Towards transistor-based quantum computing

Fuente: arXiv
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Autori principali: Liu, Y. -D., Xu, X., Wang, Q. -R., Wang, D. -S.
Natura: Preprint
Pubblicazione: 2026
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author Liu, Y. -D.
Xu, X.
Wang, Q. -R.
Wang, D. -S.
author_facet Liu, Y. -D.
Xu, X.
Wang, Q. -R.
Wang, D. -S.
contents In this work, we propose and study in depth a universal quantum computing architecture based on a quantum construction of transistors. Our teleportation-based quantum transistors, called ``telesistors'', are ground states of systems with symmetry-protected topological order, hence suppress certain noises and provide high-fidelity Clifford gates without the need for active error correction. This physical protection, quantified by the string order parameters, serves as a low-overhead foundation upon which conventional fault-tolerant encoding (e.g., with stabilizer codes) can be built to achieve universal quantum computation. This architecture shows rich connections with current known architectures, and some desirable merits especially compared with the qubit-based circuits regarding modularity, integration, and program storage. Our study shows that it is plausible to realize it with current technology in the near future.
format Preprint
id arxiv_https___arxiv_org_abs_2605_21045
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Towards transistor-based quantum computing
Liu, Y. -D.
Xu, X.
Wang, Q. -R.
Wang, D. -S.
Quantum Physics
Materials Science
Strongly Correlated Electrons
Hardware Architecture
In this work, we propose and study in depth a universal quantum computing architecture based on a quantum construction of transistors. Our teleportation-based quantum transistors, called ``telesistors'', are ground states of systems with symmetry-protected topological order, hence suppress certain noises and provide high-fidelity Clifford gates without the need for active error correction. This physical protection, quantified by the string order parameters, serves as a low-overhead foundation upon which conventional fault-tolerant encoding (e.g., with stabilizer codes) can be built to achieve universal quantum computation. This architecture shows rich connections with current known architectures, and some desirable merits especially compared with the qubit-based circuits regarding modularity, integration, and program storage. Our study shows that it is plausible to realize it with current technology in the near future.
title Towards transistor-based quantum computing
topic Quantum Physics
Materials Science
Strongly Correlated Electrons
Hardware Architecture
url https://arxiv.org/abs/2605.21045