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This research aims to establish a zero-free-parameter framework for understanding dark energy, cosmic voids, and black hole mass quantization.

June 1, 20260 citationsOpen Access

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The Alhwarat Multiverse Spectrum: Zero-Parameter Derivation of Dark Energy, Cosmic Void Lensing, and Black Hole Mass Quantization from a 5D Warped Geometry with Thermal Cutoff

AAAli Alhawarat

Key Points

This research aims to establish a zero-free-parameter framework for understanding dark energy, cosmic voids, and black hole mass quantization.
Developed a 5D framework based on Randall-Sundrum gravity.
Quantified gravitational buoyancy using a mathematical formula across a defined range of n values.
Derived parameters relevant to cosmic phenomena from existing theoretical foundations.
Quantized gravitational buoyancy as η_n = η_0 × φ^n for n from -2 to 3.
Established dark energy density as Ω_Λ + Ω_DM = 0.951.
Identified LIGO black hole mass peaks at M = M_sun × φ^n.

Abstract

We present the complete Alhwarat Multiverse Spectrum, a zero-free-parameter framework from 5D Randall-Sundrum gravity. The spectrum quantizes gravitational buoyancy as ηₙ = η₀ × φⁿ for n=-2 to 3, reproducing: (1) Big Bang Nucleosynthesis yields, (2) SDSS DR7 cosmic void lensing Φ₀ = -0. 091 ± 0. 022 with χ²/dof = 0. 83, (3) Dark energy density Ω_Λ + ΩDM = 0. 951, (4) LIGO black hole mass peaks at M = Mₛun × φⁿ. All parameters from prior work are now derived as n=1 states. CSST 2026 must observe five discrete Φ₀ peaks or the spectrum is falsified. Zero free parameters. Code and data provided.

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The Alhwarat Multiverse Spectrum: Zero-Parameter Derivation of Dark Energy, Cosmic Void Lensing, and Black Hole Mass Quantization from a 5D Warped Geometry with Thermal Cutoff

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Abstract

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