Relations dependent on new fundamental constants among spacetime observables of quantum particle
arXiv:1806.06707 · doi:10.1134/S0202289309040069
Abstract
Generators of spacetime translations and Lorentz group transformations form the Lie algebra of the Poincaré group and give rise to the Casimir invariants for a specification of elementary particle characteristics. Moreover quantum operators of coordinate and momentum components of a particle in Minkowski spacetime together with Lorentz group generators belong to the known noncommutative algebra. This algebra can be generalized under some constraints, in particular, the Lorentz invariance condition. The generalized algebra depends on the new fundamental constants with dimensions of length (L), mass (M) and action (H). Quantum fields, which can be constructed with the help of representations of this algebra, are referred to as HLM generalized quantum fields and the associated particles as HLM quantum particles. Relations between spacetime observables of a HLM quantum particle depend on the new constants and lead to complication of the Poincaré invariant equations for canonical fields. The modification of a quantum measurement procedure is needed in order to take into account inherent features of HLM quantum particles.
5 pages. arXiv admin note: text overlap with arXiv:0906.5422
References in corpus (9)
- Big Bang Nucleosynthesis (in "The Review of Particle Properties" 2004)
- Generalized Quantum Relativistic Kinematics: a Stability Point of View
- Towards a Maximal Mass Model
- Events in a Non-Commutative Space-Time
- Relativistic invariant Lie algebras for kinematical observables in quantum space-time
- Confinement and U(1,3) symmetry of color particles in a complex phase space
- What our world might be like (as alternative to Minkowski space-time with Poincare group of motion)
- The wave function of the modified space time manifold
- Generalized kinematical symmetries of quantum phase space