We demonstrate that the resonant tunnel current through a double-barrier structure is sensitive to the capture of single photoexcited holes by an adjacent layer of quantum dots. This phenomenon could allow the detection of single photons with low dark count rates and high quantum efficiencies. The magnitude of the sensing current may be controlled via the thickness of the tunnel barriers. Larger currents give improved signal to noise and allow sub-mus photon time resolution
Dispersive sensing is a powerful technique that enables scalable and high-fidelity readout of solid-...
Resonant tunneling through a single layer of self-assembled quantum dots (QDs) as well as tunneling ...
Current quantum cryptography systems are limited by the attenuated coherent pulses they use as light...
Single photon detection has a broad application in the medical, telecommunication, as well as in inf...
Single photon detection was realized at a telecom wavelength with quantum dot resonant tunneling dio...
Optical quantum information science and technologies require the capability to generate, control, an...
Capturing single photons through light–matter interactions is a fascinating and important topic for ...
We report on the operation of a novel single-photon detector, where a layer of self-assembled quantu...
We describe the design of the epitaxial layers for an efficient, photon-number-determining detector ...
We report the use of resonant tunneling (RT) assisted barriers to reduce the dark current in quantum...
Interfacing single photons and electrons is a crucial element in sharing quantum information between...
Detectors with the capability to directly measure the photon number of a pulse of light enable linea...
A novel device for detection of single photons based on a GaAs/AlGaAs modulation doped field effect ...
Searching for innovative approaches to detect single photons remains at the center of science and te...
We observe individual tunnel events of a single electron between a quantum dot and a reservoir, usin...
Dispersive sensing is a powerful technique that enables scalable and high-fidelity readout of solid-...
Resonant tunneling through a single layer of self-assembled quantum dots (QDs) as well as tunneling ...
Current quantum cryptography systems are limited by the attenuated coherent pulses they use as light...
Single photon detection has a broad application in the medical, telecommunication, as well as in inf...
Single photon detection was realized at a telecom wavelength with quantum dot resonant tunneling dio...
Optical quantum information science and technologies require the capability to generate, control, an...
Capturing single photons through light–matter interactions is a fascinating and important topic for ...
We report on the operation of a novel single-photon detector, where a layer of self-assembled quantu...
We describe the design of the epitaxial layers for an efficient, photon-number-determining detector ...
We report the use of resonant tunneling (RT) assisted barriers to reduce the dark current in quantum...
Interfacing single photons and electrons is a crucial element in sharing quantum information between...
Detectors with the capability to directly measure the photon number of a pulse of light enable linea...
A novel device for detection of single photons based on a GaAs/AlGaAs modulation doped field effect ...
Searching for innovative approaches to detect single photons remains at the center of science and te...
We observe individual tunnel events of a single electron between a quantum dot and a reservoir, usin...
Dispersive sensing is a powerful technique that enables scalable and high-fidelity readout of solid-...
Resonant tunneling through a single layer of self-assembled quantum dots (QDs) as well as tunneling ...
Current quantum cryptography systems are limited by the attenuated coherent pulses they use as light...