The commutator algebra of covariant derivative as general framework for extended gravity. The Rastall theory case and the role of the torsion
arXiv:1706.06863 · doi:10.1142/S0219887817300033
Abstract
In this short review, we discuss the approach of the commutator algebra of covariant derivative to analyse the gravitational theories, starting from the standard Einstein's general theory of relativity and focusing on the Rastall theory. After that, we discuss the important role of the torsion in this mathematical framework. In the Appendix of the paper we analyse the importance of the nascent gravitational wave astronomy as a tool to discriminate among the general theory of relativity and alternative theories of gravity.
20 pages, final version. Invited short review published in IJGMMP
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- A connection between Rastall-type and f(R, T) gravities
- Role of Non-conserved Gravity Theory and Electric Charge in Constructing Complexity-free Stellar Models: A Novel Approach under Non-minimal Coupling
- Black hole solutions and Euler equation in Rastall and generalized Rastall theories of gravity
- Implications of Rastall Theory on Stellar Solutions admitting Vanishing Complexity: A New Perspective
- Gravitational Analysis of Einstein-Non-Linear-Maxwell-Yukawa Black Hole under the Effect of Newman-Janis Algorithm