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

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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Publication Details

Journal
Environmental Technology & Innovation
Published
2026-03-15
DOI
https://doi.org/10.1016/j.eti.2026.104872
Primary Topic
Microplastics and Plastic Pollution
Type
article
Field-Weighted Citation Impact
0.00
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article

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

Kari Saikkonen, Pere Lloveras i Puigbo, Miho Nakamura, Shakira Mustari et al.
Environmental Technology & Innovation
Microplastics and Plastic Pollution
article

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

Kari Saikkonen, Pere Lloveras i Puigbo, Miho Nakamura, Shakira Mustari, Loan Tú Phạm
article en

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.

Environmental Technology & InnovationVol. 42
Universitat Autònoma de Barcelona (ES), Tokyo Medical and Dental University (JP), University of Turku (FI), Tohoku University (JP)
Life in Land
Openalex Percentile: Top 20%
Microplastics and Plastic Pollution
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