Two-dimensional position-dependent mass Lagrangians; Superintegrability and exact solvability
Omar Mustafa

TL;DR
This paper extends the concept of position-dependent mass Lagrangians to two dimensions, demonstrating mappings to exactly solvable systems and exploring superintegrability and sub-superintegrability in PDM-oscillators.
Contribution
It introduces a two-dimensional framework for PDM-Lagrangians and their mappings to solvable systems, highlighting superintegrability properties and specific oscillator examples.
Findings
Mapped superintegrable linear oscillators to sub-superintegrable PDM-oscillators.
Identified conditions for invariance of Euler-Lagrange equations.
Provided explicit examples of PDM-oscillators with superintegrability.
Abstract
The two-dimensional extension of the one-dimensional PDM-Lagrangians and their nonlocal point transformation mappings into constant unit-mass exactly solvable Lagrangians is introduced. The conditions on the related two-dimensional Euler-Lagrange equations' invariance are reported. The mappings from superintegrable linear oscillators into sub-superintegrable nonlinear PDM-oscillators are exemplified by, (i) a sub-superintegrable Mathews-Lakshmanan type-I PDM-oscillator, for a PDM-particle moving in a harmonic oscillator potential, (ii) a sub-superintegrable Mathews-Lakshmanan type-II PDM-oscillator, for a PDM-particle moving in a constant potential, and (iii) a sub-superintegrable shifted Mathews-Lakshmanan type-III PDM-oscillator, for a PDM-particle moving in a shifted harmonic oscillator potential. Moreover, the superintegrable shifted linear oscillators and the isotonic oscillators…
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Taxonomy
TopicsGeophysics and Sensor Technology · Mechanical and Optical Resonators · Quantum Mechanics and Non-Hermitian Physics
