We report on the growth of quantum dot (QD) layers of InAsP alloys buried in GaAs by low-pressure metalorganic chemical vapor deposition. Ternary QDs were obtained by the addition of a PH3 flux during the InAs QD growth, exhibiting recombination energies lying between those of InAs and InP QDs. The electronic properties of these QDs, as evaluated by photoluminescence spectroscopy, could be tailored by varying both the growth rate and the PH3 flux for a constant AsH3 flux. The morphology of these QDs was investigated by transmission electron microscopy from which the formation of an InAsP ternary alloy QDs was inferred. Based on electron microscopy results, the fundamental role of As incorporation on the morphology of and on the defect nucle...
The emission wavelength of InAs quantum dots grown on InP has been shown to shift to the technologic...
InAs self-organized quantum dots (QDs) grown on annealed low-temperature GaAs (LT-GaAs) epi-layers a...
Quantum dot (QD) is an attractive material system in the development of new electronic devices like ...
We report on the growth of quantum dot (QD) layers of InAsP alloys buried in GaAs by low-pressure me...
InAs quantum dots (QDs) are grown on InP or lattice matched GaInAsP buffers using horizontal flow me...
The influence of various growth parameters such as coverage, the As H3 flow (VIII ratio), and growth...
We produced self-assembled quantum dot (QD) samples of InAs on GaAs by molecular beam epitaxy (MBE)....
In recent years, the self-assembled growth of semiconductor nanostructures, that show quantum size e...
Self-organized InAs quantum dots (QDs) on InP (1 0 0) substrate have been prepared by solid-source m...
We present a cross-sectional scanning tunneling microscopy (X-STM) investigation of InAs quantum dot...
We investigate the effect of in situ annealing during growth pause on the morphological and optical ...
Cross-sectional scanning-tunneling microscopy (X-STM) has been used to study the formation of self-a...
The role of increasing GaAs thickness (0-3 nm) to improve the optical quality and tune the emission ...
We investigate the formation of self-assembled InAs quantum structures on lattice-matched InGaAsP on...
Cross-sectional scanning tunneling microscopy is used to study at the atomic scale how the structura...
The emission wavelength of InAs quantum dots grown on InP has been shown to shift to the technologic...
InAs self-organized quantum dots (QDs) grown on annealed low-temperature GaAs (LT-GaAs) epi-layers a...
Quantum dot (QD) is an attractive material system in the development of new electronic devices like ...
We report on the growth of quantum dot (QD) layers of InAsP alloys buried in GaAs by low-pressure me...
InAs quantum dots (QDs) are grown on InP or lattice matched GaInAsP buffers using horizontal flow me...
The influence of various growth parameters such as coverage, the As H3 flow (VIII ratio), and growth...
We produced self-assembled quantum dot (QD) samples of InAs on GaAs by molecular beam epitaxy (MBE)....
In recent years, the self-assembled growth of semiconductor nanostructures, that show quantum size e...
Self-organized InAs quantum dots (QDs) on InP (1 0 0) substrate have been prepared by solid-source m...
We present a cross-sectional scanning tunneling microscopy (X-STM) investigation of InAs quantum dot...
We investigate the effect of in situ annealing during growth pause on the morphological and optical ...
Cross-sectional scanning-tunneling microscopy (X-STM) has been used to study the formation of self-a...
The role of increasing GaAs thickness (0-3 nm) to improve the optical quality and tune the emission ...
We investigate the formation of self-assembled InAs quantum structures on lattice-matched InGaAsP on...
Cross-sectional scanning tunneling microscopy is used to study at the atomic scale how the structura...
The emission wavelength of InAs quantum dots grown on InP has been shown to shift to the technologic...
InAs self-organized quantum dots (QDs) grown on annealed low-temperature GaAs (LT-GaAs) epi-layers a...
Quantum dot (QD) is an attractive material system in the development of new electronic devices like ...