Partitioning Cryogenic Integrated Electronics for Scalable Spin Qubit Operation

A systematic investigation of currently implemented cryogenic electronics for controlling and reading out spin qubits using complementary metal-oxide semiconductor (CMOS) technology is done. Scalability is the primary focus in developing these circuits, as enabling universal quantum computing requires increasing the number of qubits by several orders of magnitude. Low power dissipation is a main quality benchmark for cryogenic circuits that is being optimized. Next to that, the possibility of connecting multiple control signals to each qubit is a challenge for large qubit numbers. Depending on the placement of the electronics, different power budgets and connectivity options are available. These characteristics are used to discuss medium and long-term use-cases for existing designs and what future concepts and developments might be possible or necessary for full scalability on the example of spin qubit operation electronics.

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Published
2025-08-30
DOI
https://doi.org/10.1109/qce65121.2025.00121
Primary Topic
Quantum and electron transport phenomena
Type
article
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article

Partitioning Cryogenic Integrated Electronics for Scalable Spin Qubit Operation

Lammert Duipmans, Lotte Geck, Stefan van Waasen, Pau Dietz Romero
Quantum and electron transport phenomena
article

Partitioning Cryogenic Integrated Electronics for Scalable Spin Qubit Operation

Lammert Duipmans, Lotte Geck, Stefan van Waasen, Pau Dietz Romero
article en

Abstract

A systematic investigation of currently implemented cryogenic electronics for controlling and reading out spin qubits using complementary metal-oxide semiconductor (CMOS) technology is done. Scalability is the primary focus in developing these circuits, as enabling universal quantum computing requires increasing the number of qubits by several orders of magnitude. Low power dissipation is a main quality benchmark for cryogenic circuits that is being optimized. Next to that, the possibility of connecting multiple control signals to each qubit is a challenge for large qubit numbers. Depending on the placement of the electronics, different power budgets and connectivity options are available. These characteristics are used to discuss medium and long-term use-cases for existing designs and what future concepts and developments might be possible or necessary for full scalability on the example of spin qubit operation electronics.

X-Fab (Germany) (DE)
Openalex Percentile: Top 70%
Quantum and electron transport phenomena
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Partitioning Cryogenic Integrated Electronics for Scalable Spin Qubit Operation — Lammert Duipmans, Lotte Geck, et al. · (2025) | TGRS Research Map | TGRS