Abstract:We investigate rotating effects on a charged scalar field immersed in spacetime with a magnetic screw dislocation. In addition to the hard-wall potential, which we impose to satisfy a boundary condition from the rotating effect, we insert a Coulomb-type potential and the Klein-Gordon oscillator into this system, where, analytically, we obtain solutions of bound states which are influenced not only by the spacetime topology, but also by the rotating effects, as a Sagnac-type effect modified by the presence of t… Show more
“…that is, a Coulomb-type potential. This kind of potential has been investigated on KGO [43], on a scalar particle in spacetime with torsion [35,36] and in possible scenarios of Lorentz symmetry violation [42,46]. Therefore, in this particular case, (19) is reduced and gives us the allowed values of the KGO frequency for the lowest energy state of the system…”
Section: Klein-gordon Oscillator Subjected To the Coulomb-type Potentmentioning
confidence: 99%
“…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.
“…that is, a Coulomb-type potential. This kind of potential has been investigated on KGO [43], on a scalar particle in spacetime with torsion [35,36] and in possible scenarios of Lorentz symmetry violation [42,46]. Therefore, in this particular case, (19) is reduced and gives us the allowed values of the KGO frequency for the lowest energy state of the system…”
Section: Klein-gordon Oscillator Subjected To the Coulomb-type Potentmentioning
confidence: 99%
“…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.
“…[30]). With χ = 0, we have that the energy eigenvalue (45) stems from the interaction of the Klein-Gordon oscillator with a magnetic field and a linear scalar potential in the Minkowski space-time with a cosmic string. Thus, the topology of the space-time also changes the pattern of oscillation of the ground state energies.…”
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.
“…Furthermore, for χ → 0 and α → 1, the study space-time reduces to Minkowski flat space metric in cylindrical coordinates. Topological defects associated with torsion have investigated in solid state [30,65,66,67,68], quantum scattering [69], bound states solutions [52,59,70], and in relativistic quantum mechanics [71,72]. The metric tensor for the space-time (3) to be…”
Section: Bosonic Charged Particles : the Kg-equationmentioning
confidence: 99%
“…, we can see that the power series expansion H(x) becomes a polynomial of degree n by imposing the following two conditions[3,5,7,12,19,50,51,52,53,54,57,59,71,74,85,86,92,93] Θ = 2 n, (n = 1, 2, ....)…”
We study the relativistic quantum of scalar particles in the cosmic string space-time with a screw dislocation (torsion) subject to a uniform magnetic field including the magnetic quantum flux in the presence of potential. We solve the Klein-Gordon equation with a Cornell-type scalar potential in the considered framework and obtain the energy eigenvalues and eigenfunctions and analyze a relativistic analogue of the Aharonov-Bohm effect for bound states.
scite is a Brooklyn-based organization that helps researchers better discover and understand research articles through Smart Citations–citations that display the context of the citation and describe whether the article provides supporting or contrasting evidence. scite is used by students and researchers from around the world and is funded in part by the National Science Foundation and the National Institute on Drug Abuse of the National Institutes of Health.