We report on the morphology of InAs-InSb heterostructured nanowires grown by Au-assisted chemical beam epitaxy. Using scanning and transmission electron microscopy, along with high angle annular dark field image analysis, we show that the hexagons defining the cross section of the two segments of the nanowires are rotated one with respect to the other by 30° around the growth direction and that the corners of these hexagons are rounded off by six small facets. Six additional facets that are not parallel to the growth direction are found in the InSb segment at the InAs-InSb interface and are indexed. Finally, the relation between the dimensions of the two segments composing the nanowires is discussed quantitatively
In this project epitaxially grown InAs-GaSb complex heterostructured nanowires have been characteriz...
We demonstrate the growth of InSb-based nanowire heterostructures by metalorganic vapour phase epita...
We demonstrate the growth of InSb-based nanowire heterostructures by metalorganic vapour phase epita...
We report on the morphology of InAs-InSb heterostructured nanowires grown by Au-assisted chemical be...
This work deals with the growth by Chemical Beam Epitaxy and the structural study by Scanning and Tr...
Planar growth of high-quality InAs/InSb heterostructure nanowires by metal-organic vapor-phase epita...
We report the Au-assisted chemical beam epitaxy growth of defect-free zincblende InSb nanowires. The...
IIIV antimonide nanowires are among the most interesting semiconductors for transport physics, nanoe...
Heteroepitaxial growth of III-Sb nanowires allows for the formation of various interesting complex s...
In this report, we present the growth and structural analyses of broken gap InAs/GaSb core–shell nan...
Nanowire heterostructures are of special interest for band structure engineering due to an expanded ...
Research interest in indium antimonide (InSb) has increased significantly in recent years owing to i...
Branched nanowire heterostructures of InAsGaAs were observed during Au-assisted growth of InAs on Ga...
We present a growth study and structural characterization of InP-InSb nanowire heterostructures. In ...
We present a growth study and structural characterization of InP-InSb nanowire heterostructures. In ...
In this project epitaxially grown InAs-GaSb complex heterostructured nanowires have been characteriz...
We demonstrate the growth of InSb-based nanowire heterostructures by metalorganic vapour phase epita...
We demonstrate the growth of InSb-based nanowire heterostructures by metalorganic vapour phase epita...
We report on the morphology of InAs-InSb heterostructured nanowires grown by Au-assisted chemical be...
This work deals with the growth by Chemical Beam Epitaxy and the structural study by Scanning and Tr...
Planar growth of high-quality InAs/InSb heterostructure nanowires by metal-organic vapor-phase epita...
We report the Au-assisted chemical beam epitaxy growth of defect-free zincblende InSb nanowires. The...
IIIV antimonide nanowires are among the most interesting semiconductors for transport physics, nanoe...
Heteroepitaxial growth of III-Sb nanowires allows for the formation of various interesting complex s...
In this report, we present the growth and structural analyses of broken gap InAs/GaSb core–shell nan...
Nanowire heterostructures are of special interest for band structure engineering due to an expanded ...
Research interest in indium antimonide (InSb) has increased significantly in recent years owing to i...
Branched nanowire heterostructures of InAsGaAs were observed during Au-assisted growth of InAs on Ga...
We present a growth study and structural characterization of InP-InSb nanowire heterostructures. In ...
We present a growth study and structural characterization of InP-InSb nanowire heterostructures. In ...
In this project epitaxially grown InAs-GaSb complex heterostructured nanowires have been characteriz...
We demonstrate the growth of InSb-based nanowire heterostructures by metalorganic vapour phase epita...
We demonstrate the growth of InSb-based nanowire heterostructures by metalorganic vapour phase epita...