Imagine a high-tech coffee filter that doesn't just catch tiny plastic bits but actually eats them. This technology uses special proteins called enzymes attached to a ceramic-like base to break down microplastics into harmless pieces. It acts like a smart trap that cleans water before it ever reaches the ocean.
Micro- and nano-plastics are contaminating water systems, harming human health and ecosystems. Current filtration methods often just move the plastic from one place to another rather than destroying it.
A biocatalytic membrane reactor using porous inorganic scaffolds and plastic-degrading enzymes to capture and break down plastic waste.
If you are a plant operator dealing with microplastic leakage into local rivers — this project developed a biocatalytic membrane reactor that captures and degrades plastic waste in situ. This prevents pollutants from entering the ecosystem and improves water quality.
If you are a fabric producer dealing with high concentrations of microfibers in your effluent — this project developed a functionalized inorganic scaffold that traps and breaks down plastics. This helps you meet stricter environmental discharge regulations.
If you are a management firm dealing with complex industrial waste streams — this project developed a membrane technology using ionic liquids and enzymes to degrade plastic contaminants. This reduces the need for secondary chemical treatment processes.
Based on available project data, specific pricing is not provided, but the project is currently evaluating the economic viability of the technology.
The project is currently in the phase of producing, testing, and optimizing membrane reactors in a laboratory setting. It is not yet at full industrial scale.
Based on available project data, there are no specific details regarding patents or licensing agreements provided in the summary.
The project period runs from 2023-04-01 to 2027-03-31, suggesting that commercial readiness will be assessed toward the end of this window.
The technology is designed as a membrane reactor to be used within wastewater effluents for in situ trapping and degradation of plastics.
The consortium is research-heavy, consisting of 10 partners across 5 countries. With 5 universities and 3 research centers, the focus is primarily on scientific discovery. However, a 20% industry ratio (2 industrial partners, including 1 SME) indicates a clear intent to bridge the gap between lab discovery and commercial application.
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