Direct band gap III-V semiconductors, emitting efficiently in the amber-green region of the visible spectrum, are still missing, causing loss in efficiency in light emitting diodes operating in this region, a phenomenon known as the "green gap". Novel geometries and crystal symmetries however show strong promise in overcoming this limit. Here we develop a novel material system, consisting of wurtzite AlxIn1-xP nanowires, which is predicted to have a direct band gap in the green region. The nanowires are grown with selective area metalorganic vapor phase epitaxy and show wurtzite crystal purity from transmission electron microscopy. We show strong light emission at room temperature between the near-infrared 875 nm (1.42 eV) and the "pure gre...
A GaP nanowire is promising from the viewpoint of device applications because when its crystal phase...
Thanks to their uniqueness, nanowires allow the realization of novel semiconductor crystal structure...
Wurtzite gallium phosphide (WZ GaP) has been predicted to exhibit a direct bandgap in the green spec...
Direct band gap III-V semiconductors, emitting efficiently in the amber-green region of the visible ...
Direct band-gap III-V semiconductors, emitting efficiently in the amber-green region of the visible ...
Direct band gap III–V semiconductors, emitting efficiently in the amber–green region of the visible ...
\u3cp\u3eDirect band-gap III-V semiconductors, emitting efficiently in the amber-green region of the...
\u3cp\u3eCommercially available light-emitting diodes (LEDs) suffer from low-efficiency in the green...
The main challenge for light-emitting diodes is to increase the efficiency in the green part of the ...
The main challenge for light-emitting diodes is to increase the efficiency in the green part of the ...
Gallium Phosphide (GaP) with the normal cubic crystal structure has an indirect band gap, which seve...
We investigated the optical properties of wurtzite (WZ) GaP nanowires by performing photoluminescenc...
: Wurtzite AlGaAs is a technologically promising yet unexplored material. Here we study it both expe...
A GaP nanowire is promising from the viewpoint of device applications because when its crystal phase...
Thanks to their uniqueness, nanowires allow the realization of novel semiconductor crystal structure...
Wurtzite gallium phosphide (WZ GaP) has been predicted to exhibit a direct bandgap in the green spec...
Direct band gap III-V semiconductors, emitting efficiently in the amber-green region of the visible ...
Direct band-gap III-V semiconductors, emitting efficiently in the amber-green region of the visible ...
Direct band gap III–V semiconductors, emitting efficiently in the amber–green region of the visible ...
\u3cp\u3eDirect band-gap III-V semiconductors, emitting efficiently in the amber-green region of the...
\u3cp\u3eCommercially available light-emitting diodes (LEDs) suffer from low-efficiency in the green...
The main challenge for light-emitting diodes is to increase the efficiency in the green part of the ...
The main challenge for light-emitting diodes is to increase the efficiency in the green part of the ...
Gallium Phosphide (GaP) with the normal cubic crystal structure has an indirect band gap, which seve...
We investigated the optical properties of wurtzite (WZ) GaP nanowires by performing photoluminescenc...
: Wurtzite AlGaAs is a technologically promising yet unexplored material. Here we study it both expe...
A GaP nanowire is promising from the viewpoint of device applications because when its crystal phase...
Thanks to their uniqueness, nanowires allow the realization of novel semiconductor crystal structure...
Wurtzite gallium phosphide (WZ GaP) has been predicted to exhibit a direct bandgap in the green spec...