Summary
MultiQubit is built on the concept of a novel type of quantum dots — crystal-phase quantum dots — discovered and developed by the PI. Crystal-phase quantum dots have a unique advantage — growth control with the ultimate accuracy of a single atomic layer. This advantage will break the major limitation in the field of optically-active quantum dots — impossibility to build quantum devices with multiple quantum dots due to lack of the required growth control — and thus unlock their true potential for Quantum Technologies. Based on these, MultiQubit is committed to creating a robust technological platform for making solid-state multi-qubit devices with a photonic interface. This platform shall be a game-changer in Quantum Technologies, allowing to connect quantum computers across the world. In particular, MultiQubit will develop and demonstrate all the steps from the fabrication of basic quantum structures to distributed entanglement between remote nodes of a multi-qubit Quantum Information Network. For the successful realization of these ideas, the PI proposes three key objectives:
1. Explore and demonstrate a novel crystal-phase qubit — the central element of MultiQubit. This qubit is based on crystal-phase quantum dots, which are fully designable and scalable, because their geometry can be controlled with the ultimate accuracy of a single atomic layer during the growth.
2. Build the first designable and scalable multi-qubit quantum register with a photonic interface. This is one of the major components in Quantum Information Networks to be implemented.
3. Design and demonstrate a quantum network of multi-qubit photonic devices. This may be a potential prototype of the forthcoming Quantum Internet.
1. Explore and demonstrate a novel crystal-phase qubit — the central element of MultiQubit. This qubit is based on crystal-phase quantum dots, which are fully designable and scalable, because their geometry can be controlled with the ultimate accuracy of a single atomic layer during the growth.
2. Build the first designable and scalable multi-qubit quantum register with a photonic interface. This is one of the major components in Quantum Information Networks to be implemented.
3. Design and demonstrate a quantum network of multi-qubit photonic devices. This may be a potential prototype of the forthcoming Quantum Internet.
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More information & hyperlinks
| Web resources: | https://cordis.europa.eu/project/id/101003378 |
| Start date: | 01-06-2021 |
| End date: | 31-05-2026 |
| Total budget - Public funding: | 2 587 745,00 Euro - 2 587 745,00 Euro |
Cordis data
Original description
MultiQubit is built on the concept of a novel type of quantum dots — crystal-phase quantum dots — discovered and developed by the PI. Crystal-phase quantum dots have a unique advantage — growth control with the ultimate accuracy of a single atomic layer. This advantage will break the major limitation in the field of optically-active quantum dots — impossibility to build quantum devices with multiple quantum dots due to lack of the required growth control — and thus unlock their true potential for Quantum Technologies. Based on these, MultiQubit is committed to creating a robust technological platform for making solid-state multi-qubit devices with a photonic interface. This platform shall be a game-changer in Quantum Technologies, allowing to connect quantum computers across the world. In particular, MultiQubit will develop and demonstrate all the steps from the fabrication of basic quantum structures to distributed entanglement between remote nodes of a multi-qubit Quantum Information Network. For the successful realization of these ideas, the PI proposes three key objectives:1. Explore and demonstrate a novel crystal-phase qubit — the central element of MultiQubit. This qubit is based on crystal-phase quantum dots, which are fully designable and scalable, because their geometry can be controlled with the ultimate accuracy of a single atomic layer during the growth.
2. Build the first designable and scalable multi-qubit quantum register with a photonic interface. This is one of the major components in Quantum Information Networks to be implemented.
3. Design and demonstrate a quantum network of multi-qubit photonic devices. This may be a potential prototype of the forthcoming Quantum Internet.
Status
SIGNEDCall topic
ERC-2020-COGUpdate Date
27-04-2024
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