Spherically symmetric anisotropic charged solution under complete geometric deformation approach

Abstract We present a new systematic approach to find the exact gravitationally decoupled anisotropic spherical solution in the presence of electric charge by using the complete geometric deformation (CGD) methodology. To do this, we apply the transformations over both gravitational potentials by in...

Full description

Bibliographic Details
Main Authors: S. K. Maurya, Asma Mohammed Al Aamri, Athari Khalifa Al Aamri, Riju Nag
Format: Article
Language:English
Published: SpringerOpen 2021-08-01
Series:European Physical Journal C: Particles and Fields
Online Access:https://doi.org/10.1140/epjc/s10052-021-09493-y
id doaj-bdad109f4d6e47b18e11f00165d03e48
record_format Article
spelling doaj-bdad109f4d6e47b18e11f00165d03e482021-08-08T11:13:20ZengSpringerOpenEuropean Physical Journal C: Particles and Fields1434-60441434-60522021-08-0181812110.1140/epjc/s10052-021-09493-ySpherically symmetric anisotropic charged solution under complete geometric deformation approachS. K. Maurya0Asma Mohammed Al Aamri1Athari Khalifa Al Aamri2Riju Nag3Department of Mathematical and Physical Sciences, College of Arts and Science, University of NizwaDepartment of Mathematical and Physical Sciences, College of Arts and Science, University of NizwaDepartment of Mathematical and Physical Sciences, College of Arts and Science, University of NizwaDepartment of Mathematical and Physical Sciences, College of Arts and Science, University of NizwaAbstract We present a new systematic approach to find the exact gravitationally decoupled anisotropic spherical solution in the presence of electric charge by using the complete geometric deformation (CGD) methodology. To do this, we apply the transformations over both gravitational potentials by introducing two unknown deformation functions. This new systematic approach allows us to obtain the exact solution of the field equations without imposing any particular ansatz for the deformation functions. Specifically, a well-known mimic approach and equation of state (EOS) have been applied together for solving the system of equations, which determine the radial and temporal deformation functions, respectively. The matching conditions at the boundary of the stellar objects with the exterior Reissner–Nordström metric are discussed in detail. In order to see the physical validity of the solution, we used well-behaved interior seed spacetime geometry and solved the system of equations using the above approaches. Next, we presented several physical properties of the solution through their graphical representations. The stability and dynamical equilibrium of the solution have been also discussed. Finally, we predicted the radii and mass-radius ratio for several compact objects for different decoupling parameters together with the impact of the decoupling parameters on the thermodynamical observables.https://doi.org/10.1140/epjc/s10052-021-09493-y
collection DOAJ
language English
format Article
sources DOAJ
author S. K. Maurya
Asma Mohammed Al Aamri
Athari Khalifa Al Aamri
Riju Nag
spellingShingle S. K. Maurya
Asma Mohammed Al Aamri
Athari Khalifa Al Aamri
Riju Nag
Spherically symmetric anisotropic charged solution under complete geometric deformation approach
European Physical Journal C: Particles and Fields
author_facet S. K. Maurya
Asma Mohammed Al Aamri
Athari Khalifa Al Aamri
Riju Nag
author_sort S. K. Maurya
title Spherically symmetric anisotropic charged solution under complete geometric deformation approach
title_short Spherically symmetric anisotropic charged solution under complete geometric deformation approach
title_full Spherically symmetric anisotropic charged solution under complete geometric deformation approach
title_fullStr Spherically symmetric anisotropic charged solution under complete geometric deformation approach
title_full_unstemmed Spherically symmetric anisotropic charged solution under complete geometric deformation approach
title_sort spherically symmetric anisotropic charged solution under complete geometric deformation approach
publisher SpringerOpen
series European Physical Journal C: Particles and Fields
issn 1434-6044
1434-6052
publishDate 2021-08-01
description Abstract We present a new systematic approach to find the exact gravitationally decoupled anisotropic spherical solution in the presence of electric charge by using the complete geometric deformation (CGD) methodology. To do this, we apply the transformations over both gravitational potentials by introducing two unknown deformation functions. This new systematic approach allows us to obtain the exact solution of the field equations without imposing any particular ansatz for the deformation functions. Specifically, a well-known mimic approach and equation of state (EOS) have been applied together for solving the system of equations, which determine the radial and temporal deformation functions, respectively. The matching conditions at the boundary of the stellar objects with the exterior Reissner–Nordström metric are discussed in detail. In order to see the physical validity of the solution, we used well-behaved interior seed spacetime geometry and solved the system of equations using the above approaches. Next, we presented several physical properties of the solution through their graphical representations. The stability and dynamical equilibrium of the solution have been also discussed. Finally, we predicted the radii and mass-radius ratio for several compact objects for different decoupling parameters together with the impact of the decoupling parameters on the thermodynamical observables.
url https://doi.org/10.1140/epjc/s10052-021-09493-y
work_keys_str_mv AT skmaurya sphericallysymmetricanisotropicchargedsolutionundercompletegeometricdeformationapproach
AT asmamohammedalaamri sphericallysymmetricanisotropicchargedsolutionundercompletegeometricdeformationapproach
AT atharikhalifaalaamri sphericallysymmetricanisotropicchargedsolutionundercompletegeometricdeformationapproach
AT rijunag sphericallysymmetricanisotropicchargedsolutionundercompletegeometricdeformationapproach
_version_ 1721216219906834432