Towards new relativistic doubly -deformed D=4 quantum phase spaces
arXiv:2410.02339 · doi:10.1140/epjp/s13360-025-06312-1
Abstract
We propose new noncommutative models of quantum phase spaces, containing a pair of -deformed Poincaré algebras, with two independent double ()-deformations in space-time and four-momenta sectors. The first such quantum phase space can be obtained by contractions of recently introduced doubly -deformed -Yang models, with the parameters describing inverse space-time and four-momenta curvatures and constant four-vectors determining nine types of -deformations. The second considered model is provided by the nonlinear doubly -deformed TSR algebra spanned by 14 coset generators. The basic algebraic difference between the two models is the following: the first one, described by Lie algebra can be supplemented by the Hopf algebra structure, while the second model contains the quantum phase space commutators , with the standard numerical term; therefore it describes the quantum-deformed Heisenberg algebra relations which cannot be equipped with the Hopf algebra.
13 pages, extended version, one section added, reference list expanded, published version
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