Fault-tolerant quantum architecture: a comparative code analysis
Andrew Cross Massachusetts Institute of Technology (MIT)
Quantum mechanics redefines information and its fundamental properties. Researchers at Perimeter Institute work to understand the properties of quantum information and study which information processing tasks are feasible, and which are infeasible or impossible. This includes research in quantum cryptography, which studies the trade-off between information extraction and disturbance, and its applications. It also includes research in quantum error correction, which involves the study of methods for protecting information against decoherence. Another important side of the field is studying the application of quantum information techniques and insights to other areas of physics, including quantum foundations and condensed matter.
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Asymmetric and Adaptive Error Correction in Quantum Computation
John Cortese Georgia Institute of Technology
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Threshold lower bounds for Knill\'s Fibonacci scheme
Panos Aliferis IBM (United States)
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Scalable quantum computer architecture for superconducting flux qubits
Austin Fowler Institute for Quantum Computing (IQC)
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Small scale gadgets for large scale processing
Jacob Taylor Office of Science and Technology Policy
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Low-level fault tolerance via concatenated dynamical decoupling
Daniel Lidar University of Southern California
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The Postselection Threshold Proof
Ben Reichardt Institute for Quantum Computing (IQC)
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Perfect Cluster States from Imperfect Entanglement in Optical Lattices
Mike Garrett University of Calgary
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Errors in the Trapped Ion Quantum Computer
Chris Monroe Hebrew University of Jerusalem
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Limitations of Noisy Reversible Computations II
Michael Ben-Or Hebrew University of Jerusalem
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Introduction to recent developments in fault-tolerance
John Preskill California Institute of Technology (Caltech) - Division of Physics Mathematics & Astronomy
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