Black Hole Dynamics in Power-law based Metric \(f(R)\) Gravity

In this work, we use power-law cosmology to investigate the evolution of black holes within the context of metric \(f(R)\) gravity satisfying the conditions provided by Starobinsky model. In our study, it is observed that presently accelerated expansion of the universe can be suitably explained by t...

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Published in:arXiv.org 2020-10
Main Authors: Pati, Suraj Kumar, Nayak, Bibekananda, Lambodar Prasad Singh
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Language:English
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Cosmology
Dark energy
Deposition
Gravitation
Power law
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description In this work, we use power-law cosmology to investigate the evolution of black holes within the context of metric \(f(R)\) gravity satisfying the conditions provided by Starobinsky model. In our study, it is observed that presently accelerated expansion of the universe can be suitably explained by this integrated model without the need for dark energy. We also found that mass of a black hole decreases by absorbing surroundings energy-matter due to modification of gravity and more the accretion rate more is mass loss. Particularly the black holes, whose formation masses are nearly \(10^{20}\) gm and above, are evaporated at a particular time irrespective of their formation mass. Again our analysis reveals that the maximum mass of a black hole supported by metric \(f(R)\) gravity is \(10^{12} M_{\odot}\), where \(M_{\odot}\) represents the solar mass.
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subjects Cosmology
Dark energy
Deposition
Gravitation
Power law
title Black Hole Dynamics in Power-law based Metric \(f(R)\) Gravity
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