A practical architecture for reliable quantum computers

by: M Oskin, FT Chong, IL Chuang

Computer, Vol. 35, No. 1. (2002), pp. 79-87.

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Abstract

Quantum computation has advanced to the point where system-level solutions can help close the gap between emerging quantum technologies and real-world computing requirements. Empirical studies of practical quantum architectures are just beginning to appear in the literature. Elementary architectural concepts are still lacking: How do we provide quantum storage, data paths, classical control circuits, parallelism, and system integration? And, crucially, how can we design architectures to reduce error-correction overhead? The authors describe a proposed architecture that uses code teleportation, quantum memory refresh units, dynamic compilation of quantum programs, and scalable error correction to achieve system-level efficiencies. They assert that their work indicates the underlying technology's reliability is crucial; practical architectures will require quantum technologies with error rates between 10-6 and 10-9

@article{citeulike:691460, abstract = {Quantum computation has advanced to the point where system-level solutions can help close the gap between emerging quantum technologies and real-world computing requirements. Empirical studies of practical quantum architectures are just beginning to appear in the literature. Elementary architectural concepts are still lacking: How do we provide quantum storage, data paths, classical control circuits, parallelism, and system integration? And, crucially, how can we design architectures to reduce error-correction overhead? The authors describe a proposed architecture that uses code teleportation, quantum memory refresh units, dynamic compilation of quantum programs, and scalable error correction to achieve system-level efficiencies. They assert that their work indicates the underlying technology's reliability is crucial; practical architectures will require quantum technologies with error rates between 10-6 and 10-9}, author = {Oskin, M. and Chong, F. T. and Chuang, I. L. }, citeulike-article-id = {691460}, journal = {Computer}, keywords = {quantum}, number = {1}, pages = {79--87}, posted-at = {2007-03-19 15:47:26}, priority = {3}, title = {A practical architecture for reliable quantum computers}, url = {http://ieeexplore.ieee.org/xpls/abs\_all.jsp?arnumber=976922}, volume = {35}, year = {2002} }

RIS record

TY - JOUR ID - citeulike:691460 TI - A practical architecture for reliable quantum computers JF - Computer VL - 35 IS - 1 SP - 79 EP - 87 N2 - Quantum computation has advanced to the point where system-level solutions can help close the gap between emerging quantum technologies and real-world computing requirements. Empirical studies of practical quantum architectures are just beginning to appear in the literature. Elementary architectural concepts are still lacking: How do we provide quantum storage, data paths, classical control circuits, parallelism, and system integration? And, crucially, how can we design architectures to reduce error-correction overhead? The authors describe a proposed architecture that uses code teleportation, quantum memory refresh units, dynamic compilation of quantum programs, and scalable error correction to achieve system-level efficiencies. They assert that their work indicates the underlying technology's reliability is crucial; practical architectures will require quantum technologies with error rates between 10-6 and 10-9 KW - quantum AU - Oskin, M AU - Chong, FT AU - Chuang, IL PY - 2002/// UR - http://ieeexplore.ieee.org/xpls/abs_all.jsp?arnumber=976922 ER -

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