Relativistic wave equations with fractional derivatives and pseudo-differential operators
arXiv:hep-th/0003126 · doi:10.1155/S1110757X02110102
Abstract
The class of the free relativistic covariant equations generated by the fractional powers of the D'Alambertian operator is studied. Meanwhile the equations corresponding to n=1 and 2 (Klein-Gordon and Dirac equations) are local in their nature, the multicomponent equations for arbitrary n>2 are non-local. It is shown, how the representation of generalized algebra of Pauli and Dirac matrices looks like and how these matrices are related to the algebra of SU(n) group. The corresponding representations of the Poincaré group and further symmetry transformations on the obtained equations are discussed. The construction of the related Green functions is suggested.
29 pages, Tex. In the corrected version a small bug in cross-references to some equations is removed. Minor text corrections are done and some references are added
References in corpus (1)
Cited by in corpus (15)
- Cosmology of the Lifshitz universe
- Review of Some Promising Fractional Physical Models
- Geometry and field theory in multi-fractional spacetime
- Dynamics with Infinitely Many Derivatives: The Initial Value Problem
- Gauge invariance in fractional field theories
- Fractional Dynamics from Einstein Gravity, General Solutions, and Black Holes
- q-deformed Lie algebras and fractional calculus
- Common aspects of q-deformed Lie algebras and fractional calculus
- Gauge Invariant Fractional Electromagnetic Fields
- The DuBois-Reymond Fundamental Lemma of the Fractional Calculus of Variations and an Euler-Lagrange Equation Involving only Derivatives of Caputo
- Repulsive Casimir Force from Fractional Neumann Boundary Conditions
- Finite Temperature Casimir Effect for a Massless Fractional Klein-Gordon field with Fractional Neumann Conditions
- Topological symmetry breaking of self--interacting fractional Klein--Gordon field on toroidal spacetime
- Anomalous g-Factors for Charged Leptons in a Fractional Coarse-Grained Approach
- Electron Spin Precession for the Time Fractional Pauli Equation