An equivalent circuit model has been developed for quantum-well (QW) lasers from the electrical and optical rate equations and thermal conduction equation. This model and its SPICE implementation allow self-consistent calculation of the electrical, optical, and thermal interactions using lumped elements, and make possible the simulation of multiple components in optoelectronic integrated circuits in the presence of these interactions. Physical effects which are strongly temperature dependent, such as gain variation, leakage current, and Auger recombination, have been incorporated. The model has been validated with measured laser characteristicsNRC publication: Ye
Quantum well lasers have been extremely successful in a wide range of applications, with optical fib...
This article gives an,overview of the microscopic theory,theory used to quantitatively model a wide ...
Abstract: Problem statement: The characteristics of a laser diode are highly dependent on the temper...
A temperature-dependent quantum well laser equivalent circuit model based on three-level rate equati...
A mathematical model describing the coupling of electrical, optical and thermal effects in semicondu...
The treatment of several aspects of quantum well laser simulation are discussed in terms of the Mini...
Lasers, photodetectors, optical amplifiers, and optical fibres are the key components in lightwave ...
A fully two-dimensional self-consistent quantum well laser simulator called Minilase has been develo...
Abstract—The development of a thermal model for quantum cascade lasers (QCLs) is presented. The mode...
This paper proposes and demonstrates a new multiquantum well (MQW) laser structure with a temperatur...
A versatile, two-dimensional simulator for various types of semiconductor lasers for both steady and...
Infra-red (IR) laser induced selective-area quantum well intermixing (QWI) has the potential to yiel...
The Fermi energy dependent stimulated lifetime and carrier densities based on the no-k selection rul...
The possibility of carrier charge imbalance in the active region of quantum well lasers is demonstra...
Abstract—The temperature dependence of the performance of 1.3- m Fabry–Perot (FP) multiple-quantum-w...
Quantum well lasers have been extremely successful in a wide range of applications, with optical fib...
This article gives an,overview of the microscopic theory,theory used to quantitatively model a wide ...
Abstract: Problem statement: The characteristics of a laser diode are highly dependent on the temper...
A temperature-dependent quantum well laser equivalent circuit model based on three-level rate equati...
A mathematical model describing the coupling of electrical, optical and thermal effects in semicondu...
The treatment of several aspects of quantum well laser simulation are discussed in terms of the Mini...
Lasers, photodetectors, optical amplifiers, and optical fibres are the key components in lightwave ...
A fully two-dimensional self-consistent quantum well laser simulator called Minilase has been develo...
Abstract—The development of a thermal model for quantum cascade lasers (QCLs) is presented. The mode...
This paper proposes and demonstrates a new multiquantum well (MQW) laser structure with a temperatur...
A versatile, two-dimensional simulator for various types of semiconductor lasers for both steady and...
Infra-red (IR) laser induced selective-area quantum well intermixing (QWI) has the potential to yiel...
The Fermi energy dependent stimulated lifetime and carrier densities based on the no-k selection rul...
The possibility of carrier charge imbalance in the active region of quantum well lasers is demonstra...
Abstract—The temperature dependence of the performance of 1.3- m Fabry–Perot (FP) multiple-quantum-w...
Quantum well lasers have been extremely successful in a wide range of applications, with optical fib...
This article gives an,overview of the microscopic theory,theory used to quantitatively model a wide ...
Abstract: Problem statement: The characteristics of a laser diode are highly dependent on the temper...