This work is devoted to the study of relativistic anisotropic compact objects. To obtain this
class of solutions of the Einstein field equations, we have developed a general scheme to …

In this article, we consider a well-known charged isotropic Heintzmann solution and extend it
to its anisotropic domain by using gravitational decoupling through extended geometric …

In the present article, the solution of the Einstein–Maxwell field equations in the presence of
a massive scalar field under the Brans-Dicke (BD) gravity is obtained via embedding …

This study delves into the realm of solving Einstein's field equations within the framework of
general relativity. In this paper, we present an exact solution derived through the vanishing …

The study of solution for the compact stellar objects such as neutron stars, white dwarfs, and
black holes have attracted much consideration in recent days. To discuss this, we extended …

We generate new exact solutions to the Einstein-Maxwell field equations for charged
anisotropic stellar objects comprising three interior layers. We develop charged stellar …

In this article, we have obtained a gravitationally decoupled Class-I anisotropic solution for
compact stars using the Buchdahl-type space–time geometry. The anisotropic solution is …

In this paper, we present analytical solutions to the Einstein field equations for spherically
symmetric anisotropic matter distributions using the well-established Tolman VII metric …

A class of solutions of Einstein field equations satisfying Karmarkar embedding condition is
presented which could describe static, spherical fluid configurations, and could serve as …

We generate a neutral core-envelope stellar model with anisotropic fluid distribution which
admits Karmarkar condition. The core and envelope layers are assumed to compose quark …