Snyder Noncommutativity and Pseudo-Hermitian Hamiltonians from a Jordanian Twist
arXiv:1104.3852 · doi:10.1063/1.3602075
Abstract
Nonrelativistic quantum mechanics and conformal quantum mechanics are deformed through a Jordanian twist. The deformed space coordinates satisfy the Snyder noncommutativity. The resulting deformed Hamiltonians are pseudo-Hermitian Hamiltonians of the type discussed by Mostafazadeh. The quantization scheme makes use of the so-called "unfolded formalism" discussed in previous works. A Hopf algebra structure, compatible with the physical interpretation of the coproduct, is introduced for the Universal Enveloping Algebra of a suitably chosen dynamical Lie algebra (the Hamiltonian is contained among its generators). The multi-particle sector, uniquely determined by the deformed 2-particle Hamiltonian, is composed of bosonic particles.
11 pages; references added
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Cited by in corpus (9)
- Hydrogen atom on curved noncommutative space
- Squeezed coherent states for noncommutative spaces with minimal length uncertainty relations
- PT-symmetric noncommutative spaces with minimal volume uncertainty relations
- Kappa-Minkowski spacetime, Kappa-Poincaré Hopf algebra and realizations
- Hermitian versus non-Hermitian representations for minimal length uncertainty relations
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- An Unfolded Quantization for Twisted Hopf Algebras
- On Light-like Deformations of the Poincaré Algebra