The tools developed in a preceding article for interpreting spacetime geometry in terms of all possible space-plus-time splitting approaches are applied to circular orbits in some familiar stationary axisymmetric spacetimes. This helps give a more intuitive picture of their rotational features including spin precession effects, and puts related work of Abramowicz, de Felice, and others on circular orbits in black hole spacetimes into a more general context
We generalize to Kerr spacetime previous gravitational self-force results on gyroscope precession al...
During typical general relativity courses, the so-called frame-dragging effect is explained by empha...
During typical general relativity courses, the so-called frame-dragging effect is explained by empha...
Parallel transport along circular orbits in orthogonally transitive stationary axisymmetric spacetim...
We analyze the relativistic dynamical properties of Keplerian and non-Keplerian circular orbits in a...
Particles moving along prescribed, relativistically rotating trajectories may exhibit quite unexpect...
Particles moving along prescribed, relativistically rotating trajectories may exhibit quite unexpect...
Particles moving along prescribed, relativistically rotating trajectories may exhibit quite unexpect...
Particles moving along prescribed, relativistically rotating trajectories may exhibit quite unexpect...
http://arxiv.org/abs/gr-qc/0102101Rapporteur's Introduction to the GT8 session of the Ninth Marcel G...
Forces defined in the framework of optical reference geometry are introduced in the case of stationa...
We study the phenomenon of gyroscopic precession and the analogues of inertial forces within the fra...
The general relativistic motion of a test particle near a rigidly rotating disk of dust is investiga...
http://arxiv.org/abs/gr-qc/9803017The inertial and gravitational properties of intrinsic spin are di...
In this article, we first consider briefly the basic properties of the non-rotating Schwarzschild bl...
We generalize to Kerr spacetime previous gravitational self-force results on gyroscope precession al...
During typical general relativity courses, the so-called frame-dragging effect is explained by empha...
During typical general relativity courses, the so-called frame-dragging effect is explained by empha...
Parallel transport along circular orbits in orthogonally transitive stationary axisymmetric spacetim...
We analyze the relativistic dynamical properties of Keplerian and non-Keplerian circular orbits in a...
Particles moving along prescribed, relativistically rotating trajectories may exhibit quite unexpect...
Particles moving along prescribed, relativistically rotating trajectories may exhibit quite unexpect...
Particles moving along prescribed, relativistically rotating trajectories may exhibit quite unexpect...
Particles moving along prescribed, relativistically rotating trajectories may exhibit quite unexpect...
http://arxiv.org/abs/gr-qc/0102101Rapporteur's Introduction to the GT8 session of the Ninth Marcel G...
Forces defined in the framework of optical reference geometry are introduced in the case of stationa...
We study the phenomenon of gyroscopic precession and the analogues of inertial forces within the fra...
The general relativistic motion of a test particle near a rigidly rotating disk of dust is investiga...
http://arxiv.org/abs/gr-qc/9803017The inertial and gravitational properties of intrinsic spin are di...
In this article, we first consider briefly the basic properties of the non-rotating Schwarzschild bl...
We generalize to Kerr spacetime previous gravitational self-force results on gyroscope precession al...
During typical general relativity courses, the so-called frame-dragging effect is explained by empha...
During typical general relativity courses, the so-called frame-dragging effect is explained by empha...