We give a geometrical derivation of the Dirac equation by considering a spin- 1/2 particle travelling with the speed of light in a cubic spacetime lattice. The mass of the particle acts to flip the multi-component wavefunction at the lattice sites. Starting with a difference equation for the case of one spatial and one time dimensions, we generalize the approach to higher dimensions. Interactions with external electromagnetic and gravitational fields are also considered. One logical interpretation is that only at the lattice sites is the spin- 1/2 particle aware of its mass and the presence of external fields
We present a new approach to study (1+1)-dimensional Dirac equation in the background of an effectiv...
We present an approximate solution to the minimally coupled Einstein-Dirac equations. We interpret t...
Conventional relativistic electrodynamics is set on flat Minkowski spacetime, where all computable q...
We give a geometrical derivation of the Dirac equation by considering a spin- 1/2 particle travellin...
Using a generalized Madelung transformation, we derive the hydrodynamic representation of the Dirac ...
A rigorous ab initio derivation of the (square of) Dirac’s equation for a single particle with spin ...
A rigorous ab initio derivation of the (square of) Dirac’s equation for a single particle with spin ...
A rigorous ab initio derivation of the (square of) Dirac’s equation for a single particle with spin ...
We write the charge-free Maxwell equations in a form analogous to that of the Dirac equation for a f...
Summarization: When quantum fields are coupled to gravitational fields, spontaneous particle creatio...
We write the charge-free Maxwell equations in a form analogous to that of the Dirac equation for a f...
This paper presents new analytic solutions to the Dirac equation employing a recently introduced met...
The introduction of an elementary length (/b a/), defining the ultimate limit for the measurable dis...
Interest on (2 + 1)-dimensional electron systems has increased considerably after the realization of...
Conventional relativistic electrodynamics is set on flat Minkowski spacetime, where all computable q...
We present a new approach to study (1+1)-dimensional Dirac equation in the background of an effectiv...
We present an approximate solution to the minimally coupled Einstein-Dirac equations. We interpret t...
Conventional relativistic electrodynamics is set on flat Minkowski spacetime, where all computable q...
We give a geometrical derivation of the Dirac equation by considering a spin- 1/2 particle travellin...
Using a generalized Madelung transformation, we derive the hydrodynamic representation of the Dirac ...
A rigorous ab initio derivation of the (square of) Dirac’s equation for a single particle with spin ...
A rigorous ab initio derivation of the (square of) Dirac’s equation for a single particle with spin ...
A rigorous ab initio derivation of the (square of) Dirac’s equation for a single particle with spin ...
We write the charge-free Maxwell equations in a form analogous to that of the Dirac equation for a f...
Summarization: When quantum fields are coupled to gravitational fields, spontaneous particle creatio...
We write the charge-free Maxwell equations in a form analogous to that of the Dirac equation for a f...
This paper presents new analytic solutions to the Dirac equation employing a recently introduced met...
The introduction of an elementary length (/b a/), defining the ultimate limit for the measurable dis...
Interest on (2 + 1)-dimensional electron systems has increased considerably after the realization of...
Conventional relativistic electrodynamics is set on flat Minkowski spacetime, where all computable q...
We present a new approach to study (1+1)-dimensional Dirac equation in the background of an effectiv...
We present an approximate solution to the minimally coupled Einstein-Dirac equations. We interpret t...
Conventional relativistic electrodynamics is set on flat Minkowski spacetime, where all computable q...