A dislocation-eliminating chemical control method for high-quality GaN nanostructures together with various types of InGaN quantum well structures are demonstrated using a chemical vapor-phase etching technique. Unlike chemical wet etching, chemical vapor-phase etching could efficiently control the GaN and form various shapes of dislocation-free and strain-relaxed GaN nanostructures. The chemically controlled GaN nanostructures showed improved crystal quality due to the selective etching of defects and revealed various facets with reduced residual strain via the facet-selective etching mechanism. These structural properties derived excellent optical performance of the GaN nanostructures. The chemical vapor-phase etching method also showed p...
[[abstract]]Selective etching was studied between the crystalline GaN and its dislocations by contro...
With no lattice matched substrate available, sapphire continues as the substrate of choice for GaN g...
GaN nanowires with homoepitaxial decorated GaN nanoparticles on their surface along the radial direc...
A dislocation-eliminating chemical control method for high-quality GaN nanostructures together with ...
White light emitting InGaN nanostructures hold a key position in future solid-state lighting applica...
A novel nanoheteroepitaxy method, namely, the grouped and multistep nanoheteroepitaxy (GM-NHE), is p...
We report a method of growing site controlled InGaN multiple quantum discs (QDs) at uniform wafer sc...
The formation of nanowires (NWs) by reactive ion etching (RIE) of maskless GaN layers was investigat...
The existence of high threading dislocation density (TDD) in GaN-based epilayers is a long unsolved ...
Surface-patterning technologies have enabled the improvement of currently existing light-emitting di...
We report formation of aligned nanostructures on epitaxially grown polar and nonpolar GaN films via ...
Gallium nitride (GaN) epitaxial layers were deposited by metalorganic chemical vapor deposition (MOC...
Nanotextured surfaces provide an ideal platform for efficiently capturing and emitting light. Howeve...
Nanotextured surfaces provide an ideal platform for efficiently capturing and emitting light. Howeve...
GaN nanocolumns with transverse dimensions of about 50 nm were obtained by illumination-assisted ano...
[[abstract]]Selective etching was studied between the crystalline GaN and its dislocations by contro...
With no lattice matched substrate available, sapphire continues as the substrate of choice for GaN g...
GaN nanowires with homoepitaxial decorated GaN nanoparticles on their surface along the radial direc...
A dislocation-eliminating chemical control method for high-quality GaN nanostructures together with ...
White light emitting InGaN nanostructures hold a key position in future solid-state lighting applica...
A novel nanoheteroepitaxy method, namely, the grouped and multistep nanoheteroepitaxy (GM-NHE), is p...
We report a method of growing site controlled InGaN multiple quantum discs (QDs) at uniform wafer sc...
The formation of nanowires (NWs) by reactive ion etching (RIE) of maskless GaN layers was investigat...
The existence of high threading dislocation density (TDD) in GaN-based epilayers is a long unsolved ...
Surface-patterning technologies have enabled the improvement of currently existing light-emitting di...
We report formation of aligned nanostructures on epitaxially grown polar and nonpolar GaN films via ...
Gallium nitride (GaN) epitaxial layers were deposited by metalorganic chemical vapor deposition (MOC...
Nanotextured surfaces provide an ideal platform for efficiently capturing and emitting light. Howeve...
Nanotextured surfaces provide an ideal platform for efficiently capturing and emitting light. Howeve...
GaN nanocolumns with transverse dimensions of about 50 nm were obtained by illumination-assisted ano...
[[abstract]]Selective etching was studied between the crystalline GaN and its dislocations by contro...
With no lattice matched substrate available, sapphire continues as the substrate of choice for GaN g...
GaN nanowires with homoepitaxial decorated GaN nanoparticles on their surface along the radial direc...