Imagine a super-sensitive flashlight and a high-tech camera that can spot a single tiny speck of dust in a swimming pool. This technology uses quantum dots and DNA structures to create a light source that is incredibly quiet and precise. It allows people to find harmful hormones in water without needing a giant laboratory or a PhD to run the machine.
Current water monitoring for endocrine disruptors often requires expensive laboratory equipment and highly trained staff. There is a lack of robust, on-site tools capable of detecting these pollutants at extremely low concentrations.
A compact spectrometer featuring an electrically pumped single photon source and a thermoelectric-cooled detector. It includes a microfluidic flow cell for sample handling.
If you are a fish farm operator dealing with endocrine disruptors affecting fish growth — this project developed a compact spectrometer that detects contaminants in the sub ng/L range. This allows you to monitor water safety on-site without needing external infrastructure.
If you are a water utility dealing with strict regulations on drinking water purity — this project developed a low-noise detection method using single photon sources. This enables the measurement of the lowest absorptions of hormones to ensure public health safety.
If you are a consultancy dealing with nature conservation monitoring — this project developed a robust, ready-to-use biosensor for the Vis to NIR range. This allows for field tests of water quality without requiring trained personnel on-site.
Based on available project data, the specific unit price is not mentioned, but the system is designed to be compact and avoid expensive cryogenic coolers by using simple thermoelectric cooling.
The project involves 5 industrial partners and 4 SMEs, suggesting a focus on scalable manufacturing of the LED layer stack and nanocomponents.
Based on available project data, specific licensing terms are not provided, but the project is managed by TU Chemnitz with a dedicated work package for dissemination of knowledge and results.
The system includes a microfluidic flow cell and a sample concentration method, allowing it to be used as a ready-to-use, on-site monitoring tool.
The project period runs from 2023-01-01 to 2026-06-30, indicating that the final validated demonstrator will be ready by mid-2026.
The consortium is heavily industry-weighted with a 62% industry ratio, comprising 5 industrial partners (including 4 SMEs) and 3 academic/research entities. This structure, spanning 4 countries (DE, ES, FR, IT), indicates a strong push toward commercialization and practical application rather than purely theoretical research.
Contact Technische Universitaet Chemnitz regarding the GREENER project
Contact us to connect with the GREENER consortium for early adoption of quantum water sensing.
