Hot phonon effects and suppressed Auger recombination on 3 $\mu$m room temperature lasing in HgTe-based multiple quantum well diodes

Abstract

We propose an electrically pumped laser diode based on multiple HgTe quantum wells with band structure engineered for Auger recombination suppression. A model for accounting for hot phonons is developed for calculating the nonequilibrium temperature of electrons and holes. Using a comprehensive model accounting for carrier drift and diffusion, Auger recombination and hotphonon effects, we predict of lasing at $\lambda \sim 3$ $\mu$m at room temperature in 2.2 nm HgTe/Cd${}_{0.85}$Hg${}_{0.15}$Te quantum well heterostructure. The output power in the pulse can reach up to 600 mW for 100 nanosecond-duration pulses.

arXiv comment26 pages, 7 figures, preprint

References in corpus (5)

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• Auger Recombination in Semiconductor Quantum Wells
• Auger recombination in Dirac materials: A tangle of many-body effects
• HgCdTe-based quantum cascade lasers operating in the GaAs phonon Reststrahlen band predicted by the balance equations method
• Feasibility of lasing in the GaAs Reststrahlen band with HgTe multiple quantum well laser diodes