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Dynamics of Non-Gaussian Entanglement of Two Magnetically Coupled Modes
arXiv
Authors: Radouan Hab-arrih, Ahmed Jellal, Abdeldjalil Merdaci
Year
2021
Paper ID
62506
Status
Preprint
Abstract Read
~2 min
Abstract Words
134
Citations
N/A
Abstract
This paper surveys the quantum entanglement of two coupled harmonic oscillators via angular momentum generating a magnetic coupling ωc. The corresponding Hamiltonian is diagonalized by using three canonical transformations and then the stationary wave function is obtained. Based on the Schmidt decomposition, we explicitly determine the Schmidt modes λk with kinleftlbrace 0,1,cdots,n+mrightrbrace, n and m being two quantum numbers associated to the two oscillators. By studying the effect of the anisotropy R=ω12/ω22, ωc, asymmetry |n-m| and dynamics on the entanglement, we summarize our results as follows. (i)- The entanglement becomes very large with the increase of (n,m). (ii)- The sensistivity to ωc depends on (n,m) and R. (iii)- The periodic revival of entanglement strongly depends on the physical parameters and quantum numbers.
Why This Paper Matters
- It adds a 2021 reference point for readers tracking recent quantum research.
- This paper surveys the quantum entanglement of two coupled harmonic oscillators via angular momentum generating a magnetic coupling ωc.
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