DocumentCode :
1437285
Title :
The radiation continuum model of light and the Galilean invariance of Maxwell´s equations
Author :
Renshaw, Curtis E. ; Kallfelz, William M.
Author_Institution :
Tele-Consultants Inc., USA
Volume :
13
Issue :
10
fYear :
1998
fDate :
10/1/1998 12:00:00 AM
Firstpage :
3
Lastpage :
8
Abstract :
The original basis for the Lorentz transformations, and thus special relativity, was the assumption that the observed velocity of interaction of light with matter represents a unique velocity of the electromagnetic wave. This arbitrary decision is not borne out by Maxwell´s theories or by any test that might prove that EM energy actually travels in a continuum of velocities. The second postulate as stated by Einstein does not deserve the status of a postulate, as it is at once overly restrictive and ultimately phenomenological-the nature of c is based on experimental measurement rather than on analysis of first principles. The radiation continuum model´s (RCM) modified second postulate, however, says nothing about the actual propagation of EM energy, but only of the relative speed with which it must interact with matter to be detected. Utilizing this modified light principle we obtain an intuitive Galilean form invariance for Maxwell´s equations. RCM places no upper limit on attainable velocities, and allows for the possibility of communications between humans or particles at speeds far in excess of c. This precludes many of the compatibility problems between the highly successful quantum mechanics and relativity theory
Keywords :
Lorentz transformation; Maxwell equations; classical field theory; electrodynamics; invariance; light velocity; physics fundamentals; Doppler shift; Galilean invariance; Lorentz transformations; Maxwell´s equations; aberration; current carrying wire; electrodynamics; equivalence principle; force on moving charge; inertial reference frame; light-matter interaction velocity; modified light principle; modified second postulate; radiation continuum model of light; special relativity; Electromagnetic propagation; Electromagnetic radiation; Maxwell equations; Motion detection; Optical propagation; Radiation detectors; Velocity measurement;
fLanguage :
English
Journal_Title :
Aerospace and Electronic Systems Magazine, IEEE
Publisher :
ieee
ISSN :
0885-8985
Type :
jour
DOI :
10.1109/62.722407
Filename :
722407
Link To Document :
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