Circularly symmetric solutions in three-dimensional Teleparallel, f(T) and Maxwell-f(T) gravity
P.A. Gonzalez (Chile U., Santiago & Diego Portales U.), Emmanuel N., Saridakis (Baylor U.), Yerko Vasquez (La Frontera U., Temuco)

TL;DR
This paper explores circularly symmetric solutions in 3D teleparallel gravity, including f(T) and Maxwell-f(T) models, revealing new solutions with novel features like horizon violations and effective cosmological constants.
Contribution
It introduces new circularly symmetric solutions in f(T) and Maxwell-f(T) gravity, highlighting features absent in standard 3D gravity such as horizon violations and deformed charged solutions.
Findings
f(T) gravity admits BTZ-like solutions with effective cosmological constants.
Maxwell-f(T) gravity allows deformed charged BTZ-like solutions.
Horizon and singularity analysis shows possible violations of cosmic censorship.
Abstract
We present teleparallel 3D gravity and we extract circularly symmetric solutions, showing that they coincide with the BTZ and Deser-de-Sitter solutions of standard 3D gravity. However, extending into f(T) 3D gravity, that is considering arbitrary functions of the torsion scalar in the action, we obtain BTZ-like and Deser-de-Sitter-like solutions, corresponding to an effective cosmological constant, without any requirement of the sign of the initial cosmological constant. Finally, extending our analysis incorporating the electromagnetic sector, we show that Maxwell-f(T) gravity accepts deformed charged BTZ-like solutions. Interestingly enough, the deformation in this case brings qualitatively novel terms, contrary to the pure gravitational solutions where the deformation is expressed only through changes in the coefficients. We investigate the singularities and the horizons of the new…
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