Electroluminescence from a single quantum dot within the intrinsic region of a p-i-n junction is shown to act as an electrically driven single-photon source. At low injection currents, the dot electroluminescence spectrum reveals a single sharp line due to exciton recombination, while another line due to the biexciton emerges at higher currents. The second-order correlation function of the diode displays anti-bunching under a continuous drive current. Single-photon emission is stimulated by subnanosecond voltage pulses. These results suggest that semiconductor technology can be used to mass-produce a single-photon source for applications in quantum information technology
For scalable applications of optical quantum information it is desirable to have a well controlled s...
We report on a quantum dot micropillar-based single-photon source demonstrating tunable emission ene...
The efficient generation of polarized single or entangled photons is a crucial requirement for the i...
Electroluminescence from a single quantum dot within the intrinsic region of a p-i-n junction is sho...
The realization of an electrically-driven single photon source based upon integrating InAs quantum d...
Electrically driven single photon source based on single InAs quantum dot (QDs) is demonstrated. The...
We describe an electrically driven single photon source consisting of a single InAs/GaAs quantum dot...
We demonstrate generation of a pulsed stream of electrically triggered single photons in resonance f...
We present a demonstration of single photon emission from an entirely electrically driven resonant i...
We show that a planar semiconductor cavity can be used to enhance by a factor of ten the efficiency ...
Lasers and LEDs have a statistical distribution in the number of photons emitted within a given time...
This article may be downloaded for personal use only. Any other use requires prior permission of the...
Single photon sources are important components for future quantum communication networks. Lights emi...
An electrically driven single-photon source has been monolithically integrated with nano-photonic ci...
We present a novel single-mode single photon source exploiting the emission of a semiconductor quan...
For scalable applications of optical quantum information it is desirable to have a well controlled s...
We report on a quantum dot micropillar-based single-photon source demonstrating tunable emission ene...
The efficient generation of polarized single or entangled photons is a crucial requirement for the i...
Electroluminescence from a single quantum dot within the intrinsic region of a p-i-n junction is sho...
The realization of an electrically-driven single photon source based upon integrating InAs quantum d...
Electrically driven single photon source based on single InAs quantum dot (QDs) is demonstrated. The...
We describe an electrically driven single photon source consisting of a single InAs/GaAs quantum dot...
We demonstrate generation of a pulsed stream of electrically triggered single photons in resonance f...
We present a demonstration of single photon emission from an entirely electrically driven resonant i...
We show that a planar semiconductor cavity can be used to enhance by a factor of ten the efficiency ...
Lasers and LEDs have a statistical distribution in the number of photons emitted within a given time...
This article may be downloaded for personal use only. Any other use requires prior permission of the...
Single photon sources are important components for future quantum communication networks. Lights emi...
An electrically driven single-photon source has been monolithically integrated with nano-photonic ci...
We present a novel single-mode single photon source exploiting the emission of a semiconductor quan...
For scalable applications of optical quantum information it is desirable to have a well controlled s...
We report on a quantum dot micropillar-based single-photon source demonstrating tunable emission ene...
The efficient generation of polarized single or entangled photons is a crucial requirement for the i...