Imagine shrinking a room-sized laboratory laser system down to the size of a tiny computer chip. This project uses a special aluminum-based material to guide ultraviolet light, which is usually very hard to control on a small scale. It's like replacing bulky old plumbing with precise, microscopic pipes to move light exactly where it needs to go.
Current UV Raman spectrometers and quantum computers are too bulky, expensive, and complex to be scaled for mass market use. This prevents wide adoption in pharmaceutical quality control and high-performance computing.
An Al2O3-on-SiO2 integrated photonic platform including a library of building blocks and specialized UV packaging technology.
If you are a drug development lab dealing with the need to detect monoclonal antibodies for cancer or Alzheimer's therapies — this project developed an integrated UV Raman sensor that enables the detection of analytes otherwise invisible to standard light sensors.
If you are a quantum hardware manufacturer dealing with bulky and non-scalable ion-trap systems — this project developed an integrated multiple-ion trap that allows for the parallelization of qubit generation on a single chip.
If you are a detection firm dealing with the need to find trace amounts of explosives or hazardous gases — this project developed a compact UV photonic platform that reduces the size and cost of detection equipment while increasing robustness.
The platform will be commercialized as a foundry service through the spin-off company Aluvia Photonics B.V., offering a library of deployable building blocks.
Yes, the goal is to move away from bulky, non-scalable systems toward photonic integration, which enables scalability and reduced costs similar to telecom and 5G technologies.
Based on available project data, the technology is being commercialized via Aluvia Photonics B.V., a spin-off from the PI's group.
The project is developing a specific integrated photonic packaging technology designed to operate down to ultraviolet wavelengths.
The project period runs from 2022-12-01 to 2026-01-31, suggesting the platform development is ongoing through early 2026.
The consortium is lean, consisting of 3 partners from 3 different countries (NL, FR, CH). It features a 33% industry ratio with one SME, indicating a strong push toward commercialization via the Aluvia Photonics B.V. spin-off, supported by two academic institutions.
Contact Universiteit Twente regarding the Aluvia Photonics B.V. spin-off.
Contact us to explore licensing the Al2O3-on-SiO2 photonic building blocks.
