2019
DOI: 10.1007/s10714-019-2593-3
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Non-commutativity and non-inertial effects on the Dirac oscillator in a cosmic string space–time

Abstract: We examine the non-inertial effects of a rotating frame on a Dirac oscillator in a cosmic string space-time with non-commutative geometry in phase space. We observe that the approximate bound-state solutions are related to the biconfluent Heun polynomials. The related energies cannot be obtained in a closed form for all the bound states. We find the energy of the fundamental state analytically by taking into account the hard-wall confining condition. We describe how the ground-state energy scales with the new … Show more

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Cited by 9 publications
(11 citation statements)
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“…In particular, in the absence of the rotating frame (ω = 0), we obtain exactly (with s = +1) the nonrelativistic spectrum in the spinning CS spacetime, given by (114). Now, ignoring the last term in (142) and in the absence of the NC phase space (θ = η = 0), AMM (E m = 0), spinning CS (α = 1 and β), with m l ≤ 0 and s = +1, we get the spectrum of the nonrelativistic QHE in a rotating frame for electrons [78]. In addition, we note that the spectrum (142) has some similarities and some differences with the relativistic case (for the particle).…”
Section: Nonrelativistic Limitmentioning
confidence: 88%
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“…In particular, in the absence of the rotating frame (ω = 0), we obtain exactly (with s = +1) the nonrelativistic spectrum in the spinning CS spacetime, given by (114). Now, ignoring the last term in (142) and in the absence of the NC phase space (θ = η = 0), AMM (E m = 0), spinning CS (α = 1 and β), with m l ≤ 0 and s = +1, we get the spectrum of the nonrelativistic QHE in a rotating frame for electrons [78]. In addition, we note that the spectrum (142) has some similarities and some differences with the relativistic case (for the particle).…”
Section: Nonrelativistic Limitmentioning
confidence: 88%
“…Now, from a nonrelativistic point of view, the combination of these two effects has already been applied in the study of quantum dots [138], scattering [139], bound states for neutral particles with AMM and electric dipole moment [140], and in the QHE [141]. Recently, the Dirac, Klein-Gordon, and DKP-like oscillators have been studied under the influence of the noncommutativity and noninertial effects in a cosmic string spacetime [142][143][144]. However, in all these works, only the purely static case of the CS was considered, i.e., its intrinsic spin angular momentum or simply its angular momentum was not taken into account.…”
Section: Introductionmentioning
confidence: 99%
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“…The comparison between the Lagrangians L B−osc and L NC−osc and the comparison between the field equations in Eqs. (17) and (20) exhibit the following mapping between the non-commutativity parameters and the components of vector potential:…”
Section: Non-commutativity As a Magnetic Fieldmentioning
confidence: 99%
“…The equation for the DKP-like oscillator is obtained from the KG equation with the non-minimal coupling [13][14][15][16]:…”
Section: Introductionmentioning
confidence: 99%