Quantum computation and quantum error correction: the theoretical minimum

Fuente: arXiv
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1. Verfasser: Wildon, Mark
Format: Preprint
Veröffentlicht: 2026
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author Wildon, Mark
author_facet Wildon, Mark
contents These notes introduce quantum computation and quantum error correction, emphasising the importance of stabilisers and the mathematical foundations in basic Lie theory. We begin by using the double cover map $\mathrm{SU}_2 \rightarrow \mathrm{SO}_3(\mathbb{R})$ to illustrate the distinction between states and measurements for a single qubit. We then discuss entanglement and CNOT gates, the Deutsch--Jozsa Problem, and finally quantum error correction, using the Steane $[[7,1,3]]$-code as the main example. The necessary background physics of unitary evolution and Born rule measurements is developed as needed. The circuit model is used throughout.
format Preprint
id arxiv_https___arxiv_org_abs_2602_13876
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Quantum computation and quantum error correction: the theoretical minimum
Wildon, Mark
Quantum Physics
Mathematical Physics
81P68 (Primary) 81P73 (Secondary)
These notes introduce quantum computation and quantum error correction, emphasising the importance of stabilisers and the mathematical foundations in basic Lie theory. We begin by using the double cover map $\mathrm{SU}_2 \rightarrow \mathrm{SO}_3(\mathbb{R})$ to illustrate the distinction between states and measurements for a single qubit. We then discuss entanglement and CNOT gates, the Deutsch--Jozsa Problem, and finally quantum error correction, using the Steane $[[7,1,3]]$-code as the main example. The necessary background physics of unitary evolution and Born rule measurements is developed as needed. The circuit model is used throughout.
title Quantum computation and quantum error correction: the theoretical minimum
topic Quantum Physics
Mathematical Physics
81P68 (Primary) 81P73 (Secondary)
url https://arxiv.org/abs/2602.13876