Imagine shrinking a room-sized quantum laboratory onto a single tiny computer chip. This technology uses special light-emitting dots and detectors that work perfectly with the fiber-optic cables already buried under our streets. It's like upgrading the internet's plumbing to carry quantum secrets and super-precise time signals without needing expensive new infrastructure.
Current quantum systems are often bulky, unstable, and incompatible with existing fiber networks, making them too expensive and complex for commercial deployment.
A universal QPIC platform integrating InAs/InP quantum dots, InGaAs/InP detectors, and SiN waveguides on a single chip.
If you are a secure data provider dealing with the risk of quantum hacking — this project developed a fully integrated QKD system using the BB84 protocol that offers improved stability and cost-efficiency.
If you are a cloud provider dealing with the difficulty of linking quantum processors — this project developed a network of QPICs for Remote Quantum Computing using deterministic sources and low-loss receivers.
If you are a network operator dealing with timing drifts in high-speed data — this project developed quantum clock synchronization targeting sub-picosecond precision over distances up to 20 km.
Based on available project data, the platform is compatible with existing fiber-optic infrastructure, making it a cost-effective solution for real-world applications.
The project focuses on creating a universal platform that integrates multiple components onto a single chip, which enables compact and scalable systems for single-photon control.
Based on available project data, the project is currently in the signed phase (2023-2027), and specific licensing terms are not provided in the summary.
The platform is designed to be compatible with existing telecom wavelengths (1550 nm) and fiber-optic networks, facilitating easier integration into current digital infrastructure.
The project period runs from 2023-12-04 to 2027-12-03, suggesting that full demonstrations will be completed by late 2027.
The consortium consists of 9 partners across 7 countries, showing a strong European collaboration. With 3 industrial partners (including 2 SMEs), the industry ratio is 33%, indicating a balanced mix of academic research (6 universities) and commercial application focus.
Contact QTI SRL in Italy for partnership inquiries.
Contact us to explore licensing opportunities for InP-based quantum photonic circuits.
