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A Dual-Phase Bio-Capsule for the Sequestration and Degradation of Micro and Nanoplastics in Biological Systems and Aquatic Environment
Summary
Researchers developed a novel dual-phase bio-capsule designed to both capture and break down micro- and nanoplastics using plant-derived proteins and specialized microbes. The system was engineered to work in both aquatic environments for ecological restoration and in animal biological systems to reduce bioaccumulation. Early testing focused on binding kinetics and enzymatic degradation, suggesting a promising nature-based approach to addressing plastic pollution across environmental and biological settings.
"This research introduces a novel, nature-based bio-capsule designed for the dual-action sequestration and degradation of Micro and Nanoplastics (MNPs). The system is engineered to function across two critical domains: aquatic chambers for environmental restoration and animal biological systems to mitigate bioaccumulation within the food chain. The mechanism utilizes a proprietary complex of plant-derived cationic proteins to act as a high-affinity bio-flocculant, effectively aggregating dispersed MNPs. This is followed by a secondary phase involving a specialized microbial consortia that facilitates the enzymatic breakdown of the captured particles. In-vitro analysis focuses on binding kinetics within simulated environments, while in-situ and in-vivo evaluations test the efficacy of the bio-matrix in real-world ecological and biological scenarios. This decentralized, low-cost technology provides a scalable alternative to traditional filtration, aiming to restore environmental integrity and protect biological health from systemic plastic toxicity."
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