Imagine a factory where machines talk to each other instantly without any lag or messy cables. This project builds super-fast light-based transmitters that can send data through glass fibers or even through the air. It's like upgrading a factory's nervous system so it can react in real-time without breaking a sweat.
Industrial networks struggle with the trade-off between high data speeds and the strict, low-latency requirements of real-time machine control, often hindered by rigid wiring and high energy costs.
A suite of 200 Gb/s and 10 Gb/s optical transceivers, reconfigurable optical add-drop multiplexers (ROADMs), and a unified networking platform for time-deterministic communication.
If you are an automated assembly plant dealing with lag in closed-loop control systems — this project developed 10 Gb/s wavelength-tunable transceivers that ensure guaranteed latency and reliability for time-sensitive communication.
If you are a smart warehouse operator dealing with the limitations of wired connectivity for moving robots — this project developed transceivers supporting wireless free-space optical and mmWave channels to keep devices freely positioned.
If you are a sensor network provider dealing with massive data volumes from thousands of devices — this project developed 200 Gb/s transceivers to provide the high-capacity data links needed for Gbit/s throughput.
The project focuses on creating low-cost and energy-efficient photonic integrated circuits, reducing the power and capital expenditure required for high-performance industrial networking.
Yes, the technology is designed for scalability to support massive deployments of diverse sensors and is validated in a real-world industrial setup with a closed-loop control system.
Based on available project data, specific licensing terms are not listed, but the project involves 8 industrial partners who are co-developing these photonic integration platforms.
It uses a hybrid approach, combining free-space optical (FSO) and millimeter-wave (mmWave) channels to ensure reliable indoor and outdoor connectivity.
The project period runs until August 31, 2026, suggesting that final validated results will be available by that date.
The consortium is heavily weighted toward commercialization, with a 62% industry ratio consisting of 8 industrial partners, including 4 SMEs. This strong industrial presence, combined with 5 research-focused entities across 10 countries, indicates a high likelihood of the technology transitioning from the lab to actual industrial deployment.
Contact the Research Institute of Communication Systems and Computers (REC) in Greece.
Contact us to connect with the SPRINTER consortium for pilot integration.
