Difference between revisions of "On Maxwell-Lorentz Equations"
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− | In this paper, the Maxwell-Lorentz equations have been derived for a particle of mass moving in the presence of other particles. It is proved that the gravitational field due to a moving particle consist of i) an irrotational part (gradient of a scalar) and ii) a part depending on velocity and a rotational part (curl of a vector). Finally the Lorentz Force equation and the relativistic equation for planetary motion are derived.[[Category:Scientific Paper]] | + | In this paper, the Maxwell-Lorentz equations have been derived for a particle of mass moving in the presence of other particles. It is proved that the gravitational field due to a moving particle consist of i) an irrotational part (gradient of a scalar) and ii) a part depending on velocity and a rotational part (curl of a vector). Finally the Lorentz Force equation and the relativistic equation for planetary motion are derived. |
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+ | [[Category:Scientific Paper|maxwell-lorentz equations]] | ||
[[Category:Relativity]] | [[Category:Relativity]] |
Revision as of 10:48, 1 January 2017
Scientific Paper | |
---|---|
Title | On Maxwell-Lorentz Equations |
Read in full | Link to paper |
Author(s) | M R Chandramohanan |
Keywords | {{{keywords}}} |
Published | 2010 |
Journal | Proceedings of the NPA |
Volume | 7 |
Number | 2 |
No. of pages | 5 |
Pages | 660-664 |
Read the full paper here
Abstract
In this paper, the Maxwell-Lorentz equations have been derived for a particle of mass moving in the presence of other particles. It is proved that the gravitational field due to a moving particle consist of i) an irrotational part (gradient of a scalar) and ii) a part depending on velocity and a rotational part (curl of a vector). Finally the Lorentz Force equation and the relativistic equation for planetary motion are derived.