Engineering High Quality Qubits in Silicon with Atomic Precision

The realisation of a large-scale error corrected quantum computer relies on our ability to reproducibly manufacture qubits that are fast, highly coherent, controllable and stable. The promise of achieving this in a highly manufacturable platform such as silicon requires a deep understanding of the materials issues that impact device operation. In this talk I will demonstrate how we engineer every aspect of the processor using atom qubits in silicon for fast, controllable exchange coupling [1], fast, high fidelity qubit initialisation and read-out [2]; low noise all epitaxial gates for highly stable qubits [3], [4]; and efficient, high fidelity qubit control [5], [6] leading to the demonstration of the highest fidelity Grover's algorithm to date [7].

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Published
2025-06-08
DOI
https://doi.org/10.23919/snw65111.2025.11097264
Primary Topic
Quantum Information and Cryptography
Type
article
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Engineering High Quality Qubits in Silicon with Atomic Precision

M. Y. Simmons
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Quantum Information and Cryptography
article

Engineering High Quality Qubits in Silicon with Atomic Precision

M. Y. Simmons
article en

Abstract

The realisation of a large-scale error corrected quantum computer relies on our ability to reproducibly manufacture qubits that are fast, highly coherent, controllable and stable. The promise of achieving this in a highly manufacturable platform such as silicon requires a deep understanding of the materials issues that impact device operation. In this talk I will demonstrate how we engineer every aspect of the processor using atom qubits in silicon for fast, controllable exchange coupling [1], fast, high fidelity qubit initialisation and read-out [2]; low noise all epitaxial gates for highly stable qubits [3], [4]; and efficient, high fidelity qubit control [5], [6] leading to the demonstration of the highest fidelity Grover's algorithm to date [7].

Silicon Labs (United States) (US)
Industry, innovation and infrastructure
Openalex Percentile: Top 91%
Quantum Information and Cryptography
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