Her primary scientific interests are in Quantum mechanics, Quantum teleportation, No-teleportation theorem, Quantum information and Quantum capacity. Quantum mechanics is a component of her Quantum entanglement, Quantum error correction and Quantum algorithm studies. In her work, Superdense coding, Quantum key distribution and Quantum channel is strongly intertwined with Theoretical computer science, which is a subfield of Quantum teleportation.
Debbie Leung combines subjects such as Quantum state, Mutual information, Range and Cluster state with her study of No-teleportation theorem. Her research in Quantum information intersects with topics in Discrete mathematics and Quantum computer. Her work focuses on many connections between Quantum capacity and other disciplines, such as Quantum cryptography, that overlap with her field of interest in Upper and lower bounds, Quantum information science, State and Communication source.
Debbie Leung mainly investigates Quantum entanglement, Quantum mechanics, Quantum information, Quantum and Quantum capacity. Her Quantum entanglement study incorporates themes from Quantum state, Communication source, State and Channel capacity. Her Quantum error correction, Quantum algorithm, Open quantum system, W state and Quantum teleportation investigations are all subjects of Quantum mechanics research.
Her Quantum error correction research integrates issues from Algorithm and Quantum network. Her work carried out in the field of Quantum information brings together such families of science as Theoretical physics, Quantum information science, Theoretical computer science and Statistical physics. Her Quantum capacity research is multidisciplinary, incorporating perspectives in Quantum channel, No-teleportation theorem, Coherent information, Amplitude damping channel and Topology.
Her primary areas of investigation include Qubit, Quantum, Quantum capacity, Discrete mathematics and Quadratic equation. Her work deals with themes such as Algorithm and Error detection and correction, which intersect with Qubit. Debbie Leung works in the field of Quantum, focusing on Quantum entanglement in particular.
Quantum capacity is a subfield of Quantum mechanics that she studies. In the field of Quantum mechanics, her study on Amplitude damping channel and Classical capacity overlaps with subjects such as Depolarization and Noise. Her work in Quantum channel covers topics such as Quantum information science which are related to areas like Upper and lower bounds.
Debbie Leung spends much of her time researching Quantum, Qubit, Quantum capacity, Hash function and Logarithm. The concepts of her Qubit study are interwoven with issues in Channel code, Upper and lower bounds and Quantum entanglement. Her Quantum capacity study integrates concerns from other disciplines, such as Topology, Statistical physics and Coherent information.
Her Statistical physics research is multidisciplinary, incorporating elements of Dephasing, Binary erasure channel and Quantum channel, Quantum information. Her Coherent information research is classified as research in Quantum information science. The Hash function study combines topics in areas such as Discrete mathematics, Quadratic equation and Electronic circuit.
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Experimental realization of a quantum algorithm
Isaac L. Chuang;Lieven M. K. Vandersypen;Xinlan Zhou;Debbie W. Leung.
Nature (1998)
Bulk quantum computation with nuclear magnetic resonance: theory and experiment
I. L. Chuang;N. Gershenfeld;M. G. Kubinec;D. W. Leung.
Proceedings of The Royal Society A: Mathematical, Physical and Engineering Sciences (1998)
Quantum data hiding
D.P. DiVincenzo;D.W. Leung;B.M. Terhal.
IEEE Transactions on Information Theory (2002)
Aspects of Generic Entanglement
Patrick Hayden;Debbie W. Leung;Andreas Winter.
Communications in Mathematical Physics (2006)
Randomizing Quantum States: Constructions and Applications
Patrick Hayden;Debbie Leung;Peter W. Shor;Andreas Winter.
Communications in Mathematical Physics (2004)
Locking classical correlations in quantum States.
David P. DiVincenzo;David P. DiVincenzo;Michał Horodecki;Debbie W. Leung;Debbie W. Leung;Debbie W. Leung;John A. Smolin.
Physical Review Letters (2004)
Methodology for quantum logic gate construction
Xinlan Zhou;Xinlan Zhou;Debbie W. Leung;Debbie W. Leung;Isaac L. Chuang.
Physical Review A (2000)
Everything You Always Wanted to Know About LOCC (But Were Afraid to Ask)
Eric Anil Chitambar;Eric Anil Chitambar;Debbie Leung;Laura Mančinska;Maris Ozols;Maris Ozols.
Communications in Mathematical Physics (2014)
Oblivious remote state preparation.
Debbie W. Leung;Debbie W. Leung;Peter W. Shor.
Physical Review Letters (2003)
The entanglement of purification
Barbara M. Terhal;Michał Horodecki;Debbie W. Leung;David P. DiVincenzo.
Journal of Mathematical Physics (2002)
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