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Gravitational lensing by the hairy Schwarzschild black hole

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arxiv 2205.06052 v1 pith:FB6KIOQA submitted 2022-05-12 gr-qc hep-th

classification gr-qchep-th
keywords blackholelensingschwarzschildalphahairydecreasesgravitational
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abstract

In this manuscript, we consider the hairy Schwarzschild black hole that evades the no-hair theorem. The hair is induced by an additional source from surroundings, such as dark matter, that has a constant energy-momentum tensor(EMT). We study the strong gravitational lensing of light in the background of the hairy Schwarzschild black hole. We observe that the lensing coefficient $\overline{a}$ increases with $\alpha$ but decreases with $\ell_0$. The opposite effect is observed for the lensing coefficient $\overline{b}$ and the impact parameter $b_m$. We also notice that the angular position $\theta_\infty$ decreases with $\alpha$ but increases with $\ell_0$, whereas the angular separation $s$ increases with $\alpha$ and decreases with $\ell_0$. For all parameters mentioned, we regain their values for the Schwarzschild black hole whenever we put either $\alpha=0$ or $\ell_0=1$. With the help of the Gauss-Bonnet theorem, we briefly describe the weak gravitational lensing in the background of the hairy Schwarzschild black hole.

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  1. Thin Accretion Disk Around Rotating Hairy Black Hole: Radiative Property and Optical Appearance

    gr-qc 2025-01 conditional novelty 4.0 of 10

    For a rotating hairy black hole, thin-disk flux, temperature, luminosity, and ray-traced images deviate increasingly from Kerr as spin grows, especially in the inner disk.

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