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Springer eBooks

Coda: Quantum Dissidents - A Collective Biographical Profile

Olival Freire

Published Sep 20, 2014• 0 citations
Publisher
DOI
10.1007/978-3-662-44662-1_9

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Recent advances in nanotechnology allow very accurate manipulation of small collections of quantum dots (QDs), an important step in semiconductor-based quantum computation. As the number of QDs in a device grows, it becomes increasingly useful to control the system with as few voltage changes as possible. The authors offer a protocol, ``CODA'', both to efficiently identify sparse sets of voltage changes for controlling a quantum system, and to introduce a metric for comparing device designs. As a method for efficiently controlling $a\phantom{\rule{0}{0ex}}n\phantom{\rule{0}{0ex}}d$ designing a device, CODA will impact engineering solutions to the extension of semiconductor-based quantum computation.

arXiv:1806.04318•Physical Review Applied•Feb 25, 2019•7 citations
Recent advances in nanotechnology allow very accurate manipulation of small collections of quantum dots (QDs), an important step in semiconductor-based quantum computation. As the number of QDs in a device grows, it becomes increasingly useful to control the system with as few voltage changes as possible. The authors offer a protocol, ``CODA'', both to efficiently identify sparse sets of voltage changes for controlling a quantum system, and to introduce a metric for comparing device designs. As a method for efficiently controlling $a\phantom{\rule{0}{0ex}}n\phantom{\rule{0}{0ex}}d$ designing a device, CODA will impact engineering solutions to the extension of semiconductor-based quantum computation.