Paper guide
35-1 CHC-PFW-VP1

CHC-PFW Public Scalar, Covariance, Contour, and ROOT Support Gates for Precision-Observable Windows

This guide states what changed in version 2.0, the strongest conclusion supported by the manuscript, and the paper's place in the 72-paper parent-and-companion release.

Claim authority. The manuscript remains the authority for definitions, assumptions, derivations, and exclusions. This guide explains the route into the paper.
Version 2.0 result

Input reproducibility check.

Complete upgrade map

What v2.0 adds

Public covariance and ROOT summaries are evaluated in the transverse, not refittable, subspace.

Strongest supported conclusion

Public scalar, covariance, contour, and ROOT inputs are reproducible; this does not convert the parent calibration into a global fit.

Scientific question
public covariance and ROOT gates
Result family
CM test
Release status
Revised from v1.0
Plain reading map

What to use this paper for.

Role in the series

Matter-coupled gauge sheets, anomaly ledgers, electroweak structure, confinement grammar, and fit windows.

Use this block for the gauge-chiral, electroweak, strong-sector, and phenomenological fit-window interfaces.

Read it for

  • Which benchmark sheet or admitted family is being held fixed.
  • Which exact ledger, non-identity, or interface result is established.
  • Which Standard-Model-facing claim is explicitly not being made.

Keep separate

  • Benchmark-facing grammar versus Standard Model completion.
  • Anomaly or interface closure versus phenomenological fit closure.
  • Restricted electroweak/strong-sector windows versus ultraviolet completion.
Manuscript-based orientation

What the manuscript says this paper establishes.

Public scalar, covariance, contour, and ROOT inputs are reproducible; this does not convert the parent calibration into a global fit.

Open source-excerpt note

This web guide uses a reader-safe rendering of the manuscript abstract. The manuscript PDF and canonical archive remain authoritative for exact notation, equations, definitions, and exclusions.

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Open canonical archive
01

Purpose and non-claim boundary

The parent -PFW paper defines a precision-observable basket on one stipulated family. The present paper asks only whether the quoted public inputs were transcribed consistently: quote Do the quoted covariance, contour, ROOT, and scalar-source objects satisfy their stated elementary consistency checks? quote The checked objects satisfy those source-integrity conditions. This result is not a validation of the CHC response map.

This paper does not claim any of the following:

- a global precision-electroweak likelihood; - a global leptonic-flavor or oscillation fit; - an ATLAS profile-likelihood reproduction; - a Daya Bay spectral/covariance reconstruction; - a T2K internal likelihood reproduction; - a new world-average combination; - an empirical proof of .

The only admitted output is a reproducible public validation board for selected declared windows.

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02

Public validation board

The public validation board has four analyses.

- Scalar-source reproduction. Published scalar values and one algebraic transform are checked against the declared CHC-PFW windows. - LEP/SLD covariance subblock. The public arXiv source of the LEP/SLD final ZZZ-resonance report is identified, and the line-shape covariance / correlation subblock with lepton universality is identified from the TeX table. - KamLAND contour membership. Public KamLAND Δχ2\Delta\chi^2\Delta\chi^2 map files are parsed, and the declared t122\ttwelve\ttwelve window is tested against KamLAND-only and global public map surfaces. - T2K ROOT source support comparison. The public electronic ROOT source surface for the T2K oscillation-parameter measurement is identified and inspected for s232\stwo\stwo-containing objects and contour-range membership.

The board is intentionally incomplete as a global fit. It is a public support witness for the declared windows only.

For reader reproducibility the board is recorded as a non-floating support summary rather than as a wide table:

- LEP/SLD covariance subblock: public arXiv source for the LEP/SLD final ZZZ-resonance report [citation]; covariance matrix symmetry / positive-semidefinite check and declared mZ,ΓZm_Z,\Gamma_Zm_Z,\Gamma_Z interval inclusion pass. - KamLAND contour membership: public KamLAND Δχ2\Delta\chi^2\Delta\chi^2 map files [citation]; declared t122\ttwelve\ttwelve window intersects the public 1σ\sigma\sigma, 90%, and 2σ\sigma\sigma surfaces. - T2K ROOT support comparison: public electronic ROOT source for T2K [citation]; public objects identified, object list inspected, and s232\stwo\stwo contour-range membership supported on the declared public surface. - Scalar-source reproduction: ATLAS, LEP/SLD, Daya Bay, KamLAND, and T2K public scalar surfaces [citation]; declared scalar intervals and benchmark transforms pass.

Each analysis is a public-source summary gate, not a replacement for the collaboration analyses.

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03

LEP/SLD public covariance subblock

The LEP/SLD final ZZZ-resonance combination provides public line-shape pseudo-observables and their correlations [citation]. The support summary identifies the public arXiv source document set and states the lepton-universality line-shape subblock from the source TeX table. The subblock uses

(mZ,ΓZ,σhad0,Rℓ,AFB0,ℓ)=(91.1875,2.4952,41.540,20.767,0.0171),(\mZ,\GZ,\sigma^0_{\rm had},R_\ell,A^{0,\ell}_{\rm FB}) = (91.1875,2.4952,41.540,20.767,0.0171),
TeX source
(\mZ,\GZ,\sigma^0_{\rm had},R_\ell,A^{0,\ell}_{\rm FB})
  =
  (91.1875,2.4952,41.540,20.767,0.0171),

with one-sigma uncertainties

(0.0021,0.0023,0.037,0.025,0.0010).(0.0021,0.0023,0.037,0.025,0.0010).
TeX source
(0.0021,0.0023,0.037,0.025,0.0010).

The identified correlation matrix is

ρ=1.000−0.023−0.0450.0330.055−0.0231.000−0.2970.0040.003−0.045−0.2971.0000.1830.0060.0330.0040.1831.000−0.0560.0550.0030.006−0.0561.000.\rho= 1.000 -0.023 -0.045 0.033 0.055 -0.023 1.000 -0.297 0.004 0.003 -0.045 -0.297 1.000 0.183 0.006 0.033 0.004 0.183 1.000 -0.056 0.055 0.003 0.006 -0.056 1.000 .
TeX source
\rho=

 1.000  -0.023  -0.045  0.033  0.055

 -0.023  1.000  -0.297  0.004  0.003

 -0.045  -0.297  1.000  0.183  0.006

 0.033  0.004  0.183  1.000  -0.056

 0.055  0.003  0.006  -0.056  1.000
.

The covariance matrix is then

Cij=ρijσiσj.C_{ij}=\rho_{ij}\sigma_i\sigma_j.
TeX source
C_{ij}=\rho_{ij}\sigma_i\sigma_j.

The gate checks symmetry, positive semidefiniteness, and inclusion of the parent-paper mZ\mZ\mZ and ΓZ\GZ\GZ central values in their declared intervals. The observed maximum symmetry error was 2.65×10−232.65\times10^{-23}2.65\times10^{-23}, and the numerical eigenvalues were positive:

(9.92×10−7, 4.32×10−6, 4.88×10−6, 5.88×10−4, 1.41×10−3).(9.92\times10^{-7},\ 4.32\times10^{-6},\ 4.88\times10^{-6},\ 5.88\times10^{-4},\ 1.41\times10^{-3}).
TeX source
(9.92\times10^{-7},\ 4.32\times10^{-6},\ 4.88\times10^{-6},\ 5.88\times10^{-4},\ 1.41\times10^{-3}).

The local label is therefore center PFW-LEP-SLD-PUBLIC-COVARIANCE-SUBBLOCK-CHECK-SATISFIED. center This is a public-table covariance subblock. It is not a LEP/SLD raw-data refit and not a full electroweak global likelihood.

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04

KamLAND public Δχ2\Delta\chi^2\Delta\chi^2Delta chi2 contour membership

The support summary identifies the public KamLAND Δχ2\Delta\chi^2\Delta\chi^2 map files and parses rows of the form

(log⁡10t122,log⁡10Δm2,Δχ2).(\log_{10}\ttwelve,\log_{10}\Delta m^2,\Delta\chi^2).
TeX source
(\log_{10}\ttwelve,\log_{10}\Delta m^2,\Delta\chi^2).

For the declared CHC-PFW solar-angle window

t122∈[0.49,0.66],\ttwelve\in[0.49,0.66],
TeX source
\ttwelve\in[0.49,0.66],

we test whether the public map contains points inside the declared window below standard two-parameter contour thresholds. The KamLAND-only map has its public minimum at

log⁡10t122=−0.26,log⁡10Δm2=−4.12,Δχ2=0,\log_{10}\ttwelve=-0.26, \qquad \log_{10}\Delta m^2=-4.12, \qquad \Delta\chi^2=0,
TeX source
\log_{10}\ttwelve=-0.26,
  \qquad
  \log_{10}\Delta m^2=-4.12,
  \qquad
  \Delta\chi^2=0,

which corresponds to t122≃0.5495\ttwelve\simeq0.5495\ttwelve\simeq0.5495. This lies inside the declared window. The KamLAND+solar global public map has a minimum slightly below the lower declared edge, but the best point inside the declared window occurs at

log⁡10t122=−0.30,log⁡10Δm2=−4.12,Δχ2=0.3,\log_{10}\ttwelve=-0.30, \qquad \log_{10}\Delta m^2=-4.12, \qquad \Delta\chi^2=0.3,
TeX source
\log_{10}\ttwelve=-0.30,
  \qquad
  \log_{10}\Delta m^2=-4.12,
  \qquad
  \Delta\chi^2=0.3,

which also passes the 1σ\sigma\sigma, 90%, and 2σ\sigma\sigma public contour thresholds used by the gate. The local label is center PFW-KAMLAND-PUBLIC-CHI2-CONTOUR-MEMBERSHIP-SATISFIED. center This is a public contour-membership check, not a new KamLAND or solar-neutrino oscillation fit.

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05

T2K public ROOT-object contour extraction

The T2K collaboration provides public electronic contour information for the oscillation-parameter measurements reported in Ref. [citation]. The companion source summary identifies the public Bayesian and frequentist contour surfaces and records the public-source basis for the declared sin⁡2θ23\sin^2\theta_{23}\sin^2\theta_{23} window. The manuscript uses the following public contour classes:

- Bayesian ROOT-format posterior object; - Frequentist ROOT-format contour object.

The public source presents one-dimensional posterior / Δχ2\Delta\chi^2\Delta\chi^2 objects and two-dimensional contour graphs for oscillation parameters. The gate verifies that s232\stwo\stwo-containing objects are present and extracts the s232\stwo\stwo-Δm2\Delta m^2\Delta m^2 frequentist normal-hierarchy contour ranges with reactor constraint. The declared CHC-PFW window

s232∈[0.529,0.593]\stwo\in[0.529,0.593]
TeX source
\stwo\in[0.529,0.593]

intersects the extracted contour ranges, and the extracted best-fit marker lies inside the declared interval. The local label is center PFW-T2K-ZENODO-ROOT-CONTOUR-EXTRACTION-SATISFIED. center This is a public ROOT source surface and contour-range extraction. It is not a T2K internal likelihood reproduction and not a global oscillation analysis.

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06

Scalar-source reproduction analysis

The scalar-source analysis retained from the VP1 support summary checks direct scalar intervals and one algebraic transform. The checked rows include

mW=80.3665±0.0159 GeV,mZ=91.1875±0.0021 GeV,seff2=0.23153±0.00016,ΓZ=2.4952±0.0023 GeV,Γℓ=83.984±0.086 MeV.\mW=80.3665\pm0.0159\ \mathrm{GeV}, \mZ=91.1875\pm0.0021\ \mathrm{GeV}, \seff=0.23153\pm0.00016, \GZ=2.4952\pm0.0023\ \mathrm{GeV}, \Gl=83.984\pm0.086\ \mathrm{MeV}.
TeX source
\mW=80.3665\pm0.0159\ \mathrm{GeV},

  \mZ=91.1875\pm0.0021\ \mathrm{GeV},

  \seff=0.23153\pm0.00016,

  \GZ=2.4952\pm0.0023\ \mathrm{GeV},

  \Gl=83.984\pm0.086\ \mathrm{MeV}.

For Daya Bay, the public scalar value is transformed by

sin⁡2θ13=1−1−sin⁡2(2θ13)2,\sin^2\theta_{13} =\frac{1-\sqrt{1-\sin^2(2\theta_{13})}}{2},
TeX source
\sin^2\theta_{13}
  =\frac{1-\sqrt{1-\sin^2(2\theta_{13})}}{2},

which maps sin⁡2(2θ13)=0.0856±0.0029\sin^2(2\theta_{13})=0.0856\pm0.0029\sin^2(2\theta_{13})=0.0856\pm0.0029 to a one-sigma range approximately

sin⁡2θ13∈[0.021121,0.022637],\sin^2\theta_{13}\in[0.021121,0.022637],
TeX source
\sin^2\theta_{13}\in[0.021121,0.022637],

inside the declared CHC-PFW interval. The retained scalar-source label is center PFW-VP1-PUBLIC-SCALAR-SOURCE-READBACK-SATISFIED. center

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07

Combined classification

The combined public source basis has two declared VP1-local support-analysis labels: center PFW-VP1-PUBLIC-SCALAR-AND-CONTOUR-SUPPORT-SATISFIED center for the manuscript-level scalar/contour analysis, and center PFW-VP1-PUBLIC-COVARIANCE-CONTOUR-ROOT-SUPPORT-SATISFIED center for the deeper covariance, contour, and ROOT support comparison. The public manuscript sequence remains CHC-PFW-VP1. The scalar--contour comparison and the deeper covariance--contour comparison are distinct bounded support comparisons, not separate parent-paper claims. Companion source summaries record the public input surfaces, the scalar, covariance, and contour comparisons, the diagnostics, and the public-source conditions. These classifications remain local to the declared support comparisons and do not promote the parent paper to a global fit claim.

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08

Transverse residual test

Covariance and contour checks validate a common electroweak--leptonic family only in directions that cannot be generated by refitting its frozen parameters. If SSS is the response Jacobian of the retained ROOT and scalar summaries, the column space of SSS is the tangent space of admissible calibration shifts, while ker⁡ST\ker S^{\mathsf T}\ker S^{\mathsf T} contains the first-order predictions. The covariance-weighted projection onto that null space supplies the appropriate public residual.

This projection and its numerical rank must be fixed before contour inspection. Adding a nuisance coefficient for each retained summary can make SSS full row rank and reduce every transverse residual to zero by construction. The analysis should therefore report the number of surviving restrictions and validate them on quantities not used to choose the family or covariance model.

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09

Microscopic closure and surviving prediction

The closure test for the public covariance and ROOT gates is applied to a dimensionless observable vector y∈Rmy\in\mathbb R^my\in\mathbb R^m formed from fixed reference scales and the declared basket of reproduced intervals, contours, and transverse residuals. Let aaa range over the independent constitutive inputs comprising public contours, ROOT objects, covariance blocks, and coordinate transformations.

proposition: Functional saturation, finite closure, and sector admissibility. Suppose the unrestricted prediction map F:a↦yF:a\mapsto yF:a\mapsto y is continuously differentiable on a Banach space of constitutive inputs. If DaFD_aFD_aF is surjective and has a bounded right inverse at the calibration point, the unrestricted family is locally open in observable space and supplies no nonzero local equality restriction on yyy. Suppose instead that a single microscopic closure replaces aaa by finite parameters θ∈Rp\theta\in\mathbb R^p\theta\in\mathbb R^p, with profiled nuisance coordinates η∈Rq\eta\in\mathbb R^q\eta\in\mathbb R^q. If

J=DηFclDθFcl,rank⁡J=r<m,J=D_\eta F_{\rm cl}D_\theta F_{\rm cl}, \qquad \operatorname{rank}J=r<m,
TeX source
J=D_\eta F_{\rm cl}D_\theta F_{\rm cl},
 \qquad \operatorname{rank}J=r<m,

then there are m−rm-rm-r independent first-order restrictions

wTδy=0,w∈ker⁡JT.w^{\mathsf T}\delta y=0, \qquad w\in\ker J^{\mathsf T}.
TeX source
w^{\mathsf T}\delta y=0,
 \qquad w\in\ker J^{\mathsf T}.

If the rank is constant locally, these restrictions are tangent to a compatibility manifold of codimension m−rm-rm-r. For this sector, the finite closure is admissible only if source reproduction is completed before one frozen covariance is propagated into the null-space statistic.

proof. Split surjectivity gives a bounded right inverse RRR with DaF R=ImD_aF\,R=I_mD_aF\,R=I_m. The Banach-space submersion theorem then makes FFF locally onto a neighborhood of the calibrated observable vector. Any smooth equality holding throughout that image must therefore vanish on an open set and contributes no model-specific local restriction. Under finite closure, the attainable first-order variations are exactly the column space of JJJ. Its orthogonal complement is ker⁡JT\ker J^{\mathsf T}\ker J^{\mathsf T}, whose dimension is m−rm-rm-r by rank--nullity, which proves reference. The constant-rank theorem supplies the stated local manifold. The sector condition is necessary because matching published contours validates extraction but does not validate the CHC parameterization. Failure of that condition therefore rejects the proposed microscopic closure before parameter estimation can be counted as evidence for it.

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10

Conclusion

The public LEP/SLD covariance subblock, KamLAND Δχ2\Delta\chi^2\Delta\chi^2 maps, T2K ROOT source, and selected scalar transformations pass the stated source-integrity checks. This establishes reproducibility of the inputs, not empirical confirmation of CHC-PFW.

Because the parent parametrization is rank deficient and target-interpolating, interval and contour membership cannot discriminate it from alternatives. A stronger claim requires an identifiable restricted model, a joint likelihood with nuisance correlations, and genuinely held-out predictions fixed before inspection.

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11

Data and code availability

The companion source summaries record the public scalar-source, covariance-subblock, contour-membership, and public contour-source support comparisons used in this companion paper, including declared source boundaries, diagnostic summaries, and the VP1-local support-analysis labels. Primary public inputs should be consulted at the cited public sources. These materials are bounded public support summaries only; they are not a global electroweak, collider, or flavor likelihood and not an unpublished covariance reconstruction.

Funding and competing interests..

No external funding was received for this work. The author declares no competing interests.

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35-1 CHC-PFW-VP1

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