Zhiliang Yuan mainly focuses on Quantum key distribution, Quantum cryptography, Optics, Key and Optoelectronics. The study incorporates disciplines such as Quantum channel, Quantum information and Computer network, Encryption in addition to Quantum key distribution. His Encryption course of study focuses on Repeater and Noise and Electronic engineering.
His research integrates issues of Multiplexing and Interferometry in his study of Quantum cryptography. His Key study frequently links to related topics such as Optical fiber. He has included themes like Avalanche photodiode and Detector in his Optoelectronics study.
His main research concerns Quantum key distribution, Optics, Optoelectronics, Photon and Quantum cryptography. His Quantum key distribution research includes themes of Quantum channel, Quantum network and Electronic engineering. His study in Optics is interdisciplinary in nature, drawing from both Quantum information science and Signal.
In Optoelectronics, he works on issues like Avalanche photodiode, which are connected to Photodiode and Photon counting. His work carried out in the field of Photon brings together such families of science as Quantum information and Information leakage. His Quantum cryptography research is multidisciplinary, relying on both Telecommunications, Phase modulation and Interferometry.
His primary scientific interests are in Quantum key distribution, Electronic engineering, Quantum, Optics and Key. His biological study spans a wide range of topics, including Quantum cryptography, Quantum channel, BB84, Detector and Communication channel. His Quantum cryptography research incorporates elements of Multiplexing and Quantum network.
His work in Detector addresses subjects such as Optoelectronics, which are connected to disciplines such as Information leakage. Zhiliang Yuan combines subjects such as Phase, Jitter and Quantum information science with his study of Optics. Within one scientific family, Zhiliang Yuan focuses on topics pertaining to Photon under Key, and may sometimes address concerns connected to Diode.
His primary areas of study are Quantum key distribution, Electronic engineering, Quantum, Quantum cryptography and Quantum channel. Key and Optics are inextricably linked to his Quantum key distribution research. The concepts of his Key study are interwoven with issues in Optoelectronics, Detector and Quantum information.
His studies in Electronic engineering integrate themes in fields like Avalanche photodiode and Photonics. His study in the field of BB84 also crosses realms of Optical modulation amplitude. In his study, Noise, Repeater, Limit and Electrical engineering is inextricably linked to Communication channel, which falls within the broad field of Quantum channel.
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Electrically Driven Single-Photon Source
Zhiliang Yuan;Beata E. Kardynal;R. Mark Stevenson;Andrew J. Shields.
Science (2002)
Field test of quantum key distribution in the Tokyo QKD Network
Sasaki M;Fujiwara M;Ishizuka H;Klaus W.
Optics Express (2011)
Quantum key distribution over 122 km of standard telecom fiber
C. Gobby;Z. L. Yuan;A. J. Shields.
Applied Physics Letters (2004)
The SECOQC quantum key distribution network in Vienna
M. Peev;C. Pacher;R. Alléaume;Claudio Barreiro.
New Journal of Physics (2009)
Field test of quantum key distribution in the Tokyo QKD Network
M. Sasaki;M. Fujiwara;H. Ishizuka;W. Klaus.
arXiv: Quantum Physics (2011)
Overcoming the rate-distance limit of quantum key distribution without quantum repeaters.
M. Lucamarini;Z. L. Yuan;J. F. Dynes;A. J. Shields.
Nature (2018)
Overcoming the rate-distance barrier of quantum key distribution without using quantum repeaters
Marco Lucamarini;Zhiliang Yuan;James F. Dynes;Andrew J. Shields.
arXiv: Quantum Physics (2018)
Practical challenges in quantum key distribution
Eleni Diamanti;Hoi Kwong Lo;Bing Qi;Bing Qi;Zhiliang Yuan.
npj Quantum Information (2016)
High speed single photon detection in the near infrared
Z. L. Yuan;B. E. Kardynal;A. W. Sharpe;A. J. Shields.
Applied Physics Letters (2007)
Carrier relaxation and thermal activation of localized excitons in self-organized InAs multilayers grown on GaAs substrates
Zhongying Xu;Zhendong Lü;Xiaoping Yang;Zhiliang Yuan.
Physical Review B (1996)
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