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Proper-Time Relativistic Dynamics and the Fushchych-Shtelen Transformation
Author(s) -
Tepper L. Gill,
James Lindesay,
M. F. Mahmood,
W. W. Zachary
Publication year - 1997
Publication title -
journal of nonlinear mathematical physics
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.544
H-Index - 40
eISSN - 1776-0852
pISSN - 1402-9251
DOI - 10.2991/jnmp.1997.4.1-2.2
Subject(s) - mathematics , transformation (genetics) , proper time , space time , theory of relativity , canonical transformation , phase space , spacetime , invariant (physics) , hamiltonian system , poincaré conjecture , coordinate time , classical mechanics , special relativity , relativistic dynamics , observer (physics) , coordinate system , hamiltonian mechanics , mathematical physics , general relativity , physics , geometry , quantum mechanics , biochemistry , chemistry , gene , chemical engineering , engineering , quantum
We report on a new formulation of classical relativistic Hamiltonian mechanics which is based on a proper-time implementation of special relativity using a transformation from observer proper-time, which is not invariant, to system proper-time which is a canonical contact transformation on extended phase-space. This approach does not require the use of time as a fourth coordinate and so we prove that it satisfies the two postulates of special relativity. In the free particle case, our transformation theory generates a Poincare group which fixes time (system proper-time). We prove that the Fushchych-Shtelen transformation is an element of our group, which fixes time for Maxwell's equations. In the interaction case, our transformation theory allows us to avoid the no-interaction theorem. We show that the Santilli Isotopes appear naturally when interaction is turned on.

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