Institute of Theoretical Physics · Faculty of Mathematics and Physics, Charles University
Nuovo Cim. B 110(8), 973-991 (1995)
In a series of papers, Abramowicz and coworkers have shown that the interpretation of relativistic motion in terms of «Newtonian forces» can provide intuition about the space-time geometry, in spite of an inherent ambiguity of 3-dimensional language within relativity. Considering a general space-time, I suggest here a decomposition of test particle's 4-acceleration into contributions from the «gravitational» («gravitoelectric»), the «dragging» («gravitomagnetic»), the «Coriolis», the «centrifugal» («normal-intrinsic-inertial-resistance») and the «tangent-intrinsic-inertial-resistance» forces. I show that the decomposition yields, at least in several «standard» situations, very plausible results. Connections of the presented point of view with «gravitoelectromagnetism» are outlined in the appendix.
@article{UTF742,
author = {Semerák, O.},
title = {{What forces drive the relativistic motion?}},
journal = {Nuovo Cim. B},
volume = {110},
number = {8},
pages = {973-991},
year = {1995},
month = {8},
doi = {10.1007/BF02722865},
url = {https://link.springer.com/article/10.1007\%2FBF02722865},
}