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==Abstract==
==Abstract==


One of the highly touted successes of modern physics is Einstein's special telativity theory (SRT), of which the Lorentz transformations are an essential ingredient. Another is Quantum Electrodynamics (QED), in which Maxwell's Equations are obviously important. It happens that Maxwell's equations automatically are consistent with the Lorentz transformation equations, yet there is, as yet, no successful theory incorporating the features of both SRT and QED. The present paper is not an attempt to bridge the gap, but rather to point out the inherent inconsistency between the two theories.[[Category:Scientific Paper]]
One of the highly touted successes of modern physics is Einstein's special telativity theory (SRT), of which the Lorentz transformations are an essential ingredient. Another is Quantum Electrodynamics (QED), in which Maxwell's Equations are obviously important. It happens that Maxwell's equations automatically are consistent with the Lorentz transformation equations, yet there is, as yet, no successful theory incorporating the features of both SRT and QED. The present paper is not an attempt to bridge the gap, but rather to point out the inherent inconsistency between the two theories.


[[Category:Relativity]]
[[Category:Scientific Paper|einsteinian quantum-mechanical observers]]
 
[[Category:Relativity|einsteinian quantum-mechanical observers]]

Latest revision as of 21:28, 1 January 2017

Scientific Paper
TitleEinsteinian and Quantum-Mechanical Observers
Author(s)Howard C Hayden
KeywordsEinstein's special relativity theory, Maxwell's Equations, Quantum Electrodynamics
Published1993
JournalGalilean Electrodynamics
Volume4
Number2
Pages29-31

Abstract

One of the highly touted successes of modern physics is Einstein's special telativity theory (SRT), of which the Lorentz transformations are an essential ingredient. Another is Quantum Electrodynamics (QED), in which Maxwell's Equations are obviously important. It happens that Maxwell's equations automatically are consistent with the Lorentz transformation equations, yet there is, as yet, no successful theory incorporating the features of both SRT and QED. The present paper is not an attempt to bridge the gap, but rather to point out the inherent inconsistency between the two theories.