Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Il Nuovo Cimento

Velocity of the Dirac electron

Ziro Koba

Published Jan 1, 1956• 6 citations
Publisher
DOI
10.1007/bf02746189

Related papers

On the Notion of Velocity in the Dirac Theory of the Electron

CRC Press eBooks•May 21, 2004•17 citations

Anomalous velocity operator in multi-particle Dirac system with electron-electron interaction

이현우

•Jun 23, 2018•0 citations

Electron exchange-correlation in quantum mechanics

Burke Ritchie

It is shown that Fermi-Dirac statistics is guaranteed by the Dirac current, from which spin-dependent quantum velocity fields and spin-dependent quantum trajectories can be inferred. Pauli's exclusion principle is demonstrated using the spin-dependent quantum trajectories. The Dirac current, unlike the Schroedinger current, is nonzero for stationary bound states due to the permanent magnetic moment of the electron. It is of order c{sup 0} in agreement with observation that Fermi-Dirac statistics is independent of electronic velocity. In summary the physical basis for exchange-correlation is found in Dirac's equation, although Schroedinger's equation may be used to evaluate the Dirac current in the nonrelativistic regime of electronic velocity.

•Jan 30, 2009•0 citations

The velocity and angular momentum of a free Dirac electron

Lu Lin

It is shown that, in Dirac theory, there is a spatial velocity of a free electron which commutes with the Hamiltonian, so it is a conserved quantity of the motion. Furthermore, there is a spatial orbital angular momentum which also commutes with the Hamiltonian and is a constant of the motion.

arXiv:physics/9804024•Apr 22, 1998•0 citations

Trajectory of a Dirac electron in the hydrogen

善郎 西山

•Oct 1, 2000•0 citations

Two Relativistic Models of Dirac's Electron

Jan W. Weyssenhoff

Nature•Jun 22, 1946•1 citation
It is shown that Fermi-Dirac statistics is guaranteed by the Dirac current, from which spin-dependent quantum velocity fields and spin-dependent quantum trajectories can be inferred. Pauli's exclusion principle is demonstrated using the spin-dependent quantum trajectories. The Dirac current, unlike the Schroedinger current, is nonzero for stationary bound states due to the permanent magnetic moment of the electron. It is of order c{sup 0} in agreement with observation that Fermi-Dirac statistics is independent of electronic velocity. In summary the physical basis for exchange-correlation is found in Dirac's equation, although Schroedinger's equation may be used to evaluate the Dirac current in the nonrelativistic regime of electronic velocity.