Abstract:Based on models of confinement of quarks, we analyse a relativistic scalar particle subject to a scalar potential proportional to the inverse of the radial distance and under the effects of the violation of the Lorentz symmetry. We show that the effects of the Lorentz symmetry breaking can induce a harmonic-type potential. Then, we solve the Klein-Gordon equation analytically and discuss the influence of the background of the violation of the Lorentz symmetry on the relativistic energy levels.
“…Energy relativistic effects appearing in these quantum systems with position-dependent mass have been investigated. Interesting properties emerge in systems with quarkantiquark interaction [28], with pionic atom [29], in the spacetime with curvature [30][31][32], in the spacetime with torsion [33][34][35][36], in the Som-Raychaudhuri spacetime [37][38][39], in possible scenarios of Lorentz symmetry violation [40][41][42], on the Klein-Gordon oscillator (KGO) [43][44][45][46], in solution of the Dirac equation in a conical spacetime [47] and in Kaluza-Klein theory (KKT) [48][49][50]. The procedure of inserting central potentials into relativistic wave equations is given by the transformation m → m + S( r) [29], where m is the rest mass and S( r) is the scalar potential.…”
We have investigated the interaction between the Klein-Gordon oscillator and the Cornell-type potential in a background characterized by the Kaluza-Klein theory, where it is governed by the manifestation of the extra dimension through the Aharonov-Bohm effect for bound states. Then, in the search for bound state solutions, we analytically determine the relativistic energy profile of the oscillator under the effects of Cornell-type interaction and for the particular cases of Coulomb-type and linear potentials, where in all cases, the frequency of the relativistic oscillator has restricted values determined by the quantum numbers of the system.
“…Energy relativistic effects appearing in these quantum systems with position-dependent mass have been investigated. Interesting properties emerge in systems with quarkantiquark interaction [28], with pionic atom [29], in the spacetime with curvature [30][31][32], in the spacetime with torsion [33][34][35][36], in the Som-Raychaudhuri spacetime [37][38][39], in possible scenarios of Lorentz symmetry violation [40][41][42], on the Klein-Gordon oscillator (KGO) [43][44][45][46], in solution of the Dirac equation in a conical spacetime [47] and in Kaluza-Klein theory (KKT) [48][49][50]. The procedure of inserting central potentials into relativistic wave equations is given by the transformation m → m + S( r) [29], where m is the rest mass and S( r) is the scalar potential.…”
We have investigated the interaction between the Klein-Gordon oscillator and the Cornell-type potential in a background characterized by the Kaluza-Klein theory, where it is governed by the manifestation of the extra dimension through the Aharonov-Bohm effect for bound states. Then, in the search for bound state solutions, we analytically determine the relativistic energy profile of the oscillator under the effects of Cornell-type interaction and for the particular cases of Coulomb-type and linear potentials, where in all cases, the frequency of the relativistic oscillator has restricted values determined by the quantum numbers of the system.
“…These two terms are called the CPT-odd sector [1,2] and the CPT-even sector [34,35]. The relativistic quantum dynamics of a scalar particle under the effects of the Lorentz symmetry violation [1,2,3,36,37,38,39,40,41,42,43,44,45]…”
Section: Relativistic Scalar Particle Under the Effects Of Lorentz Symmetry Violationmentioning
In this work, we investigate the behaviour of a relativistic scalar particle in the background of the Lorentz symmetry violation determined by a tensor (KF)µναβ out of the Standard Model Extension. A linear electric field and a uniform magnetic can be induced by the violation of the Lorentz symmetry breaking effects, and analyze the behaviour of the scalar particle. We see that the analytical solution to the KG-equation can be achieved, and a quantum effect characterized by the dependence of the magnetic field on the quantum numbers is observed
“…Here, we investigate the above relativistic quantum system described by the Klein-Gordon oscillator subject to a Cornell-type scalar potential in the presence of external fields including an internal magnetic flux field. A scalar potential is included into the systems by modifying the mass m ⟶ m + SðrÞ which is called a position-dependent mass system in the relativistic quantum systems (see, e.g., [5,6,8,28,30,31,42,46,[52][53][54][55][56][57][58][59][60][61][62]).…”
In this paper, we study interactions of a scalar particle with electromagnetic potential in the background space-time generated by a cosmic string with a space-like dislocation. We solve the Klein-Gordon oscillator in the presence of external fields including an internal magnetic flux field and analyze the analogue effect to the Aharonov-Bohm effect for bound states. We extend this analysis subject to a Cornell-type scalar potential and observe the effects on the relativistic energy eigenvalue and eigenfunction.
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