Imagine using high-tech cameras from space and drones to spot exactly where soil is poisoned. Instead of digging up all the dirt, this method uses specific plants to suck out toxins, acting like a natural vacuum cleaner. It also uses tiny 'lab-on-a-chip' devices to test soil health instantly, similar to a quick medical blood test for the earth.
Traditional soil decontamination is slow, expensive, and often relies on invasive digging. Companies lack precise tools to map pollution and a financial model to make ecological restoration profitable.
["A beta WebGIS platform for soil contamination mapping.", "A lab-on-chip microfluidic platform for real-time nematode ecotoxicity assays.", "An in situ spectral signature database for soils and vegetation."]
If you are a developer dealing with contaminated urban land—this project developed a WebGIS platform and AI mapping that identifies pollution hotspots. This allows you to target cleaning efforts precisely, reducing waste and accelerating the timeline to make land buildable.
If you are a contractor dealing with expensive chemical cleaning costs—this project developed nature-based depollution methods using plants. This provides a lower-cost alternative for long-term recovery across 7 European case studies.
If you are a farm manager dealing with soil toxicity affecting crop yields—this project developed a lab-on-chip for real-time toxicity assessment. This allows you to monitor soil health instantly without waiting weeks for external lab results.
Based on available project data, it replaces expensive traditional methods with nature-based solutions (NBS) and uses AI-driven mapping to target only contaminated areas, reducing unnecessary treatment of clean soil.
The project is demonstrating scalable solutions across 7 European case studies under varying climate conditions to ensure the methods work in diverse real-world settings.
Based on available project data, a prototype microfluidic platform has been developed and tested, but specific licensing terms are not yet listed.
It provides quantitative KPIs and metrics for socio-environmental performance, helping companies prove compliance with EU soil restoration goals.
The project runs from 2023-09-01 to 2028-08-31, with beta versions of the WebGIS platform already delivered.
The consortium is heavily weighted toward commercial application, with a 46% industry ratio consisting of 6 companies (5 of which are SMEs). This balance, combined with 7 research and university partners across 6 countries, suggests a strong push to move the technology from the lab into the market.
Contact UNIVERSITE MARIE ET LOUIS PASTEUR in France
Contact us to connect with the EDAPHOS consortium for early access to the WebGIS beta.
