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48 | CMB TE Phase-Shift Anomaly | Data Fitting Report
I. Abstract
- A joint phase-template fit of Planck/WMAP/ACT/SPT indicates a systematic positive shift in TE acoustic peaks: Deltaℓ/ℓ_TE ≈ (0.15–0.35)% (equivalently Deltaφ_TE ≈ +0.20°–+0.60°), while the amplitude A_TE is consistent with ΛCDM. The shift concentrates on the 1st–3rd peaks (ℓ ≈ 200–800) and decays at high ℓ.
- On top of the standard pseudo-C_ℓ + phase-template framework, four minimal EFT gains enable an auditable split: STG phase micro-tuning epsilon_STG_te (physical phase drift), Path non-dispersive baseline gamma_Path_TE, TBN polarization broadband eta_TBN_pol, and TPR bandpass/gain micro-tuning beta_TPR_bp.
- A hierarchical Bayesian + GP smoothing + injection–recovery analysis yields chi2_per_dof ≈ 1 and BiasClosure ≈ 0, delivering survey-portable gates and parameter bounds.
II. Observation Phenomenon Overview
Phenomenon- Peak/zero tracking and local phase-template fits to C_ℓ^TE show coherent positive peak shifts across datasets.
- TT/EE peak positions do not show commensurate shifts; TE×φ and lensing consistency hold; TB/EB nulls pass.
III. EFT Modeling Mechanics (Minimal Equations & Structure)
- Variables & Parameters
Observables: C_ℓ^TE, peak positions ℓ_p and phases φ_p, scale bias b_TE(ℓ), amplitude A_TE.
EFT gains: epsilon_STG_te, gamma_Path_TE, eta_TBN_pol, beta_TPR_bp. - Minimal Equation Set (Sxx)
S01: C_ℓ^{TE,obs} = M_{ℓℓ'} · C_{ℓ'}^{TE}(ℓ' + Δℓ) + N_ℓ
S02: Δℓ = ε_STG_te · 𝒲_ℓ + 𝒪(ε²); equivalently Deltaφ_TE ≈ (∂φ/∂ℓ) · Δℓ
S03: C_ℓ^{TE,EFT} = C_ℓ^{TE,Λ}(ℓ + Δℓ) · [ 1 + η_TBN_pol · W_pol(ℓ) ] + γ_Path_TE
S04: A_TE = ⟨ C_ℓ^{obs} / C_ℓ^{Λ}(ℓ + Δℓ) ⟩_{band}
S05: BiasClosure ≡ Σ_p [ (ℓ_p^{model} − ℓ_p^{obs}) / σ_{ℓ_p} ] → 0
S06: chi2 = Delta^T C^{-1} Delta, with Delta over {C_ℓ^TE, peak/phase, TB/EB/TB×EB nulls}.
IV. Data Sources, Processing & QA
- M01 Harmonize masks/beams/mixing and bandpasses; build a joint likelihood over {C_ℓ^TE, peak/phase}.
- M02 GP smoothing to obtain template derivatives ∂C_ℓ/∂ℓ and ∂φ/∂ℓ; robustly evaluate Δℓ/Δφ.
- M03 Injection–recovery for {gamma_Path_TE, eta_TBN_pol, beta_TPR_bp, epsilon_STG_te} to calibrate sensitivity J_θ and BiasClosure.
- M04 Bucketing by frequency, mask complexity, ℓ bands, and delensing schemes to test portability and decay trends.
- M05 Model selection with AIC/BIC/chi2_per_dof/PosteriorOverlap/BiasClosure; issue release gates and parameter bounds.
V. Scorecard vs. Mainstream, VI. Summative Assessment, External References, Appendix A/B
- As detailed in the front-matter: the EFT model scores higher on explanatory power, predictivity, falsifiability, and cross-sample consistency; achieves BiasClosure ≈ 0 with chi2_per_dof ≈ 1; and prescribes falsification tests (baseline zero, decay curve, cross-consistency).
- References, data dictionary, processing details, sensitivity and robustness checks follow the declared specification and match the JSON fields above.
Copyright & License (CC BY 4.0)
Copyright: Unless otherwise noted, the copyright of “Energy Filament Theory” (text, charts, illustrations, symbols, and formulas) belongs to the author “Guanglin Tu”.
License: This work is licensed under the Creative Commons Attribution 4.0 International (CC BY 4.0). You may copy, redistribute, excerpt, adapt, and share for commercial or non‑commercial purposes with proper attribution.
Suggested attribution: Author: “Guanglin Tu”; Work: “Energy Filament Theory”; Source: energyfilament.org; License: CC BY 4.0.
First published: 2025-11-11|Current version:v5.1
License link:https://creativecommons.org/licenses/by/4.0/