Landau Analog Levels for Dipoles in the Noncommutative Space and Phase Space

Abstract

In the present contribution we investigate the Landau analog energy quantization for neutral particles, that possesses a nonzero permanent magnetic and electric dipole moments, in the presence of an homogeneous electric and magnetic external fields in the context of the noncommutative quantum mechanics. Also, we analyze the Landau--Aharonov--Casher and Landau--He--McKellar--Wilkens quantization due to noncommutative quantum dynamics of magnetic and electric dipoles in the presence of an external electric and magnetic fields and the energy spectrum and the eigenfunctions are obtained. Furthermore, we have analyzed Landau quantization analogs in the noncommutative phase space, and we obtain also the energy spectrum and the eigenfunctions in this context.

20 pages, references added

References in corpus (4)

• The topological AC effect on noncommutative phase space
• The Noncommutative Anandan's Quantum Phase
• Quantum Mechanics on Noncommutative Spacetime
• Noncommutative Geometry and Geometric Phases

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