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A Microarchitecture for a Superconducting Quantum Processor

Authors :
Fu, X. (author)
Rol, M.A. (author)
Bultink, C.C. (author)
van Someren, J. (author)
Khammassi, N. (author)
Ashraf, I. (author)
Vermeulen, R.F.L. (author)
de Sterke, J.C. (author)
Vlothuizen, W.J. (author)
Schouten, R.N. (author)
Almudever, Carmen G. (author)
DiCarlo, L. (author)
Bertels, K.L.M. (author)
Fu, X. (author)
Rol, M.A. (author)
Bultink, C.C. (author)
van Someren, J. (author)
Khammassi, N. (author)
Ashraf, I. (author)
Vermeulen, R.F.L. (author)
de Sterke, J.C. (author)
Vlothuizen, W.J. (author)
Schouten, R.N. (author)
Almudever, Carmen G. (author)
DiCarlo, L. (author)
Bertels, K.L.M. (author)
Publication Year :
2018

Abstract

This article proposes a quantum microarchitecture, QuMA. Flexible programmability of a quantum processor is achieved by multilevel instructions decoding, abstracting analog control into digital control, and translating instruction execution with non-deterministic timing into event trigger with precise timing. QuMA is validated by several single-qubit experiments on a superconducting qubit.<br />Computer Engineering<br />QCD/DiCarlo Lab<br />FTQC/Bertels Lab<br />ALG/General<br />BUS/General<br />QN/DiCarlo Lab<br />Quantum & Computer Engineering

Details

Database :
OAIster
Notes :
English
Publication Type :
Electronic Resource
Accession number :
edsoai.on1357817715
Document Type :
Electronic Resource
Full Text :
https://doi.org/10.1109.MM.2018.032271060