Imagine trying to build a super-advanced computer using the same factories that make today's smartphone chips. Instead of inventing entirely new manufacturing plants, this project uses a special silicon layering technique to make quantum bits more reliable. It's like upgrading the blueprint of a chip so it can handle quantum calculations without losing its stability.
There is a gap between how the semiconductor industry makes chips and what quantum computers actually need to function. This makes it difficult to move quantum computing from the lab to a mass-produced commercial product.
An FDSOI-based quantum processor demonstrator featuring a 4X4 multi-core architecture and associated software control systems.
If you are a drug discovery firm dealing with the inability to simulate complex molecules — this project developed an FDSOI-based quantum processor demonstrator that provides a scalable path to high-performance computing. This could eventually accelerate the discovery of new medicines.
If you are an encryption software provider dealing with the threat of quantum decryption — this project developed a 4X4 multi-core architecture that advances the commercial availability of quantum hardware. This allows for better testing of quantum-resistant security protocols.
If you are a supply chain optimizer dealing with massive routing variables — this project developed a silicon-based quantum processor using FDSOI technology that aims for reproducibility. This creates a foundation for solving optimization problems at a commercial scale.
Based on available project data, specific pricing for the end product is not listed, though the EU provided a contribution of EUR 2,440,870 for development.
Yes, the project uses FDSOI technology, which leverages the mature semiconductor industry to enable fabrication in a scalable and reproducible manner.
Based on available project data, the technology is being developed by QUOBLY (Siquance), but specific licensing terms are not provided.
The project focuses on electronic and software control (WP3) to bridge the gap between semiconductor industry techniques and quantum computer requirements.
The project period is from 2024-01-01 to 2026-06-30.
The project is led by a single SME, QUOBLY, based in France. With a 100% industry ratio and no university or research center partners, the project is highly commercially driven and focused on market transition rather than basic academic research.
Contact QUOBLY in France
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