The Interior Observer Cosmological Framework: Paper 26 - The Primordial Scalar Amplitude from the Hawking Boundary State, Toward IO-Native Replacements for ΛCDM-Borrowed Inputs, Source-Side Reduction, the CMB Baryon Class Diagnostic, and the Effective Optical Damping Parameter

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Autore principale: Fife, David
Natura: Recurso digital
Lingua:inglese
Pubblicazione: Zenodo 2026
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author Fife, David
author_facet Fife, David
contents <p>Paper 26 of the Interior Observer (IO) Cosmological Framework. Beginning from two premises — (1) the observable universe exists inside a Schwarzschild black hole, and (2) the physics inside the horizon is the same as outside — this paper proposes IO-native replacements for ΛCDM-borrowed inputs in the framework's confrontation with Planck 2018 CMB data, with zero fitted parameters.</p> <p>The headline result is a conditional forward prediction for the primordial scalar amplitude from the Hawking boundary state on the S² horizon: A_s = (25/9) × [γ²/(1+γ²)] × [1/√2] × 1/(exp(4π√2) − 1) = 2.007 × 10⁻⁹ (Planck: 2.100 ± 0.030 × 10⁻⁹, deviation −4.4%). The formula contains one external input (γ_BI = 0.2375 from Loop Quantum Gravity) and the mathematical constant π. All dependence on M_U, r_s, ℏ, c, G, k_B, and l_P cancels exactly in the Hawking exponent β_H ω₁ = 4π√2.</p> <p>Part II establishes that Paper 19's late-time clustering theorem does not authorize ω_b,clustering in CMB perturbation slots, resolving a catastrophic χ² failure. The Thomson Kernel Lemma proves that the visibility function and acoustic oscillations share the same primitive opacity factor. The visibility readout is conditionally assigned to the acoustic baryon class (ω_b,eff = 0.02910).</p> <p>Part III proposes an effective optical damping parameter τ_eff,IO = K_gauge/2 = (1/2)ln(1+γ²) = 0.02744 from the inverse of the tangential horizon operator. The combined effective amplitude A_eff = A_s × exp(−K_gauge) = 1.900 × 10⁻⁹ matches the ΛCDM TT extraction (1.885 × 10⁻⁹) to 0.8%.</p> <p>Part IV shows CLASS reionization shape defaults are numerically irrelevant for TT high-ℓ (Δχ² < 0.4).</p> <p>Four conditional framework-internal identifications (C1, C2c, AV1, C3) are required, each explicitly documented with assumptions, limitations, and promotion paths. Includes Lemma C2.1 (background/perturbation channel separation) and Lemma C2.2 (carrier identification via Hopf lift), both derived, resolving the radial-vs-angular mode counting tension. Full cumulative Appendix A catalog (Steps 1–398) spanning Papers 1–26.</p> <p><a title="Framework Github Site" href="https://dfife.github.io/index.html" target="_blank" rel="noopener">https://dfife.github.io/index.html</a></p> <div></div>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_19296329
institution Zenodo
language eng
publishDate 2026
publisher Zenodo
record_format zenodo
spellingShingle The Interior Observer Cosmological Framework: Paper 26 - The Primordial Scalar Amplitude from the Hawking Boundary State, Toward IO-Native Replacements for ΛCDM-Borrowed Inputs, Source-Side Reduction, the CMB Baryon Class Diagnostic, and the Effective Optical Damping Parameter
Fife, David
black hole cosmology
primordial scalar amplitude
Hawking radiation
interior observer
CMB power spectrum
baryon acoustic oscillations
Loop Quantum Gravity
Barbero-Immirzi parameter
holographic cosmology
zero fitted parameters
Multi AI research
<p>Paper 26 of the Interior Observer (IO) Cosmological Framework. Beginning from two premises — (1) the observable universe exists inside a Schwarzschild black hole, and (2) the physics inside the horizon is the same as outside — this paper proposes IO-native replacements for ΛCDM-borrowed inputs in the framework's confrontation with Planck 2018 CMB data, with zero fitted parameters.</p> <p>The headline result is a conditional forward prediction for the primordial scalar amplitude from the Hawking boundary state on the S² horizon: A_s = (25/9) × [γ²/(1+γ²)] × [1/√2] × 1/(exp(4π√2) − 1) = 2.007 × 10⁻⁹ (Planck: 2.100 ± 0.030 × 10⁻⁹, deviation −4.4%). The formula contains one external input (γ_BI = 0.2375 from Loop Quantum Gravity) and the mathematical constant π. All dependence on M_U, r_s, ℏ, c, G, k_B, and l_P cancels exactly in the Hawking exponent β_H ω₁ = 4π√2.</p> <p>Part II establishes that Paper 19's late-time clustering theorem does not authorize ω_b,clustering in CMB perturbation slots, resolving a catastrophic χ² failure. The Thomson Kernel Lemma proves that the visibility function and acoustic oscillations share the same primitive opacity factor. The visibility readout is conditionally assigned to the acoustic baryon class (ω_b,eff = 0.02910).</p> <p>Part III proposes an effective optical damping parameter τ_eff,IO = K_gauge/2 = (1/2)ln(1+γ²) = 0.02744 from the inverse of the tangential horizon operator. The combined effective amplitude A_eff = A_s × exp(−K_gauge) = 1.900 × 10⁻⁹ matches the ΛCDM TT extraction (1.885 × 10⁻⁹) to 0.8%.</p> <p>Part IV shows CLASS reionization shape defaults are numerically irrelevant for TT high-ℓ (Δχ² < 0.4).</p> <p>Four conditional framework-internal identifications (C1, C2c, AV1, C3) are required, each explicitly documented with assumptions, limitations, and promotion paths. Includes Lemma C2.1 (background/perturbation channel separation) and Lemma C2.2 (carrier identification via Hopf lift), both derived, resolving the radial-vs-angular mode counting tension. Full cumulative Appendix A catalog (Steps 1–398) spanning Papers 1–26.</p> <p><a title="Framework Github Site" href="https://dfife.github.io/index.html" target="_blank" rel="noopener">https://dfife.github.io/index.html</a></p> <div></div>
title The Interior Observer Cosmological Framework: Paper 26 - The Primordial Scalar Amplitude from the Hawking Boundary State, Toward IO-Native Replacements for ΛCDM-Borrowed Inputs, Source-Side Reduction, the CMB Baryon Class Diagnostic, and the Effective Optical Damping Parameter
topic black hole cosmology
primordial scalar amplitude
Hawking radiation
interior observer
CMB power spectrum
baryon acoustic oscillations
Loop Quantum Gravity
Barbero-Immirzi parameter
holographic cosmology
zero fitted parameters
Multi AI research
url https://doi.org/10.5281/zenodo.19296329