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Physical analysis of Yukawa–Casimir traversable wormhole solutions in non-minimally coupled f(T) gravity

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Abstract

This article is based on the analysis of wormhole geometries in the perspective of non-minimal torsion-matter coupled gravity. In this work, we consider an explicit non-minimal coupling between an impulsive function of torsion scalar and the Lagrangian density of matter. In this exploration, we propose two profiles of energy densities for two non-minimally coupled f(T) gravity models and graphical plots are analyzed for different viable solutions. Wormhole solutions obtained from these models corresponding to Casimir profile violate null energy condition, whereas solutions corresponding to Yukawa–Casimir profile satisfy the null energy condition to support the wormhole geometries. Moreover, we also examine the stability of obtained solutions through Tolman–Oppenheimer–Volkoff equation and it exhibits that our calculated results are stable.

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There is no associate data regarding this manuscript.

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Jawad, A., Sulehri, M.B.A. & Rani, S. Physical analysis of Yukawa–Casimir traversable wormhole solutions in non-minimally coupled f(T) gravity. Eur. Phys. J. Plus 137, 1274 (2022). https://doi.org/10.1140/epjp/s13360-022-03453-5

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