The tensor analytical relationships of Dirac's equation
arXiv:physics/0508002
Abstract
Dirac's equation of the electron will be discussed by using quaternions as the basis of a new formalism which seems to be very well adapted to the problem. The transformation properties of the equations as well as the invariant and covariant [bilinear] constructions of Dirac's theory are developed uniformly and systematically. A method of obtaining a covariant formulation of the equations using customary tensor calculus also offers itself unequivocally if we duplicate the Dirac equations. (Editorial note: In this paper Lanczos introduces his ``fundamental equation,'' Eq. (54), from which two Dirac fields forming an isospin doublet, or two spin 1 fields of opposite parities, derive.)
31 pages. Initial translation by Josef Illy and Judith Konstag Masko. Final translation and editorial notes by Andre Gsponer
References in corpus (8)
- Lanczos - Einstein - Petiau: From Dirac's equation to nonlinear wave mechanics
- The relations of the homogeneous Maxwell's equations to the theory of functions
- Lanczos's equation to replace Dirac's equation ?
- Lanczos's functional theory of electrodynamics: A commentary on Lanczos's PhD dissertation
- Cornelius Lanczos's derivation of the usual action integral of classical electrodynamics
- On the covariant formulation of Dirac's equation
- Dirac's wave mechanical theory of the electron and its field theoretical interpretation
- The conservation laws in the field theoretical representation of Dirac's theory
Cited by in corpus (9)
- Lanczos - Einstein - Petiau: From Dirac's equation to nonlinear wave mechanics
- Quaternions in mathematical physics (1): Alphabetical bibliography
- On the physical interpretation of singularities in Lanczos-Newman electrodynamics
- The relations of the homogeneous Maxwell's equations to the theory of functions
- Dirac's wave mechanical theory of the electron and its field theoretical interpretation
- On the covariant formulation of Dirac's equation
- The conservation laws in the field theoretical representation of Dirac's theory
- Dirac-Kähler particle in Riemann spherical space: boson interpretation
- Dirac-Kahler equation in curved space-time, relation between spinor and tensor formulations