High material quality is the basis of quantum cascade lasers (QCLs). Here we report the solid source molecular beam epitaxy (MBE) growth details of realizing high quality of InGaAs/InAlAs QCL structures. Accurate control of material compositions, layer thickness, doping profile, and interface smoothness can be realized by optimizing the growth conditions. Double crystal x-ray diffraction discloses that our grown QCL structures possess excellent periodicity and sharp interfaces. High quality laser wafers are grown in a single epitaxial run. Room temperature continuous-wave (cw) operation of QCLs is demonstrated
We have demonstrated quantum cascade lasers (QCL) emitting at 5 m based on efficient injection of th...
The route to grow InP-based heteroepitaxial structure for quantum cascade laser by molecular beam ep...
Quantum cascade laser is one of the most sophisticated semiconductor devices. The active region of t...
The growth and characterization of quantum cascade (QC) lasers based on InGaAs/InAlAs material syste...
By optimizing the molecule beam epitaxy growth condition, the quality of quantum cascade (QC) materi...
Details of the design, growth, fabrication, and operation of quantum cascade lasers (QCLs) that emit...
Double X-ray diffraction has been used to investigate InGaAs/InAlAs quantum cascade (QC) laser grown...
Quasi-continuous-wave operation of GaAs/AlGaAs quantum-cascade lasers with high average optical powe...
Quantum cascade (QC) lasers are a fundamentally new semiconductor laser source designed by methods o...
X-ray diffraction, as an effective probe and simple method, is used to ascertain the precise control...
Quantum cascade (QC) lasers based on strain-compensated InxGa(1-x)As/InyAl(1-y)As grown on InP subst...
We report on the realization of quantum cascade (QC) lasers based on strain-compensated InxGa(1-x)As...
We report single longitudinal mode, T> 300K operation of MOVPE-grown InGaAs/ AlInAs DFB quantum c...
Short wavelength (lambda < 5 mu m) quantum cascade lasers are of current interest as they operate in...
The technique of molecular beam epitaxy has recently been used to demonstrate the growth of terahert...
We have demonstrated quantum cascade lasers (QCL) emitting at 5 m based on efficient injection of th...
The route to grow InP-based heteroepitaxial structure for quantum cascade laser by molecular beam ep...
Quantum cascade laser is one of the most sophisticated semiconductor devices. The active region of t...
The growth and characterization of quantum cascade (QC) lasers based on InGaAs/InAlAs material syste...
By optimizing the molecule beam epitaxy growth condition, the quality of quantum cascade (QC) materi...
Details of the design, growth, fabrication, and operation of quantum cascade lasers (QCLs) that emit...
Double X-ray diffraction has been used to investigate InGaAs/InAlAs quantum cascade (QC) laser grown...
Quasi-continuous-wave operation of GaAs/AlGaAs quantum-cascade lasers with high average optical powe...
Quantum cascade (QC) lasers are a fundamentally new semiconductor laser source designed by methods o...
X-ray diffraction, as an effective probe and simple method, is used to ascertain the precise control...
Quantum cascade (QC) lasers based on strain-compensated InxGa(1-x)As/InyAl(1-y)As grown on InP subst...
We report on the realization of quantum cascade (QC) lasers based on strain-compensated InxGa(1-x)As...
We report single longitudinal mode, T> 300K operation of MOVPE-grown InGaAs/ AlInAs DFB quantum c...
Short wavelength (lambda < 5 mu m) quantum cascade lasers are of current interest as they operate in...
The technique of molecular beam epitaxy has recently been used to demonstrate the growth of terahert...
We have demonstrated quantum cascade lasers (QCL) emitting at 5 m based on efficient injection of th...
The route to grow InP-based heteroepitaxial structure for quantum cascade laser by molecular beam ep...
Quantum cascade laser is one of the most sophisticated semiconductor devices. The active region of t...