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February 11, 20260 citationsOpen Access

Resolving the Early Supermassive Black Hole Growth Anomaly via Vibrational Field Catalysis

Key Points

The research aims to resolve the growth anomaly of supermassive black holes in the early Universe by applying the Unified Vibrational Force Theory.
Theoretical derivation and numerical validation of the Unified Vibrational Force Theory (UVFT).
Empirical validation through detailed analysis of five high-redshift quasar systems.
Conducted convergence tests and stability analysis for vibrational field equations.
Achieved a reduction in predictive error from 92.2% to less than 0.1% using UVFT.
Provided detailed empirical validation of cases like eFEDS J084222.9+001000 and LID-568.
Establishes a new mechanism for super-Eddington growth through vacuum energy catalysis.

Abstract

This is the expanded and comprehensive version of the research focused on resolving the growth anomaly of supermassive black holes in the early Universe. Following the recommendation of the AAS editorial board, this manuscript provides the full theoretical derivation and numerical validation of the Unified Vibrational Force Theory (UVFT) applied to high-redshift quasars. Key highlights of this version: Empirical Validation: Detailed analysis of five high-z systems, including the extreme cases of eFEDS J084222. 9+001000 and LID-568. Accuracy: Demonstrates a reduction in predictive error from 92. 2% (under CDM) to less than 0. 1% using UVFT. Numerical Rigor: Inclusion of convergence tests and stability analysis for the vibrational field equations. Open Science: Linked to the source code archived at Zenodo (doi: 10. 5281/zenodo. 18527579). This work establishes a new mechanism for super-Eddington growth through vacuum energy catalysis, independent of traditional baryonic matter limits.

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