InGaN quantum dots were grown on sapphire substrate by radio-frequency plasma-excited molecular beam epitaxy(RF-MBE). The effects of InN nuclear layer on the structural and optical characteristics of InGaN quantum dots were studied. In-situ reflection high energy electron diffraction(RHEED) was used to analyze the growth of the InGaN dots structures. Atomic force microscope(AFM) and photoluminescence(PL) were used to characterize the structure and optical properties of the InGaN quantum dots. The results show that the InGaN quantum dots grown on the InN nuclear layer can get higher density and better quality compared with that grown directly on GaN layer. The sizes of InGaN quantum dots grown on the InN nuclear layer are more uniform, about...
International audienceAn investigation of InN layers grown on GaN templates by molecular beam epitax...
In this work, growth of InN quantum dots (QDs) on GaN nanowires (NWs) by metal-organic vapour phase ...
Fully realizing the potential of InGaN semiconductors requires high quality materials with arbitrary...
In this study, we report comparative luminescence properties of multi-layer InGaN quantum dots grown...
Group-III nitride quantum dots (QDs) are grown by molecular beam epitaxy. GaN/AIN QDs are used as a ...
This study provides a novel technique in MOVPE for growing nanometer scale InGaN QDs. Growth interru...
InGaN quantum dots (QDs) are promising candidates for GaN-based all-visible optoelectronic devices s...
Passivation and low temperature method was carried out to grow InGaN/GaN quantum dots (QDs). Atomic ...
In-rich InGaN quantum dot structures were grown by metalorganic chemical vapor deposition. Growth at...
A new method to form nanoscale InGaN quantum dots using MOCVD is reported, This method is much diffe...
We report on plasma-assisted molecular beam epitaxy growth and characterization of InGaN/GaN quantum...
[[abstract]]We demonstrate that InN quantum dots (QDs) can be spontaneously formed on AN and GaN sur...
International audienceAn investigation of InN layers grown on GaN templates by molecular beam epitax...
Self-assembled growth of blue-green-yellow-red InGaN quantum dots (QDs) on GaN templates using plasm...
International audienceAn investigation of InN layers grown on GaN templates by molecular beam epitax...
International audienceAn investigation of InN layers grown on GaN templates by molecular beam epitax...
In this work, growth of InN quantum dots (QDs) on GaN nanowires (NWs) by metal-organic vapour phase ...
Fully realizing the potential of InGaN semiconductors requires high quality materials with arbitrary...
In this study, we report comparative luminescence properties of multi-layer InGaN quantum dots grown...
Group-III nitride quantum dots (QDs) are grown by molecular beam epitaxy. GaN/AIN QDs are used as a ...
This study provides a novel technique in MOVPE for growing nanometer scale InGaN QDs. Growth interru...
InGaN quantum dots (QDs) are promising candidates for GaN-based all-visible optoelectronic devices s...
Passivation and low temperature method was carried out to grow InGaN/GaN quantum dots (QDs). Atomic ...
In-rich InGaN quantum dot structures were grown by metalorganic chemical vapor deposition. Growth at...
A new method to form nanoscale InGaN quantum dots using MOCVD is reported, This method is much diffe...
We report on plasma-assisted molecular beam epitaxy growth and characterization of InGaN/GaN quantum...
[[abstract]]We demonstrate that InN quantum dots (QDs) can be spontaneously formed on AN and GaN sur...
International audienceAn investigation of InN layers grown on GaN templates by molecular beam epitax...
Self-assembled growth of blue-green-yellow-red InGaN quantum dots (QDs) on GaN templates using plasm...
International audienceAn investigation of InN layers grown on GaN templates by molecular beam epitax...
International audienceAn investigation of InN layers grown on GaN templates by molecular beam epitax...
In this work, growth of InN quantum dots (QDs) on GaN nanowires (NWs) by metal-organic vapour phase ...
Fully realizing the potential of InGaN semiconductors requires high quality materials with arbitrary...