Article
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AI-assigned paper type based on the abstract. Classification may not be perfect — flag errors using the feedback button.
Tier 2
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Original research — experimental, observational, or case-control study. Direct primary evidence.
Environmental Sources
Human Health Effects
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2022
13 citations
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Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count.
Score: 45
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0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Shanshan Song,
Shanshan Song,
Matthew Cole
Ingeborg M. Kooter,
Matthew Cole
Barbro N. Melgert,
Matthew Cole
Barbro N. Melgert,
Matthew Cole
Barbro N. Melgert,
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Fransien Van Dijk,
Matthew Cole
Fransien Van Dijk,
Barbro N. Melgert,
Matthew Cole
Matthew Cole
Shanshan Song,
Barbro N. Melgert,
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Barbro N. Melgert,
Barbro N. Melgert,
Barbro N. Melgert,
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Gail W. A. van Eck,
Anna Salvati,
Gail W. A. van Eck,
Shanshan Song,
Ingeborg M. Kooter,
Ingeborg M. Kooter,
Barbro N. Melgert,
Barbro N. Melgert,
Matthew Cole
Matthew Cole
Barbro N. Melgert,
Barbro N. Melgert,
Barbro N. Melgert,
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Barbro N. Melgert,
Ingeborg M. Kooter,
Anna Salvati,
Xinhui Wu,
Anna Salvati,
Matthew Cole
Barbro N. Melgert,
Matthew Cole
Barbro N. Melgert,
Barbro N. Melgert,
Matthew Cole
Ingeborg M. Kooter,
Ingeborg M. Kooter,
Ingeborg M. Kooter,
Matthew Cole
Matthew Cole
Matthew Cole
Matthew Cole
Sophie Bos,
Sophie Bos,
Matthew Cole
Barbro N. Melgert,
Matthew Cole
Matthew Cole
Matthew Cole
Sophie Bos,
Sophie Bos,
Matthew Cole
Matthew Cole
Devin H. A. Boom,
Barbro N. Melgert,
Ingeborg M. Kooter,
Ingeborg M. Kooter,
Barbro N. Melgert,
Diana C.J. Spierings,
Matthew Cole
Ingeborg M. Kooter,
Matthew Cole
René Wardenaar,
Ingeborg M. Kooter,
René Wardenaar,
Sophie Bos,
Sophie Bos,
Diana C.J. Spierings,
Ingeborg M. Kooter,
Ingeborg M. Kooter,
Matthew Cole
Matthew Cole
Matthew Cole
Anna Salvati,
Anna Salvati,
Reinound Gosens,
Reinound Gosens,
Barbro N. Melgert,
Barbro N. Melgert,
Gail W. A. van Eck,
Gail W. A. van Eck,
Devin H. A. Boom,
Ingeborg M. Kooter,
Diana C.J. Spierings,
René Wardenaar,
Matthew Cole
Anna Salvati,
Matthew Cole
Barbro N. Melgert,
Matthew Cole
Summary
Inhalable textile microplastic fibers were tested in a lung repair model, with results showing that fibers significantly impaired alveolar epithelial healing and disrupted normal lung tissue regeneration. The study provides mechanistic evidence linking inhaled plastic fibers to lung damage, relevant to occupational and ambient air exposure scenarios.
Microplastics are a pressing global concern. Inhalation of microplastic fibers has been associated with interstitial lung disease related to alveolar epithelial damage in nylon flock workers. However, the means by which fibers affect lung tissue and epithelial growth remains unknown. Our aim was to assess the effects of nylon and polyester textile microplastic fibers on epithelial growth and differentiation using airway and alveolar lung organoids cultured from epithelial cell progenitors, isolated both from murine lungs and human lung tissue obtained from COPD patients. Exposure to nylon (11x30 µm) or polyester (15x53 µm) microfibers resulted in significantly fewer and smaller human and murine airway organoids after 14 days of culture, the effect being most profound with nylon. Alveolar organoids were not affected by these fibers. Incubation with nylon- or polyester-conditioned medium also resulted in fewer airway organoids. Effects were mainly observed in developing airway organoids; exposure of developed organoids from day 14 to day 21 to fibers or fiber-conditioned medium had no significant effect on organoid number or size. In conclusion, airway organoid formation is negatively impacted by the presence of textile microplastic fibers and this effect appears to be mediated by leaching additives. Our results suggest that microplastic fibers may especially harm the developing airways or airways undergoing repair. Further studies will focus on identifying these additives and the mechanism behind their effect. Importantly, wider investigations into the presence of microplastic fibers in human lung tissue are urgently needed to determine the actual risk of these fibers to human health.