Scalable and low-latency communication of classical information for advanced quantum computing and networking in a highly distributed quantum control stack
ORAL
Abstract
Realizing fault-tolerant quantum computers and quantum networks requires large-scale, low-latency data communication across a large number of control and computational resources. In the most stringent applications, this requires distribution in just 100s of nanoseconds.
For these purposes Qblox has developed a highly distributed control architecture where modules execute control and readout operations on a small number of qubits by incorporating processors capable of sequencing pulses, their parameters, and measurement operations in real time. Upon executing qubit measurements, these modules transfer their results into an extended star network that allows for the distribution of these results fast and scalable. We here demonstrate fast feedback protocols between 120 control nodes, for instance capable of controlling and reading out 30 superconducting qubits.
For these purposes Qblox has developed a highly distributed control architecture where modules execute control and readout operations on a small number of qubits by incorporating processors capable of sequencing pulses, their parameters, and measurement operations in real time. Upon executing qubit measurements, these modules transfer their results into an extended star network that allows for the distribution of these results fast and scalable. We here demonstrate fast feedback protocols between 120 control nodes, for instance capable of controlling and reading out 30 superconducting qubits.
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Presenters
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Damaz de Jong
Qblox, Qblox bv
Authors
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Damaz de Jong
Qblox, Qblox bv
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Jordy Gloudemans
Qblox, Qblox bv
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Calin Sindile
Qblox bv
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Fokko de Vries
Qblox bv
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Marijn Tiggelman
Qblox, Qblox bv
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Rahul Vyas
Qblox bv
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Maria Garcia
Qblox bv
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Jeroen van Straten
Qblox bv
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Wouter Vlothuizen
Qblox, Qblox bv
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Jules van Oven
Qblox, Qblox bv
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Cornelis Christiaan Bultink
Qblox, Qblox bv