2019
DOI: 10.1016/j.ijleo.2018.09.010
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Pressure dependent optical properties of quantum dot with spin orbit interaction and magnetic field

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Cited by 18 publications
(4 citation statements)
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“…Las expresiones para las funciones Γ k (r, λ k ) se detallan en [13,14]. Los λ k son los parámetros variacionales que se obtienen minimizando el valor esperado del Hamiltoniano descrito en la ecuación (5), esta energía mínima corresponde a la energía de la impureza para cada estado k, E k imp ,…”
Section: Teoríaunclassified
See 1 more Smart Citation
“…Las expresiones para las funciones Γ k (r, λ k ) se detallan en [13,14]. Los λ k son los parámetros variacionales que se obtienen minimizando el valor esperado del Hamiltoniano descrito en la ecuación (5), esta energía mínima corresponde a la energía de la impureza para cada estado k, E k imp ,…”
Section: Teoríaunclassified
“…Estas características aumentan la contribución de las partes no lineales en las constantes dieléctricas y en las propiedades ópticas [2]. Por lo anterior, en los últimos años ha aumentado el interés por investigar el efecto sobre las propiedades cuánticas de sistemas de baja dimensionalidad debido a la acción de agentes externos tales como la temperatura, la presión hidrostática, los campos eléctricos y los campos magnéticos, con el fin de desarrollar nuevas aplicaciones tecnológicas [3,4,5,6,7,8]. Esto ha permitido importantes avances teóricos y experimentales en la manipulación y optimización de la respuesta óptica en nano-estructuras.…”
Section: Introductionunclassified
“…The electronic transitions and the related optical absorption phenomena can be studied within the widely used density matrix formalism [45][46][47] suitable for semiconductor nanostructures. In this present work, we calculate the optical absorption coefficients of a single electron confined in a vertically stacked VGQW system when it is irradiated by a classical optical field E opt (t) of frequency ω and optical intensity I, propagating in the positive z-direction.…”
Section: Electronic Spectrum and Optical Absorptionmentioning
confidence: 99%
“…On the other hand, temperature and hydrostatic pressure affect the energy levels and consequently the optical properties of the QD systems. The temperature and the hydrostatic pressure effects were investigated extensively: hydrostatic pressure and temperature effects on the electronic energy levels of a spherical QD placed at the center of a nano-wire [11]; pressure-dependent photoluminescence of CdSe/ZnS QDs; critical point of different pressure regimes [12]; simultaneous effects of hydrostatic pressure, temperature and electric field on optical absorption in InAs/GaAs lens shape QD [13]; simultaneous influence of hydrostatic pressure and temperature on the binding energy of impurity-doped QDs in the presence of noise [14]; temperature and hydrostatic pressure effects on single dopant states in hollow cylindrical core-shell QD [15]; the effects of polaronic mass and conduction band non-parabolicity on a donor-binding energy under the simultaneous effect of pressure and temperature basing on the numerical FEM in a spherical QD [16]; combined influence of hydrostatic pressure and temperature on interband emission energy of impurity doped QDs in the presence of noise [17]; modulating optical rectification; second and third harmonic generation of doped QDs; interplay between hydrostatic pressure, temperature and noise [18]; the effects of temperature, hydrostatic pressure and size on optical gain for GaAs spherical QD laser with hydrogen impurity [19]; pressure dependent optical properties of QD with spin orbit interaction and magnetic field [20]. In this paper, we investigate the temperature and the hydrostatic pressure effects on electronic structure and optical properties of the SSQD/WL interacting with two laser fields.…”
Section: Introductionmentioning
confidence: 99%