Cryo-CMOS for Quantum Computing

Conference Paper (2017)
Author(s)

Edoardo Charbon (TU Delft - OLD QCD/Charbon Lab, École Polytechnique Fédérale de Lausanne, TU Delft - (OLD)Applied Quantum Architectures)

F Sebastiano (TU Delft - Electronic Instrumentation)

Andrei Vladimirescu (Institut Supérieur d’Electronique de Paris,, TU Delft - OLD QCD/Charbon Lab, University of California)

Harald Homulle (TU Delft - OLD QCD/Charbon Lab)

S. Visser (External organisation)

L Song (TU Delft - ImPhys/Quantitative Imaging, Tsinghua University)

R.M. Incandela (TU Delft - OLD QCD/Charbon Lab)

Research Group
(OLD)Applied Quantum Architectures
DOI related publication
https://doi.org/10.1109/IEDM.2016.7838410
More Info
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Publication Year
2017
Language
English
Research Group
(OLD)Applied Quantum Architectures
Pages (from-to)
343-346
ISBN (electronic)
978-1-5090-3902-9

Abstract

Cryogenic CMOS, or cryo-CMOS circuits and systems, are emerging in VLSI design for many applications, in primis quantum computing. Fault-tolerant quantum bits (qubits) in surface code configurations, one of the most accepted implementations in quantum computing, operate in deep sub-Kelvin regime and require scalable classical control circuits. In this paper we advocate the need for a new generation of deep-submicron CMOS circuits operating at deep-cryogenic temperatures to achieve the performance required in a fault-tolerant qubit system. We outline the challenges and limitations of operating CMOS in near-zero Kelvin regimes and we propose solutions. The paper concludes with several examples showing the suitability of integrating fault-tolerant.qubits with CMOS.

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