Imagine a computer chip where information is stored in the spin of electrons, like tiny compass needles. Instead of using bulky magnets to flip these needles, this technology uses electric fields to do the job. It's like switching from a heavy manual lever to a light-touch electronic switch, making the system much easier to shrink and mass-produce.
Current quantum computers struggle with 'noise' and the extreme difficulty of scaling up the number of qubits. Existing methods require complex on-chip magnets or RF fields that are hard to manufacture at scale.
The project has created single and double quantum dots using 2D electron gases at oxide interfaces and developed free-standing LAO/STO oxide membranes.
If you are a chip fabricator dealing with the difficulty of integrating quantum components into existing silicon lines — this project developed a 2D-oxide platform that allows for wafer-scale integration. This removes the need for complex on-chip micromagnets.
If you are a processor developer dealing with high error rates and decoherence — this project developed spin-orbit qubits that have achieved a state initialization and read-out fidelity of 99.6%. This improves the reliability of quantum information processing.
If you are an infrastructure provider dealing with the scaling limits of current qubits — this project developed a method to couple spins via photons or phonons. This enables a more scalable multi-qubit platform beyond simple one-dimensional layouts.
Based on available project data, there is no information regarding the cost of production or pricing models.
The project aims for wafer-scale size integration with silicon technology, suggesting a path toward industrial scalability.
Based on available project data, specific patent or licensing details are not provided; however, the project is funded under HORIZON-EIC.
The platform is designed to be integrated with silicon-technology at a wafer-scale size.
The project period runs from 2023-10-01 to 2027-09-30, indicating it is currently in the research and development phase.
The consortium consists of 10 partners across 5 countries, showing a strong academic lean with 6 universities and 2 research institutes. However, there is a 20% industry participation rate (2 companies, including 1 SME), indicating that while the project is research-heavy, there is an established link to commercial application from the start.
Contact the National Research Council (CNR) of Italy
Contact us to explore licensing opportunities for oxide-based quantum materials.
