SciTransfer
MILADO · Project

Low-Cost Mass Production of Mid-Infrared Lasers for Medical and Industrial Sensors

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Imagine a tiny, powerful flashlight that can 'see' the chemical fingerprint of a gas or a tissue sample. Currently, these flashlights are too expensive to make in large numbers. This project finds a way to print them onto standard silicon chips, similar to how computer processors are made, making them cheap and small enough for wearable devices.

By the numbers
100
x acceleration in infrared spectral histopathology analysis time
100mm
QCL wafer size for upscale epitaxy
16
number of 100mm QCL wafers produced for 8-10 μm band
16
number of 100mm QCL wafers produced for 5.5-6.5 μm band
The business problem

What needed solving

Mid-infrared (MIR) lasers are currently too expensive and niche because they rely on costly III/V manufacturing. This prevents their use in mass-market wearable medical devices and widespread industrial edge-sensing.

The solution

What was built

A technology platform for mass-producing QCLs on 100mm silicon wafers and MIR-PICs using Ge/SiGe-structures for optical routing.

Audience

Who needs this

Wearable medical device startupsIndustrial chemical sensor manufacturersDigital pathology equipment providersCMOS photonics foundries
Business applications

Who can put this to work

Healthcare Diagnostics
any
Target: Medical device manufacturer

If you are a medical device manufacturer dealing with slow, expensive lab tests for glucose or biomarkers — this project developed a low-cost MIR laser platform that enables non-invasive continuous glucose monitoring and wearable diagnostics.

Chemical Manufacturing
mid-size
Target: Industrial process automation firm

If you are an industrial process automation firm dealing with the need for real-time chemical monitoring at the edge — this project developed MIR-PICs and QCLs that enable high-volume, low-cost edge-sensing for chemical production.

Pathology
enterprise
Target: Diagnostic laboratory

If you are a diagnostic laboratory dealing with time-consuming infrared spectral histopathology — this project developed a technology that can accelerate analysis time by 100x.

Frequently asked

Quick answers

How does this affect the cost of MIR laser production?

The project replaces costly III/V-technology-based manufacturing with a cost-effective and scalable CMOS-based technology on CEA’s CMOS Pilot Line.

Can this be produced at an industrial scale?

Yes, the project has already achieved the upscale of III-V QCL-epitaxy on 100mm wafers.

What is the IP or licensing status?

Based on available project data, specific licensing terms are not provided, but the technology is being developed through a consortium of 8 partners including 5 SMEs.

How is the technology integrated into existing systems?

It uses Ge/SiGe-structures for waveguides and combiners to handle optical connections, integrating QCLs with Si-based MIR photonics.

What is the timeline for deployment?

The project period runs from 2024-06-01 to 2027-05-31.

Consortium

Who built it

The consortium is heavily industry-driven with a 62% industry ratio, consisting of 8 partners across 4 countries. The presence of 5 SMEs suggests a strong focus on commercial agility and specialized application, while the involvement of CEA's CMOS Pilot Line provides the necessary industrial infrastructure for scaling.

How to reach the team

Contact TECHNIKON FORSCHUNGS- UND PLANUNGSGESELLSCHAFT MBH in Austria

Next steps

Talk to the team behind this work.

Contact us to explore licensing opportunities for CMOS-integrated MIR lasers.