Difference between revisions of "Classical and Relativistic Derivation of the Sagnac Effect"
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− | Both the classical and the relativistic composition law for velocities are applied to re-calculate the Sagnac Effect. The ensuing formulae for the fringe shift are found to differ already in first order of v/c. Whilst the classical formula is validated by interferometric measurements and verified by the GPS-system, this is not the case for the relativistic result.<br />[[Category:Scientific Paper]] | + | Both the classical and the relativistic composition law for velocities are applied to re-calculate the Sagnac Effect. The ensuing formulae for the fringe shift are found to differ already in first order of v/c. Whilst the classical formula is validated by interferometric measurements and verified by the GPS-system, this is not the case for the relativistic result.<br /> |
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+ | [[Category:Scientific Paper|classical relativistic derivation sagnac effect]] | ||
[[Category:Aether]] | [[Category:Aether]] | ||
[[Category:Relativity]] | [[Category:Relativity]] | ||
[[Category:Electrodynamics]] | [[Category:Electrodynamics]] |
Revision as of 10:08, 1 January 2017
Scientific Paper | |
---|---|
Title | Classical and Relativistic Derivation of the Sagnac Effect |
Read in full | Link to paper |
Author(s) | Wolfgang Engelhardt |
Keywords | {{{keywords}}} |
Published | 2013 |
Journal | None |
Read the full paper here
Abstract
Both the classical and the relativistic composition law for velocities are applied to re-calculate the Sagnac Effect. The ensuing formulae for the fringe shift are found to differ already in first order of v/c. Whilst the classical formula is validated by interferometric measurements and verified by the GPS-system, this is not the case for the relativistic result.