
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.
Format results
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Perimeter Greeting
Paul Smith Perimeter Institute for Theoretical Physics
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Introduction & Welcoming Remarks
James Shaffer Quantum Valley Ideas Laboratories
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On nonlinear transformations in quantum computation
Zoe Holmes Los Alamos National Laboratory
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Resource theory of quantum complexity
Anthony Munson University of Maryland, College Park
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Causal aspects of quantum information in quantum gravity
Alex May Perimeter Institute for Theoretical Physics
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Neural Network Decoders for Measurement-Induced Phase Transitions
Michael Gullans University of Maryland, College Park
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Quantum error correction meets continuous symmetries: fundamental trade-offs and case studies
Sisi Zhou Perimeter Institute for Theoretical Physics
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Fault tolerance as topology, a duet for chalk and violin
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Daniel Gottesman University of Maryland, College Park
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Lucy Liuxuan Zhang University of Maryland, College Park
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Putting resource theories to work in chemistry
Nicole Yunger Halpern National Institute of Standards and Technology
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Fold-Transversal Clifford Gates for Quantum Codes
Nikolas Breuckmann University College London
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Entanglement dynamics from random product states at long times
Yichen Huang Massachusetts Institute of Technology (MIT)