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Solar system constraints on f(T) gravity

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arxiv 1203.5781 v2 pith:4C5LAE4M submitted 2012-03-26 gr-qc astro-ph.CO

classification gr-qcastro-ph.CO
keywords alloweddivergencegravityformgravitationalobservationsordersolar
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We use recent observations from solar system orbital motions in order to constrain f(T) gravity. In particular, imposing a quadratic f(T) correction to the linear-in-T form, which is a good approximation for every realistic case, we extract the spherical solutions of the theory. Using these spherical solutions to describe the Sun's gravitational field, we use recently determined supplementary advances of planetary perihelia, to infer upper bounds on the allowed f(T) corrections. We find that the maximal allowed divergence of the gravitational potential in f(T) gravity from that in the teleparallel equivalent of General Relativity is of the order of 6.2 \times 10^{-10}, in the applicability region of our analysis. This is much smaller than the corresponding (significantly small too) divergence that is predicted from cosmological observations, as expected. Such a tiny allowed divergence from the linear form should be taken into account in f(T) model building.

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Cited by 2 Pith papers

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  1. Cosmological Constraints on Minimal Cubic Galileon Models in Teleparallel Gravity

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    Observational constraints on teleparallel cubic Galileon cosmologies with quadratic and exponential potentials show viability for late-time acceleration, with the fixed b1 quadratic case competitive under AIC but not BIC.

  2. Bouncing Cosmology in Interacting Scalar-Torsion Gravity

    gr-qc 2025-08 conditional novelty 3.0 of 10

    Two interacting scalar-torsion models are shown, by tuned numerical construction, to host a matter bounce with phantom equation of state and NEC violation at the bounce epoch.

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