Preferred Cosmological Direction and Anisotropies within the RQAM Framework

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1. Verfasser: Viso Cervera, Miguel
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Sprache:Englisch
Veröffentlicht: Zenodo 2025
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author Viso Cervera, Miguel
author_facet Viso Cervera, Miguel
contents <p>This paper investigates the hypothesis of a preferred cosmological axis in light of several large-scale anomalies observed in the universe, including the hemispherical asymmetry in the CMB, the alignment of low-order multipoles, quasar polarization, and hints of chirality in cosmic signals. Within the framework of the Rotating Quantum Asymmetric Multiversal (RQAM) model, which posits that our universe emerged from a nonsingular quantum bounce inside a rotating black hole, a coherent physical axis is predicted to arise from inherited angular momentum and amplified through two quantum mechanisms: the Quantum Inertia Gradient (QIG) and the Quantum Vacuum Phase Shift (QVP). The paper explores observational consequences across multiple fronts—including CMB polarization cross-correlations (EB/TB), circular polarization in gravitational waves, and extragalactic alignments—proposes a mathematical parametrization of the axis, and outlines falsifiability paths through missions such as LiteBIRD, CMB-S4, LISA, and SKA.</p> <p><strong>This work has been timestamped and integrity-protected using a SHA-256 cryptographic hash and sealed into the Bitcoin blockchain, providing immutable proof of authorship and publication date, independently of institutional affiliation or platform.</strong></p>
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spellingShingle Preferred Cosmological Direction and Anisotropies within the RQAM Framework
Viso Cervera, Miguel
Preferred cosmological axis
cosmic microwave background (CMB)
large-scale anisotropies
circular polarization
gravitational waves
EB/TB cross-correlations
quasar alignment
cosmological chirality
inherited rotation
quantum bounce
torsion cosmology
RQAM model
falsifiability
<p>This paper investigates the hypothesis of a preferred cosmological axis in light of several large-scale anomalies observed in the universe, including the hemispherical asymmetry in the CMB, the alignment of low-order multipoles, quasar polarization, and hints of chirality in cosmic signals. Within the framework of the Rotating Quantum Asymmetric Multiversal (RQAM) model, which posits that our universe emerged from a nonsingular quantum bounce inside a rotating black hole, a coherent physical axis is predicted to arise from inherited angular momentum and amplified through two quantum mechanisms: the Quantum Inertia Gradient (QIG) and the Quantum Vacuum Phase Shift (QVP). The paper explores observational consequences across multiple fronts—including CMB polarization cross-correlations (EB/TB), circular polarization in gravitational waves, and extragalactic alignments—proposes a mathematical parametrization of the axis, and outlines falsifiability paths through missions such as LiteBIRD, CMB-S4, LISA, and SKA.</p> <p><strong>This work has been timestamped and integrity-protected using a SHA-256 cryptographic hash and sealed into the Bitcoin blockchain, providing immutable proof of authorship and publication date, independently of institutional affiliation or platform.</strong></p>
title Preferred Cosmological Direction and Anisotropies within the RQAM Framework
topic Preferred cosmological axis
cosmic microwave background (CMB)
large-scale anisotropies
circular polarization
gravitational waves
EB/TB cross-correlations
quasar alignment
cosmological chirality
inherited rotation
quantum bounce
torsion cosmology
RQAM model
falsifiability
url https://doi.org/10.5281/zenodo.15499585