-Deformed quantum and classical mechanics for a system with position-dependent effective mass
arXiv:2007.11184 · doi:10.1063/5.0014553
Abstract
We present the quantum and classical mechanics formalisms for a particle with position-dependent mass in the context of a deformed algebraic structure (named -algebra), motivated by the Kappa-statistics. From this structure we obtain deformed versions of the position and momentum operators, which allow to define a point canonical transformation that maps a particle with constant mass in a deformed space into a particle with position-dependent mass in the standard space. We illustrate the formalism with a particle confined in an infinite potential well and the Mathews-Lakshmanan oscillator, exhibiting uncertainty relations depending on the deformation.
References in corpus (10)
- A possible deformed algebra and calculus inspired in nonextensive thermostatistics
- Ordering ambiguity revisited via position dependent mass pseudo-momentum operators
- The k-generalized distribution: A new descriptive model for the size distribution of incomes
- Relativistic Entropy and Related Boltzmann Kinetics
- Quantum solvability of a general ordered position dependent mass system: Mathews-Lakshmanan oscillator
- Effective-Mass Dirac Equation for Woods-Saxon Potential: Scattering, Bound States and Resonances
- Algebraic solutions of shape-invariant position-dependent effective mass systems
- Composition law of -entropy for statistically independent systems
- Removal of ordering ambiguity for a class of position dependent mass quantum systems with an application to the quadratic Liénard type nonlinear oscillators
- A k-deformed Model of Growing Complex Networks with Fitness