Particle and Antiparticle sectors in DSR1 and kappa-Minkowski space-time
arXiv:hep-th/0404111 · doi:10.1088/1126-6708/2004/05/028
Abstract
In this paper we explore the problem of antiparticles in DSR1 and -Minkowski space-time following three different approaches inspired by the Lorentz invariant case: a) the dispersion relation, b) the Dirac equation in space-time and c) the Dirac equation in momentum space. We find that it is possible to define a map which gives the antiparticle sector from the negative frequency solutions of the wave equation. In -Poincaré, the corresponding map is the antipodal mapping, which is different from . The difference is related to the composition law, which is crucial to define the multiparticle sector of the theory. This discussion permits to show that the energy of the antiparticle in DSR is the positive root of the dispersion relation, which is consistent with phenomenological approaches.
arXiv comment15 pages, no figures, some references added, typos corrected
References in corpus (35)
- Lorentz-Violating Extension of the Standard Model
- Potential Sensitivity of Gamma-Ray Burster Observations to Wave Dispersion in Vacuo
- Noncommutative Geometry and Matrix Theory: Compactification on Tori
- Lorentz invariance with an invariant energy scale
- Relativity in space-times with short-distance structure governed by an observer-independent (Planckian) length scale
- Noncommutative Field Theory and Lorentz Violation
- Nonstandard optics from quantum spacetime
- Bicrossproduct structure of -Poincare group and non-commutative geometry
- Generalized Lorentz invariance with an invariant energy scale
- Stability, Causality, and Lorentz and CPT Violation
- Quantum gravity corrections to neutrino propagation
- Radiatively Induced Lorentz and CPT Violation in Electrodynamics
- Classical and Quantum Mechanics of Free \k Relativistic Systems
- Constraints on Lorentz violation from clock-comparison experiments
- Loop quantum gravity and light propagation
- Doubly-Special Relativity: First Results and Key Open Problems
- Doubly Special Relativity theories as different bases of --Poincaré algebra
- Non-commutative space-time of Doubly Special Relativity theories
- Deformed Boost Transformations That Saturate at the Planck Scale
- Probing The Structure of Space-Time with Cosmic Rays
- Cross Sections and Lorentz Violation
- TeV Astrophysics Constraints on Planck Scale Lorentz Violation
- Lorentz and CPT tests with spin-polarized solids
- Deformed Field Theory on kappa-spacetime
- Doubly Special Relativity versus -deformation of relativistic kinematics
- Conservation Laws in Doubly Special Relativity
- Noncommutativity in Field Space and Lorentz Invariance Violation
- Real Forms of Complex Quantum Anti de Sitter Algebra and their Contraction Schemes
- The Quantum Deformed Dirac Equation from the k-Poincare` Algebra
- Quantum Theory of Noncommutative Fields
- Dirac spinors for Doubly Special Relativity and -Minkowski noncommutative spacetime
- Loop Quantum Gravity Corrections and Cosmic Ray Decays
- The Dirac-Coulomb Problem for the -Poincare Quantum Group
- Representation Theory of Quantized Poincare Algebra. Tensor Operators and Their Application to One-Partical Systems
- Special relativity with two invariant scales: Motivation, Fermions, Bosons, Locality, and Critique
Cited by in corpus (11)
- Effects of quantum deformation on the spin-1/2 Aharonov-Bohm problem
- On the -Dirac Oscillator revisited
- Berry Phase Effects in the dynamics of Dirac Electrons in Doubly Special Relativity Framework
- Light Cone in a Quantum Spacetime
- Approaching Space Time Through Velocity in Doubly Special Relativity
- Effects of quantum deformation on the integer quantum Hall effect
- Effects of quantum deformation on the Jaynes-Cummings and anti-Jaynes-Cummings models
- Twisted Fermionic Oscillator Algebra in -Minkowski space-time
- Propagation of spinors on a noncommutative spacetime: equivalence of the formal and the effective approach
- Quantisation of -deformed Dirac equation
- Quantum-Gravity phenomenology and high energy particle propagation