Deformed Special Relativity and Deformed Symmetries in a Canonical Framework
arXiv:hep-th/0702159 · doi:10.1103/PhysRevD.75.105021
Abstract
In this paper we have studied the nature of kinematical and dynamical laws in -Minkowski spacetime from a new perspective: the canonical phase space approach. We discuss a particular form of -Minkowski phase space algebra that yields the -extended finite Lorentz transformations derived in \cite{kim}. This is a particular form of a Deformed Special Relativity model that admits a modified energy-momentum dispersion law as well as noncommutative -Minkowski phase space. We show that this system can be completely mapped to a set of phase space variables that obey canonical (and {\it{not}} -Minkowski) phase space algebra and Special Relativity Lorentz transformation (and {\it{not}} -extended Lorentz transformation). The complete set of deformed symmetry generators are constructed that obeys an unmodified closed algebra but induce deformations in the symmetry transformations of the physical -Minkowski phase space variables. Furthermore, we demonstrate the usefulness and simplicity of this approach through a number of phenomenological applications both in classical and quantum mechanics. We also construct a Lagrangian for the -particle.
Revised version with change in Title and Abstract, No change in mathematical content, Reference section enlarged, Discussion on Soccer Ball Problem removed; Version to appear in PRD
References in corpus (3)
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