10siN‐type doping of GaAs nanowires has proven to be difficult because the amphoteric character of silicon impurities is enhanced by the nanowire growth mechanism and growth conditions. The controllable growth of n‐type GaAs nanowires with carrier density as high as 1020 electron cm−3 by self‐assisted molecular beam epitaxy using Te donors is demonstrated here. Carrier density and electron mobility of highly doped nanowires are extracted through a combination of transport measurement and Kelvin probe force microscopy analysis in single‐wire field‐effect devices. Low‐temperature photoluminescence is used to characterize the Te‐doped nanowires over several orders of magnitude of the impurity concentration. The combined use of those techniques...
Reliable doping is required to realize many devices based on semiconductor nanowires. Group III–V na...
We present a novel approach for the growth of GaAs nanowires (NWs) with controllable number density ...
Reliable doping is required to realize many devices based on semiconductor nanowires. Group III-V na...
N-type doping of GaAs nanowires has proven to be difficult because the amphoteric character of silic...
Dopant atoms can be incorporated into nanowires either via the vapor-liquid-solid mechanism through ...
Controlled doping in semiconductor nanowires modifies their electrical and optical properties, which...
Precise control of doping in single nanowires (NWs) is essential for the development of NW-based dev...
International audiencePrecise control of doping in single nanowires (NWs) is essential for the devel...
We report on structural and electrical properties of GaAs nanowires (NWs) grown by molecular beam ep...
Abstract In this letter, n-type doping of GaAs nanowires grown by metal–organic vapor phase ep...
Precise control of doping in single nanowires (NWs) is essential for the development of NW-based dev...
With the rise of quantum computing and recent experiments into topological quantum computers come ex...
Self-catalyzed GaAs nanowire growth was obtained by molecular beam epitaxy on GaAs(001) substrates a...
Incorporation of catalyst atoms during the growth process of semiconductor nanowires reduces the ele...
Semiconductor nanowires (NWs) have been investigated for decades, but their application into commerc...
Reliable doping is required to realize many devices based on semiconductor nanowires. Group III–V na...
We present a novel approach for the growth of GaAs nanowires (NWs) with controllable number density ...
Reliable doping is required to realize many devices based on semiconductor nanowires. Group III-V na...
N-type doping of GaAs nanowires has proven to be difficult because the amphoteric character of silic...
Dopant atoms can be incorporated into nanowires either via the vapor-liquid-solid mechanism through ...
Controlled doping in semiconductor nanowires modifies their electrical and optical properties, which...
Precise control of doping in single nanowires (NWs) is essential for the development of NW-based dev...
International audiencePrecise control of doping in single nanowires (NWs) is essential for the devel...
We report on structural and electrical properties of GaAs nanowires (NWs) grown by molecular beam ep...
Abstract In this letter, n-type doping of GaAs nanowires grown by metal–organic vapor phase ep...
Precise control of doping in single nanowires (NWs) is essential for the development of NW-based dev...
With the rise of quantum computing and recent experiments into topological quantum computers come ex...
Self-catalyzed GaAs nanowire growth was obtained by molecular beam epitaxy on GaAs(001) substrates a...
Incorporation of catalyst atoms during the growth process of semiconductor nanowires reduces the ele...
Semiconductor nanowires (NWs) have been investigated for decades, but their application into commerc...
Reliable doping is required to realize many devices based on semiconductor nanowires. Group III–V na...
We present a novel approach for the growth of GaAs nanowires (NWs) with controllable number density ...
Reliable doping is required to realize many devices based on semiconductor nanowires. Group III-V na...