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Plastic-degrading clusters of orthologous groups reveal near-universal biodegradation potential in prokaryotes

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Shakira Mustari, Shakira Mustari, Shakira Mustari, Shakira Mustari, Le Bich Hang Pham, Le Bich Hang Pham, Le Bich Hang Pham, Le Bich Hang Pham, Miho Nakamura, Kari Saikkonen, Kari Saikkonen, Miho Nakamura, Miho Nakamura, Miho Nakamura, Pere Puigbò Pere Puigbò

Summary

Bioinformatic analysis of prokaryotic genomes identified a set of Plastic-Degrading Clusters of Orthologous Groups, revealing that plastic-degrading protein families are distributed across diverse bacterial and archaeal lineages, suggesting near-universal biodegradation potential in microbial communities.

ABSTRACT Micro- and nanoplastic pollution (MNPP) is an increasing environmental threat due to the persistence, dispersal, and potential toxicity of plastic particles. Although microbial biodegradation offers a sustainable mitigation strategy, a comprehensive understanding of plastic-degrading proteins across microbial taxa is lacking. Here, we present the Plastic-Degrading Clusters of Orthologous Groups (PDCOGs) database ( https://phylobone.com/microworld/PDCOG ), comprising 625,616 potential plastic-degrading proteins (PPDPs) from free-living prokaryotes organized into 51 orthologous groups. The database/PDCOGs enable systematic analysis of microbial plastic-degrading capacity across ecosystems and phylogenetic lineages. Notably, PPDPs constitute ∼3.5% of all prokaryotic proteins, with over 95% of the species having the potential to biodegrade at least one plastic polymer type. This resource provides a genomic tool/framework for exploring the ecological and evolutionary importance of plastic biodegradation and supports future efforts to mitigate the global MNPP crisis.

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