Probing black holes via quasinormal modes in a dark energy-induced dark matter

Fuente: arXiv
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Main Authors: Liang, Jie, Liu, Dong, Lin, Hao-Jie, Long, Zheng-Wen
Format: Preprint
Published: 2024
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author Liang, Jie
Liu, Dong
Lin, Hao-Jie
Long, Zheng-Wen
author_facet Liang, Jie
Liu, Dong
Lin, Hao-Jie
Long, Zheng-Wen
contents This study delves into the existence of dark matter around supermassive black holes in galactic cores using a novel gravitational model. By analyzing gravitational waves emitted during the ringdown phase of black holes under different field perturbations, we explore the potential for detecting dark matter. The model hypothesizes that the dark matter distribution around black hole is driven by a mechanism where dark energy endows gravitons with mass, thereby forming a new spacetime structure. Results reveal that as relevant parameters increase, the quasinormal modes (QNMs) exhibit a gradual reduction in real parts, with negative imaginary parts whose absolute values also decrease. Moreover, compared to gravitational wave signals from Schwarzschild black hole without dark matter, this system demonstrates significant differences in oscillation modes and frequencies. This achievement not only validates the self-consistency of the new gravitational model but also lays a theoretical foundation for subsequent gravitational wave detection within dark matter. Simultaneously, it provides new theoretical support for understanding the mechanism of dark energy in large-scale cosmic structures and broadens the research perspective on the relationships between black hole physics, dark matter, and dark energy.
format Preprint
id arxiv_https___arxiv_org_abs_2412_07172
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Probing black holes via quasinormal modes in a dark energy-induced dark matter
Liang, Jie
Liu, Dong
Lin, Hao-Jie
Long, Zheng-Wen
General Relativity and Quantum Cosmology
This study delves into the existence of dark matter around supermassive black holes in galactic cores using a novel gravitational model. By analyzing gravitational waves emitted during the ringdown phase of black holes under different field perturbations, we explore the potential for detecting dark matter. The model hypothesizes that the dark matter distribution around black hole is driven by a mechanism where dark energy endows gravitons with mass, thereby forming a new spacetime structure. Results reveal that as relevant parameters increase, the quasinormal modes (QNMs) exhibit a gradual reduction in real parts, with negative imaginary parts whose absolute values also decrease. Moreover, compared to gravitational wave signals from Schwarzschild black hole without dark matter, this system demonstrates significant differences in oscillation modes and frequencies. This achievement not only validates the self-consistency of the new gravitational model but also lays a theoretical foundation for subsequent gravitational wave detection within dark matter. Simultaneously, it provides new theoretical support for understanding the mechanism of dark energy in large-scale cosmic structures and broadens the research perspective on the relationships between black hole physics, dark matter, and dark energy.
title Probing black holes via quasinormal modes in a dark energy-induced dark matter
topic General Relativity and Quantum Cosmology
url https://arxiv.org/abs/2412.07172