Strange stars in $f(R,\mathcal{T})$ gravity
Debabrata Deb, Farook Rahaman, Saibal Ray, B.K. Guha

TL;DR
This paper models strange stars within $f(R, ext{T})$ gravity, deriving exact solutions and analyzing how matter-geometry coupling affects their physical properties, showing consistency with observational data and general relativity in the appropriate limit.
Contribution
It introduces a novel exact solution for strange stars in $f(R, ext{T})$ gravity using the MIT bag model EOS, exploring the impact of matter-geometry coupling on stellar characteristics.
Findings
Stars become more compact and less massive as $ ext{chi}$ increases.
Maximum mass remains within observational limits.
Model reduces to GR results when $ ext{chi}=0$.
Abstract
In this article we try to present spherically symmetric isotropic strange star model under the framework of theory of gravity. To this end, we consider that the Lagrangian density is an arbitrary linear function of the Ricci scalar and the trace of the energy momentum tensor~ given as . We also assume that the quark matter distribution is governed by the simplest form of the MIT bag model equation of state (EOS) as , where is the bag constant. We have obtained an exact solution of the modified form of the the Tolman-Oppenheimer-Volkoff (TOV) equation in the framework of gravity theory and studied the dependence of different physical properties, viz., total mass, radius, energy density and pressure on the chosen values of . Further, to examine…
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