Dynamical symmetry of a semiconfined harmonic oscillator model with a position-dependent effective mass
arXiv:2305.11702 · doi:10.1016/S0034-4877(23)00070-8
Abstract
Dynamical symmetry algebra for a semiconfined harmonic oscillator model with a position-dependent effective mass is constructed. Selecting the starting point as a well-known factorization method of the Hamiltonian under consideration, we have found three basis elements of this algebra. The algebra defined through those basis elements is a Heisenberg-Lie algebra. Different special cases and the limit relations from the basis elements to the Heisenberg-Weyl algebra of the non-relativistic quantum harmonic oscillator are discussed, too.
20 pages
References in corpus (10)
- Generalized nonlinear oscillators with quasi-harmonic behaviour: classical solutions
- Quantum solvability of a general ordered position dependent mass system: Mathews-Lakshmanan oscillator
- Algebraic solutions of shape-invariant position-dependent effective mass systems
- Exact solution of the position-dependent effective mass and angular frequency Schrödinger equation: harmonic oscillator model with quantized confinement parameter
- The Wigner distribution function for the one-dimensional parabose oscillator
- Quantization of Hamiltonian systems with a position dependent mass: Killing vector fields and Noether momenta approach
- A finite oscillator model related to sl(2|1)
- Discrete series representations for sl(2|1), Meixner polynomials and oscillator models
- The Husimi function of a semiconfined harmonic oscillator model with a position-dependent effective mass
- Constants of Motion of the Harmonic Oscillator