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Part I |
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Overview of measurement based quatum computation, Cluster states - their definition and creation, review of experiments, a bit of subject history 32 min |
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Part II |
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The universality proof. Every quantum circuit can be efficiently translated into measurement based quantum computation. 51 min |
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Part III |
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Quantum computation with probabilistic heralded gates, and how measurement-based quantum computation helps with that. 14 min |
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Part IV |
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Fault tolerant measurement based quantum computation: 3D cluster states are inherently fault tolerant substrates; topological implementation of fault tolerant quantum gates by "drilling holes" into cluster states. 38 min |
The purpose of the workshop was to discuss in a small setting the recent advances in our understanding of quantum computation through algebraic methods. Topics included: Quantum algorithms, Generalized stabilizer formalisms, discrete Wigner functions and SICs, Symmetry-protected topological order and computational phases of quantum matter, Contextuality and Bell-nonlocality, Quantum Bayesianism, Quantum error-correction, Models of quantum computation, Mathematical methods such as Group theory, cohomology and number theory.
ASQC4 talk videos - Click here + Abstracts + Speakers
Workshop dates: June 22 -24, 2020
Location: Zoom
Hosted by the University of British Columbia, Vancouver, Canada
Scientific organizers: Cihan Okay, Robert Raussendorf (UBC Vancouver)