Accelerating electrically charged ModMax black hole solutions in F(R) gravity
B. Eslam Panah, N. Heidari, A. Rincón
Abstract
Using the C-metric in the context of F(R) gravity coupled with the ModMax nonlinear electromagnetic field (the F(R)-ModMax theory), we derive an exact black hole solution in a four-dimensional spacetime. We then examine how various parameters influence the behavior of accelerating ModMax black holes. Treating this black hole as a thermodynamic system, we calculate the Hawking temperature and entropy for the accelerating ModMax black holes within the framework of F(R) gravity. Subsequently, we explore the impact of the parameters in F(R)-ModMax theory on the Hawking temperature and entropy. We also assess local stability by analyzing the heat capacity. Additionally, we investigate both the angular shadow and the shadow radius of an accelerating black hole in the context of F(R)-ModMax gravity.
Create a lesson
Related papers
Operator-Level Quantum-Classical Correspondence in Relativistic Quantum Theory and Curved Spacetime
Pankaj Sheoran, Gopal Kashyap, Sanjay Siwach
Thin-Shell Black Bounce
Leandro A. Lessa, Renan B. Magalhães, Gonzalo J. Olmo
Black Hole Perturbation Toolkit: Low frequency and post-Newtonian expansions
Jakob Neef, Chris Kavanagh, Adrian Ottewill
Circular acceleration in Minkowski spacetime: thermality versus finite size
Cameron R D Bunney, Jorma Louko
Kerr-Degenerate Shadows and Distinct Strong-Deflection Lensing in Rotating Hayward-like and Bardeen-like Geometries
Chen-Hung Hsiao, Limei Yuan, Yidun Wan
Reconnection of Gravitational Fields
Luca Comisso, Felipe A. Asenjo