Optical gain and threshold current density for mid-infrared GaSbBi/GaSb quantum-well laser structure

•Band parameters and band structure engineering of GaSbBi/GaSb Mid-infrared lasers structure has been studied.•Theoretical study of the optical gain spectra and emission wavelength of GaSbBi/GaSb MQW has been investigated.•The analysis of the optical performances and threshold current density has be...

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Veröffentlicht in:Materials science & engineering. B, Solid-state materials for advanced technology Solid-state materials for advanced technology, 2021-04, Vol.266, p.115056, Article 115056
Hauptverfasser: Ammar, I., Sfina, N., Fnaiech, M.
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description •Band parameters and band structure engineering of GaSbBi/GaSb Mid-infrared lasers structure has been studied.•Theoretical study of the optical gain spectra and emission wavelength of GaSbBi/GaSb MQW has been investigated.•The analysis of the optical performances and threshold current density has been obtained at room temperature.•Dilute-bismide III-V semiconductors open the way to future developments in Mid-infrared optoelectronics. This work is focused on band structure engineering and optical proprieties of GaSbBi/GaSb type I quantum well mid-infrared laser structure on GaSb substrate. Wherefore, the band alignment is tailored and optoelectronic properties are investigated for the proposed structure based on GaSb1−xBix/GaSb hetero-interfaces in the range of alloy compositions between 0≤x≤0.14. The electron and holes effective masses are deduced from the expressions extracted from the k.p model. The laser structure is designed to function at 2.7 μm at room temperature (RT), the addition of bismuth into the GaSb active region improve a preferment optical gain and the threshold current density (Jth) including computation of radiative, non radiative and Auger recombination. For typical carrier injection 5×1018cm-3at 300 k peak gain value of the order of 2000 cm−1 are reached and a modal gain equal to 96 cm−1 can be attained. A Jth around1.2 kA/cm2 is expected through moderate optical losses.
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subjects Augers
Band structure engineering
Bismuth
Carrier injection
Carrier recombination
Current density
Gallium antimonides
GaSbBi quantum wells laser structure
Infrared lasers
Lasers
Mid-infrared laser
Optical gain
Optoelectronics
Quantum well lasers
Room temperature
Strained effective masses
Substrates
Threshold current density
Threshold currents
title Optical gain and threshold current density for mid-infrared GaSbBi/GaSb quantum-well laser structure
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