The authors demonstrate multiple wavelength lasers fabricated from InGaAsquantum dots. Selective area epitaxy is used to grow the active region, consisting of five layer stack of InGaAsquantum dots with different band gapenergies in selected regions of the substrate, for fabrication of the lasers. The mechanism responsible for engineering of the band gap of quantum dots is discussed. The performance of the selectively grown lasers is compared to the lasers fabricated from structures grown in a standard, nonselective area growth process.The Australian Research Council is gratefully acknowledged for financial support
Abstract Controlling the emission wavelength of quantum dots (QDs) over large surface area wafers is...
We report lateral wavelength control of InAs quantum dots (QDs) embedded in InGaAsP on InP (100) sub...
The growth of InAs columnar quantum dots (CQDs) on GaAs substrates by MBE was studied. The CQDs were...
Selective growth of InGaAsquantum dots on GaAs is reported. It is demonstrated that selective-area e...
We demonstrate that selective-area-epitaxy can be used to selectively tune the properties of InGaAs ...
The results of nucleation of InGaAs and InAs quantum dots by selective area epitaxy are presented. B...
Semiconductor lasers that employ quantum dot active layers, grown by molecular beam epitaxy (MBE) or...
We explore the accessible wavelength range offered by InP/AlGaInP quantum dots (QD)s grown by metal–...
A major problem facing quantum dot lasers is gain saturation. This is caused by low gain volume and ...
A review. The modulation response of quantum-dot (QD) lasers has remained limited in the 1300 to 155...
The ability to tailor the bandgap of III–V compound semiconductors spatially, across the wafer is hi...
The authors report lasing of InAs/InGaAsP/InP (100) quantum dots (QDs) wavelength tuned into the 1.5...
InGaAs quantum dots (QDs) and nanowires have been grown on GaAs by metal-organic chemical vapour dep...
AbstractThe greatest success in semiconductor lasers has been brought by the ability to artificially...
Abstract Controlling the emission wavelength of quantum dots (QDs) over large surface area wafers is...
We report lateral wavelength control of InAs quantum dots (QDs) embedded in InGaAsP on InP (100) sub...
The growth of InAs columnar quantum dots (CQDs) on GaAs substrates by MBE was studied. The CQDs were...
Selective growth of InGaAsquantum dots on GaAs is reported. It is demonstrated that selective-area e...
We demonstrate that selective-area-epitaxy can be used to selectively tune the properties of InGaAs ...
The results of nucleation of InGaAs and InAs quantum dots by selective area epitaxy are presented. B...
Semiconductor lasers that employ quantum dot active layers, grown by molecular beam epitaxy (MBE) or...
We explore the accessible wavelength range offered by InP/AlGaInP quantum dots (QD)s grown by metal–...
A major problem facing quantum dot lasers is gain saturation. This is caused by low gain volume and ...
A review. The modulation response of quantum-dot (QD) lasers has remained limited in the 1300 to 155...
The ability to tailor the bandgap of III–V compound semiconductors spatially, across the wafer is hi...
The authors report lasing of InAs/InGaAsP/InP (100) quantum dots (QDs) wavelength tuned into the 1.5...
InGaAs quantum dots (QDs) and nanowires have been grown on GaAs by metal-organic chemical vapour dep...
AbstractThe greatest success in semiconductor lasers has been brought by the ability to artificially...
Abstract Controlling the emission wavelength of quantum dots (QDs) over large surface area wafers is...
We report lateral wavelength control of InAs quantum dots (QDs) embedded in InGaAsP on InP (100) sub...
The growth of InAs columnar quantum dots (CQDs) on GaAs substrates by MBE was studied. The CQDs were...