We present a novel approach to establish the Birkhoff's theorem validity in the so-called quadratic Poincare Gauge theories of gravity. By obtaining the field equations via the Palatini formalism, we find paradigmatic scenarios where the theorem applies neatly. For more general and physically relevant situations, a suitable decomposition of the torsion tensor also allows us to establish the validity of the theorem. Our analysis shows rigorously how for all stable cases under consideration, the only solution of the vacuum field equations is a torsionless Schwarzschild spacetime, although it is possible to find non-Schwarzschild metrics in the realm of unstable Lagrangians. Finally, we study the weakened formulation of the Birkhoff's theorem ...
Abstract We revisit the definition and some of the characteristics of quadratic theories of gravity ...
We find a new exact vacuum solution in the framework of the Poincaré Gauge field theory with massive...
We investigate the gravitational Lagrangian LG=(c4/16πG)R-(ℏc/16παG) Rαβγδ Rαβγδ, where the curvatur...
We present a novel approach to establish the Birkhoff's theorem validity in the so-called quadratic ...
We present a novel approach to establish the Birkhoff's theorem validity in the so-called quadratic ...
We present a novel approach to establish the Birkhoff's theorem validity in the so-called quadratic ...
We present a novel approach to establish the Birkhoff's theorem validity in the so-called quadratic ...
We revisit the definition and some of the characteristics of quadratic theories of gravity with tors...
Poincaré gauge theories provide an approach to gravity based on the gauging of the Poincaré group, w...
Poincaré gauge theories provide an approach to gravity based on the gauging of the Poincaré group, w...
We derive a new exact static and spherically symmetric vacuum solution in the framework of the Poinc...
Poincaré gauge theories provide an approach to gravity based on the gauging of the Poincaré group, w...
We revisit the definition and some of the characteristics of quadratic theories of gravity with tors...
The objective of this Thesis is to explore Poincaré Gauge theories of gravity and expose some contri...
Poincaré gauge theories provide an approach to gravity based on the gauging of the Poincaré group, w...
Abstract We revisit the definition and some of the characteristics of quadratic theories of gravity ...
We find a new exact vacuum solution in the framework of the Poincaré Gauge field theory with massive...
We investigate the gravitational Lagrangian LG=(c4/16πG)R-(ℏc/16παG) Rαβγδ Rαβγδ, where the curvatur...
We present a novel approach to establish the Birkhoff's theorem validity in the so-called quadratic ...
We present a novel approach to establish the Birkhoff's theorem validity in the so-called quadratic ...
We present a novel approach to establish the Birkhoff's theorem validity in the so-called quadratic ...
We present a novel approach to establish the Birkhoff's theorem validity in the so-called quadratic ...
We revisit the definition and some of the characteristics of quadratic theories of gravity with tors...
Poincaré gauge theories provide an approach to gravity based on the gauging of the Poincaré group, w...
Poincaré gauge theories provide an approach to gravity based on the gauging of the Poincaré group, w...
We derive a new exact static and spherically symmetric vacuum solution in the framework of the Poinc...
Poincaré gauge theories provide an approach to gravity based on the gauging of the Poincaré group, w...
We revisit the definition and some of the characteristics of quadratic theories of gravity with tors...
The objective of this Thesis is to explore Poincaré Gauge theories of gravity and expose some contri...
Poincaré gauge theories provide an approach to gravity based on the gauging of the Poincaré group, w...
Abstract We revisit the definition and some of the characteristics of quadratic theories of gravity ...
We find a new exact vacuum solution in the framework of the Poincaré Gauge field theory with massive...
We investigate the gravitational Lagrangian LG=(c4/16πG)R-(ℏc/16παG) Rαβγδ Rαβγδ, where the curvatur...