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Qubits

Dr Shuxiang Cao

Long Term Visitor

Research theme

  • Quantum information and computation

Sub department

  • Condensed Matter Physics

Research groups

  • Superconducting quantum devices
shuxiang.cao@physics.ox.ac.uk
Clarendon Laboratory, room 120,030
  • About
  • Publications

Superconducting qubit readout enhanced by path signature

(2024)

Authors:

Shuxiang Cao, Zhen Shao, Jian-Qing Zheng, Mohammed Alghadeer, Simone D Fasciati, Michele Piscitelli, Peter A Spring, Shiyu Wang, Shuhei Tamate, Neel Vora, Yilun Xu, Gang Huang, Kasra Nowrouzi, Yasunobu Nakamura, Irfan Siddiqi, Peter Leek, Terry Lyons, Mustafa Bakr
More details from the publisher
Details from ArXiV

Data for "Efficient Characterization of Qudit Logical Gates with Gate Set Tomography Using an Error-Free Virtual Z Gate Model"

University of Oxford (2024)

Abstract:

Data for "Efficient Characterization of Qudit Logical Gates with Gate Set Tomography Using an Error-Free Virtual Z Gate Model"
Details from ORA

Data for "Emulating two qubits with a four-level transmon qudit for variational quantum algorithms"

University of Oxford (2024)

Abstract:

Data for "Emulating two qubits with a four-level transmon qudit for variational quantum algorithms"
Details from ORA

Data for "Encoding optimization for quantum machine learning demonstrated on a superconducting transmon qutrit"

University of Oxford (2024)

Abstract:

Data for "Encoding optimization for quantum machine learning demonstrated on a superconducting transmon qutrit"
Details from ORA

Multi-agent blind quantum computation without universal cluster states

New Journal of Physics IOP Publishing 25:10 (2023) 103028

Abstract:

Blind quantum computation (BQC) protocols enable quantum algorithms to be executed on third-party quantum agents while keeping the data and algorithm confidential. The previous proposals for measurement-based BQC require preparing a highly entangled cluster state. In this paper, we show that such a requirement is not necessary. Our protocol only requires pre-shared Bell pairs between delegated quantum agents, and there is no requirement for any classical or quantum information exchange between agents during the execution. Our proposal requires fewer quantum resources than previous proposals by eliminating the need for a universal cluster state.
More details from the publisher
Details from ORA
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