Imagine using a specialized 'cleaning crew' of plants and bacteria to scrub toxins out of the ground. Instead of guessing which microbes work, this project uses computer models to pick the perfect team for specific pollutants. It's like matching the right key to a lock to dissolve chemicals and soak up heavy metals naturally.
Traditional cleanup methods fail when sites are contaminated with a 'cocktail' of different pollutants like metals and chemicals. This makes restoration expensive and often ineffective.
A computer-aided design tool for biological cleaning systems and a set of optimized plant-microbe consortia and bioelectrochemical systems for field use.
If you are a land remediation firm dealing with old industrial sites containing mixed heavy metals and hydrocarbons — this project developed a computationally-assisted design for biosystems that speeds up the cleanup of soil and groundwater.
If you are a mining operator dealing with legacy mercury tailings — this project developed a method to use plant-microbe combinations to sequester and remove toxic metals from the environment.
If you are a wastewater plant dealing with pharmaceuticals and emerging contaminants — this project developed bioelectrochemical systems that can act as standalone or hybrid filters to degrade complex pollutants.
Based on available project data, specific pricing or implementation costs are not provided; the project focuses on the development and optimization of the biological systems.
The project includes field studies and validation of selected systems, as well as mesocosm-based tests to ensure the systems work in realistic matrices like agricultural soils and estuarine sediments.
Based on available project data, specific licensing terms are not listed, but the project aims for effective exploitation and mainstreaming of results for increased impact.
The project explicitly evaluates the regulatory aspects of bioremediation to ensure the developed systems comply with environmental laws.
The project is a 48-month action, with current work involving sampling and mesocosm validation to optimize the time and efficiency of pollutant removal.
The consortium is well-balanced for commercial transition, featuring 15 partners across 8 countries. With 6 industry partners (40% ratio) and 4 SMEs, there is a strong bridge between the 9 academic/research entities and the actual market, ensuring the biological tools are designed for industrial utility.
Contact IDENER RESEARCH & DEVELOPMENT AIE in Spain
Contact us to find a licensed partner for these bioremediation biosystems.
