A Multiphase Solution to Microplastic Pollution: Integrating Enzymatic Degradation, Density Separation, and Biodegradable Innovation

Plastic pollution, especially microplastics, poses a growing threat to ecosystems, food safety, and human health. Since over half of global plastic production is single-use, these materials persist in the environment. Our proposed solution emphasizes enzymatic degradation and innovative filtration. Entropic Materials developed biodegradable chaperone proteins that safeguard enzymes during plastic production, enabling rapid breakdown without generating microplastics. We also propose: (1) density separation systems in water treatment plants, (2) genetically modified Honey Fungus Mycelium to degrade plastics in fertilizers, and (3) hybrid biodegradable packaging from bamboo, sugarcane, and Japanese knotweed. Together, these strategies could reduce microplastics by 80%.

Authors

Publication Details

Journal
Scholarly review .
Published
2025-09-01
DOI
https://doi.org/10.70121/001c.143832
Primary Topic
Microplastics and Plastic Pollution
Type
article
Field-Weighted Citation Impact
0.00
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article

A Multiphase Solution to Microplastic Pollution: Integrating Enzymatic Degradation, Density Separation, and Biodegradable Innovation

S. L. N. Desikan, Hanaa Saleem
Scholarly review .
Microplastics and Plastic Pollution
article

A Multiphase Solution to Microplastic Pollution: Integrating Enzymatic Degradation, Density Separation, and Biodegradable Innovation

S. L. N. Desikan, Hanaa Saleem
article en

Abstract

Plastic pollution, especially microplastics, poses a growing threat to ecosystems, food safety, and human health. Since over half of global plastic production is single-use, these materials persist in the environment. Our proposed solution emphasizes enzymatic degradation and innovative filtration. Entropic Materials developed biodegradable chaperone proteins that safeguard enzymes during plastic production, enabling rapid breakdown without generating microplastics. We also propose: (1) density separation systems in water treatment plants, (2) genetically modified Honey Fungus Mycelium to degrade plastics in fertilizers, and (3) hybrid biodegradable packaging from bamboo, sugarcane, and Japanese knotweed. Together, these strategies could reduce microplastics by 80%.

Scholarly review .Vol. Scholarly Debut(Fall 2025)
Openalex Percentile: Top 83%
Microplastics and Plastic Pollution
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