Imagine a ruler that is so precise it can measure time and distance with almost zero error, but shrunk down to fit on a tiny computer chip. This technology creates a steady 'heartbeat' of light that can be converted into radio signals. It allows devices to see their surroundings or detect health changes with far more detail than current sensors allow.
Current high-stability frequency combs and microwave oscillators are often too bulky or unstable for integration into compact devices. This prevents the deployment of ultra-high-resolution RADAR and sensing in autonomous and medical applications.
A fully stabilized femtosecond laser frequency comb (FSLFC) on a chip. It includes on-chip continuum generation and a photonic microwave oscillator.
If you are an autonomous vehicle manufacturer dealing with imprecise obstacle detection—this project developed an integrated frequency comb that enables high-resolution RADAR and LIDAR. This improves the safety and reliability of self-driving systems through extremely low jitter signals.
If you are a test equipment provider dealing with signal noise in high-end generators—this project developed photonic microwave oscillators. These provide ultra-low phase noise for advanced signal generators and measurement tools.
If you are a medical device developer dealing with low-resolution health monitoring—this project developed a stabilized femtosecond laser frequency comb. This allows for high-resolution health sensing on a chip scale.
Based on available project data, specific unit costs or pricing models are not provided; the project focuses on developing the prototype and validating the business case.
The project focuses on 'on chip scale' integration, which is inherently designed for scalable semiconductor manufacturing processes.
Based on available project data, the specific licensing terms are not listed, but the project is led by an SME (CYCLE GMBH) with a consortium of 5 other partners.
The system integrates a femtosecond laser with on-chip continuum generation and photodetection to convert optical signals into microwave signals for RF equipment.
The project runs from 2024-05-01 to 2027-04-30, with prototype field tests intended to inform the final business case.
The consortium is heavily industry-driven with an 83% industry ratio, consisting of 5 SMEs and 1 research organization across 4 countries. This structure, led by CYCLE GMBH, indicates a strong push toward commercialization rather than pure academic research, focusing on practical field tests and customer surveys.
Contact CYCLE GMBH in Germany for partnership opportunities.
Contact us to connect with the femto-iCOMB consortium for early adoption pilots.
