Imagine a flashlight that can see things so clearly it notices changes that are normally invisible to the best tools we have. This project uses quantum tricks to make light more sensitive, allowing us to detect tiny amounts of chemicals or biological changes. It's like upgrading from a blurry old photo to a high-definition image for chemical sensing.
Current mid-infrared sensors are limited by the standard quantum limit, preventing the detection of extremely faint chemical or biological signals necessary for advanced climate and health monitoring.
Concept demonstrators including a quantum-enhanced Fourier-transform infrared spectrometer (q-FTIR) and quantum-enhanced optical coherence tomography (q-OCT).
If you are a climate tech firm dealing with the need to detect trace greenhouse gases—this project developed quantum-enhanced sensing that breaks through the standard quantum limit. This allows for much higher sensitivity in monitoring the climate crisis.
If you are a medical imaging manufacturer dealing with low-resolution tissue scans—this project developed a quantum-enhanced optical coherence tomography (q-OCT) tool. This provides better sensitivity bounds for biological imaging than classical technology.
If you are a lab instrument provider dealing with the limits of infrared spectroscopy—this project developed a quantum-enhanced Fourier-transform infrared spectrometer (q-FTIR). This enables precision measurements beyond the capabilities of standard tools.
Based on available project data, there is no information regarding the specific cost or commercial pricing of the developed technology.
The project includes 3 industry partners and focuses on delivering concept demonstrators, suggesting a path toward industrial scaling, though full-scale production data is not provided.
Based on available project data, specific licensing terms are not listed, although the project involves a consortium of 13 partners across 7 countries.
The project focuses on manipulating quantum statistics of input states, such as squeezing, to improve sensitivity over classical technology.
The project period runs from 2022-10-01 to 2026-03-31, indicating that the final results will be available by early 2026.
The consortium is heavily research-driven with 10 universities and 3 industry partners (23% industry ratio). This structure indicates a strong focus on fundamental quantum physics and materials science, supported by a broad international network across 7 countries, including Canada and several EU nations.
Contact the Universidad Autonoma de Madrid
Contact us to explore licensing opportunities for quantum-enhanced MIR sensing.
