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NEMILIES · Project

Real-time Nano-Particle and Pollution Detector for Industrial and Environmental Monitoring

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Imagine a super-sensitive digital nose that can smell tiny bits of plastic or medicine in the air. Usually, these tests require freezing equipment and long lab waits, but this tech works at room temperature. It lets you identify harmful particles instantly on-site instead of sending samples away for days.

By the numbers
13%
EU deaths attributable to environmental pollution in 2012
The business problem

What needed solving

Current nanoparticle analysis requires slow, expensive laboratory processes and cryogenic cooling, leading to delayed detection of toxic aerosols and nanoplastics.

The solution

What was built

The EMILIE analyzer, a room-temperature nanoelectromechanical system (NEMS) for Mid- to Far-IR chemical analysis of nano-sized samples.

Audience

Who needs this

Environmental protection agenciesPharmaceutical quality control labsIndustrial hygiene inspectorsNanomaterial manufacturers
Business applications

Who can put this to work

Environmental Monitoring
any
Target: Environmental consultancy or government agency

If you are a consultancy dealing with nanoplastic pollution in remote areas — this project developed EMILIE that allows for the sampling and chemical analysis of nano-sized samples in the field in real time.

Pharmaceuticals
mid-size
Target: Drug delivery research lab

If you are a lab dealing with slow nanopharmaceutical drug discovery and quality control — this project developed a NEMS-based analyzer that speeds up the characterization of nanoparticles.

Industrial Safety
enterprise
Target: Manufacturing plant operator

If you are a plant operator dealing with airborne aerosols and workplace pollution — this project developed a room-temperature IR sensor that detects contaminations without needing expensive cryogenic cooling.

Frequently asked

Quick answers

How does this affect the cost of infrared sensing?

The technology reduces costs by eliminating the need for expensive cryogenic cooling, which is typically required for high sensitivity in the mid- and far-IR range.

Can this be used at an industrial scale?

The project aims to penetrate industrial markets where cryogenic cooling is impractical, though specific production volumes are not mentioned in the data.

What is the IP or licensing status?

Based on available project data, the technology transitioned from an ERC PoC to a market-ready goal, but specific licensing terms are not provided.

How does it integrate into current workflows?

It replaces the need to bring samples back to a laboratory for extraction and analysis, allowing for real-time identification in the field or workplace.

What is the timeline for deployment?

The project period ran from 2022-06-01 to 2024-05-31 to bring the technology to market readiness.

Consortium

Who built it

The project is led by a single SME, Invisible-Light Labs GmbH from Austria. With a 100% industry ratio and a single partner, the project is streamlined for commercial agility and direct market transition rather than academic research.

How to reach the team

Contact Invisible-Light Labs GmbH in Austria

Next steps

Talk to the team behind this work.

Contact us to explore licensing opportunities for NEMS-based IR sensing.

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