{\\Pi}}] \\in {\\mathrm{U}}(1)^{3}_{R} \\backslash {\\mathrm{U}}(3) / {\\mathrm{U}}(1)^{3}_{L}$, whose invariants are the moduli $|({U_{\\Pi}})_{ij}|$ and a Jarlskog phase — three mixing angles and one CP phase — and whose non-triviality $[{U_{\\Pi}}] \\neq [I]$ is controlled exactly by the transverse component of the metaplectic generator. On the derived real cascade that transverse component is absent, so $[{U_{\\Pi}}] = [I]$ and no physical mixing is produced at this stratum; the only route left open to a non-trivial class is a genuine complex non-central metaplectic phase, not derived here, observable only relative to a second fermionic sector. Beyond the mixing question, the same stratum settles the generation-scale question negatively: every depth read from the static admissibility spectrum — crossing, saturation, capacity cell, quantised count, and quantised resolution density — yields only order-one ratios or re-introduces the target scale through an unforced normalisation, so the static spectral stratum fixes the generation structure and the order-one level split, but not the charged-fermion hierarchy. All operator identities are verified by exact symbolic computation, with no sampling.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-15
DOI
https://doi.org/10.5281/zenodo.22773586
Primary Topic
Quantum Chromodynamics and Particle Interactions
Type
preprint
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preprint

Projected Yukawa Operator and Chiral Polar Factor

Jérôme Beau
Zenodo (CERN European Organization for Nuclear Research)
Quantum Chromodynamics and Particle Interactions
preprint

Projected Yukawa Operator and Chiral Polar Factor

Jérôme Beau
preprint en

Abstract

This note takes the second step of the mass-sector frontier of the fermionic-matter sub-programme of Cosmochrony, and draws a sharp negative conclusion at its entry. The companion line note fixed the determinant line ${L_{Y}} = \wedge^{2}({\mathcal{S}_{\Pi}})$ as the Yukawa coupling line and the generation-level assignment from ${E_{\Pi}}^{2}|_{{\mathbb{C}^{3}_{\mathrm{gen}}}} = {\operatorname{diag}}(1, \tfrac12 + u, \tfrac12 - u)$. We ask whether the squared projective residue determines the Yukawa morphism itself, and show that it does not. The generation-level observable produced by the Schur-residue sector is the positive hermitian square ${H_{\Pi}}:= {Y_{\Pi}}^{\dagger}{Y_{\Pi}}$, whose spectrum on ${\mathbb{C}^{3}_{\mathrm{gen}}}$ is fixed up to the overall Yukawa norm by ${H_{\Pi}}|_{{\mathbb{C}^{3}_{\mathrm{gen}}}} = {\lambda_{Y}}^{2}\,{\operatorname{diag}}(1, \tfrac12 + u, \tfrac12 - u)$. The morphism ${Y_{\Pi}}$ is then determined only up to a chiral polar factor, ${Y_{\Pi}} = {U_{\Pi}}\,{H_{\Pi}}^{1/2}$, with ${U_{\Pi}}$ a unitary chiral map on the support of ${H_{\Pi}}$. Hence the squared residue fixes the squared Yukawa levels but not the morphism: ${U_{\Pi}}$ carries the chiral orientation, the relative generation phases, and the mixing, while the positive scale ${\lambda_{Y}}$ is a separate normalisation of ${H_{\Pi}}$ — none of it visible to the dimensionless level operator ${E_{\Pi}}^{2}|_{{\mathbb{C}^{3}_{\mathrm{gen}}}}$. Front 3b is therefore closed as a squared-Yukawa-levels result, not a mixing result. A further analysis characterises ${U_{\Pi}}$ not as a canonical matrix but as a rephasing class, the double quotient $[{U_{\Pi}}] \in {\mathrm{U}}(1)^{3}_{R} \backslash {\mathrm{U}}(3) / {\mathrm{U}}(1)^{3}_{L}$, whose invariants are the moduli $|({U_{\Pi}})_{ij}|$ and a Jarlskog phase — three mixing angles and one CP phase — and whose non-triviality $[{U_{\Pi}}] \neq [I]$ is controlled exactly by the transverse component of the metaplectic generator. On the derived real cascade that transverse component is absent, so $[{U_{\Pi}}] = [I]$ and no physical mixing is produced at this stratum; the only route left open to a non-trivial class is a genuine complex non-central metaplectic phase, not derived here, observable only relative to a second fermionic sector. Beyond the mixing question, the same stratum settles the generation-scale question negatively: every depth read from the static admissibility spectrum — crossing, saturation, capacity cell, quantised count, and quantised resolution density — yields only order-one ratios or re-introduces the target scale through an unforced normalisation, so the static spectral stratum fixes the generation structure and the order-one level split, but not the charged-fermion hierarchy. All operator identities are verified by exact symbolic computation, with no sampling.

Zenodo (CERN European Organization for Nuclear Research)
Quantum Chromodynamics and Particle Interactions
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