Abstract We investigate how a spherically symmetric fluid modifies the Schwarzschild vacuum solution when there is no exchange of energy-momentum between the fluid and the central source of the Schwarzschild metric. This system is described by means of the gravitational decoupling realised via the minimal geometric deformation approach, which allows us to prove that the fluid must be anisotropic. Several cases are then explicitly shown
We use gravitational decoupling to establish a connection between the minimal geometric deformation ...
We investigate the extension of isotropic inte- rior solutions for static self-gravitating systems t...
We investigate the extension of isotropic inte- rior solutions for static self-gravitating systems t...
We investigate how a spherically symmetric fluid modifies the Schwarzschild vacuum solution when the...
We investigate how a spherically symmetric fluid modifies the Schwarzschild vacuum solution when the...
We investigate how a spherically symmetric fluid modifies the Schwarzschild vacuum solution when the...
We investigate how a spherically symmetric scalar field can modify the Schwarzschild vacuum solution...
none5siWe investigate how a spherically symmetric scalar field can modify the Schwarzschild vacuum s...
Abstract In this article, using gravitational decoupling by means of minimal geometric deformation a...
In this article, using gravitational decoupling by means of minimal geometric deformation approach, ...
We investigate the extension of isotropic interior solutions for static self-gravitating systems to ...
In the present paper, we analyze the well-known 2+1 dimensional black holes (assuming a non-vanishin...
Abstract We investigate the extension of isotropic interior solutions for static self-gravitating sy...
We employ the minimal geometric deformation approach to gravitational decoupling (MGD-decoupling) in...
We show how to decoupling two spherically symmetric and static gravitational sources through the mos...
We use gravitational decoupling to establish a connection between the minimal geometric deformation ...
We investigate the extension of isotropic inte- rior solutions for static self-gravitating systems t...
We investigate the extension of isotropic inte- rior solutions for static self-gravitating systems t...
We investigate how a spherically symmetric fluid modifies the Schwarzschild vacuum solution when the...
We investigate how a spherically symmetric fluid modifies the Schwarzschild vacuum solution when the...
We investigate how a spherically symmetric fluid modifies the Schwarzschild vacuum solution when the...
We investigate how a spherically symmetric scalar field can modify the Schwarzschild vacuum solution...
none5siWe investigate how a spherically symmetric scalar field can modify the Schwarzschild vacuum s...
Abstract In this article, using gravitational decoupling by means of minimal geometric deformation a...
In this article, using gravitational decoupling by means of minimal geometric deformation approach, ...
We investigate the extension of isotropic interior solutions for static self-gravitating systems to ...
In the present paper, we analyze the well-known 2+1 dimensional black holes (assuming a non-vanishin...
Abstract We investigate the extension of isotropic interior solutions for static self-gravitating sy...
We employ the minimal geometric deformation approach to gravitational decoupling (MGD-decoupling) in...
We show how to decoupling two spherically symmetric and static gravitational sources through the mos...
We use gravitational decoupling to establish a connection between the minimal geometric deformation ...
We investigate the extension of isotropic inte- rior solutions for static self-gravitating systems t...
We investigate the extension of isotropic inte- rior solutions for static self-gravitating systems t...