Modeling and design of a single photon detector and its various characteristics are presented. It is a type of avalanche photo diode (APD) designed to suit the requirements of a Quantum Key Distribution (QKD) detection system. The device is modeled to operate in a gated mode at liquid nitrogen temperature for minimum noise and maximum gain. Different types of APDs are compared for best performance. The APD is part of an optical communication link, which is a private channel to transmit the key signal. The encrypted message is sent via a public channel. The optical link operates at a wavelength of 1.55μm. The design is based on InGaAs with a quantum efficiency of more than 75% and a multiplication factor of 1000. The calculated dark current ...
The performance of three types of InGaAs/InP avalanche photodiodes is investigated for photon counti...
We present a detailed analysis of a gigahertz clock rate environmentally robust phase-encoded quantu...
In order to improve the sensitivity of an optical receiver, the gain and the collection area of the ...
Modeling and design of a single photon detector and its various characteristics are presented. It is...
Quantum communication, in particular, quantum key distribution (QKD) is moving ever closer to real w...
QKD systems widely employ Single-Photon Avalanche Diodes (SPAD) and set strong demand for improved f...
The application of quantum key distribution has raised particular demands for single-photon detector...
The implementation and commercialization of quantum cryptography technologies have to face some chal...
The integrity of conventional cryptographic systems is placed upon the assumption of the inability o...
Single-photon detection concept is the most crucial factor that determines the performance of quantu...
We report room temperature operation of telecom wavelength single-photon detectors for high bit rate...
In recent years, the security of avalanche photodiodes as single photon detectors for quantum key di...
Abstract—We present the design, implementation, and charac-terization of a single-photon counting mo...
A new avalanche detector concept is presented that promises very high (close to 100%) quantum effici...
We control using bright light an actively-quenched avalanche single-photon detector. Actively-quench...
The performance of three types of InGaAs/InP avalanche photodiodes is investigated for photon counti...
We present a detailed analysis of a gigahertz clock rate environmentally robust phase-encoded quantu...
In order to improve the sensitivity of an optical receiver, the gain and the collection area of the ...
Modeling and design of a single photon detector and its various characteristics are presented. It is...
Quantum communication, in particular, quantum key distribution (QKD) is moving ever closer to real w...
QKD systems widely employ Single-Photon Avalanche Diodes (SPAD) and set strong demand for improved f...
The application of quantum key distribution has raised particular demands for single-photon detector...
The implementation and commercialization of quantum cryptography technologies have to face some chal...
The integrity of conventional cryptographic systems is placed upon the assumption of the inability o...
Single-photon detection concept is the most crucial factor that determines the performance of quantu...
We report room temperature operation of telecom wavelength single-photon detectors for high bit rate...
In recent years, the security of avalanche photodiodes as single photon detectors for quantum key di...
Abstract—We present the design, implementation, and charac-terization of a single-photon counting mo...
A new avalanche detector concept is presented that promises very high (close to 100%) quantum effici...
We control using bright light an actively-quenched avalanche single-photon detector. Actively-quench...
The performance of three types of InGaAs/InP avalanche photodiodes is investigated for photon counti...
We present a detailed analysis of a gigahertz clock rate environmentally robust phase-encoded quantu...
In order to improve the sensitivity of an optical receiver, the gain and the collection area of the ...