Total Time Derivatives, Again - Revision history

Maintenance script: Imported from text file

2017-01-02T03:10:36Z

Imported from text file

← Older revision		Revision as of 23:10, 1 January 2017
Line 15:		Line 15:
	[[Category:Scientific Paper\|total time derivatives]]		[[Category:Scientific Paper\|total time derivatives]]

	[[Category:Electrodynamics]]		[[Category:Electrodynamics\|total time derivatives]]

Maintenance script: Imported from text file

2017-01-01T18:33:20Z

Imported from text file

← Older revision		Revision as of 14:33, 1 January 2017
Line 13:		Line 13:
	Treatments of the invariant total time derivative by Mocanu [4] and by Post [3] are compared and found to be in substantial agreement, despite their different mathematical appearances. It is argued that the line integral approach is better adapted to electrodynamics and the surface integral approach to hydrodynamics. The line integral seems to yield a physically satisfactory invariant form of the electrodynamic force law based on the total time derivative.		Treatments of the invariant total time derivative by Mocanu [4] and by Post [3] are compared and found to be in substantial agreement, despite their different mathematical appearances. It is argued that the line integral approach is better adapted to electrodynamics and the surface integral approach to hydrodynamics. The line integral seems to yield a physically satisfactory invariant form of the electrodynamic force law based on the total time derivative.

	[[Category:Scientific Paper]]		[[Category:Scientific Paper\|total time derivatives]]

	[[Category:Electrodynamics]]		[[Category:Electrodynamics]]

Maintenance script: Imported from text file

2016-12-30T05:04:38Z

Imported from text file

New page

{{Infobox paper
| title = Total Time Derivatives, Again
| author = [[Thomas E Phipps]]
| published = 2004
| journal = [[Galilean Electrodynamics]]
| volume = [[15]]
| number = [[4]]
| pages = 77-80
}}

==Abstract==

Treatments of the invariant total time derivative by Mocanu [4] and by Post [3] are compared and found to be in substantial agreement, despite their different mathematical appearances. It is argued that the line integral approach is better adapted to electrodynamics and the surface integral approach to hydrodynamics. The line integral seems to yield a physically satisfactory invariant form of the electrodynamic force law based on the total time derivative.

[[Category:Scientific Paper]]

[[Category:Electrodynamics]]