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Effects of tire particles and associated-chemicals on the Pacific oyster (Magallana gigas) physiology, reproduction and next-generation.

Journal of hazardous materials 2024 Score: 45 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Rafael Trevisan, Rafael Trevisan, Fabienne Lagarde, Camille Détrée, Camille Détrée, Rafael Trevisan, Massimo Milan Ilaria Bernardini, Ilaria Bernardini, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Luca Peruzza, Fabienne Lagarde, Kevin Tallec, Fabienne Lagarde, Ika Paul-Pont, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Christophe Lambert, Christophe Lambert, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Ika Paul-Pont, Ika Paul-Pont, Fabienne Lagarde, Fabienne Lagarde, Carole Di Poi, Carole Di Poi, Nelly Le Goïc, Ilaria Bernardini, Giulia Dalla Rovere, Massimo Milan Camille Détrée, Christophe Lambert, Fabienne Lagarde, Christophe Lambert, Fabienne Lagarde, Ika Paul-Pont, Virgile Quillien, Virgile Quillien, Christophe Lambert, Massimo Milan Fabienne Lagarde, Christophe Lambert, Massimo Milan Luca Peruzza, Fabienne Lagarde, Matthias Huber, Fabienne Lagarde, Christophe Lambert, Ika Paul-Pont, Christophe Lambert, Christophe Lambert, Ika Paul-Pont, Charlotte Corporeau, Fabienne Lagarde, Ika Paul-Pont, Christophe Lambert, Christophe Lambert, Nelly Le Goïc, Christophe Lambert, Nelly Le Goïc, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Christophe Lambert, Christophe Lambert, Christophe Lambert, Christophe Lambert, Christophe Lambert, Christophe Lambert, Luca Peruzza, Giulia Dalla Rovere, Tomaso Patarnello, Fabienne Lagarde, Ika Paul-Pont, Ika Paul-Pont, Arnaud Huvet, Nelly Le Goïc, Fabienne Lagarde, Matthias Huber, Christophe Lambert, Ilaria Bernardini, Nelly Le Goïc, Fabienne Lagarde, Carole Di Poi, Nelly Le Goïc, Fabienne Lagarde, Ika Paul-Pont, Nelly Le Goïc, Fabienne Lagarde, Nelly Le Goïc, Christophe Lambert, Claudie Quéré, Fabienne Lagarde, Ika Paul-Pont, Fabienne Lagarde, Christophe Lambert, Hugo Koechlin, Virgile Quillien, Massimo Milan Fabienne Lagarde, Christophe Lambert, Christophe Lambert, Christophe Lambert, Christophe Lambert, Virgile Quillien, Tomaso Patarnello, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Christophe Lambert, Fabienne Lagarde, Christophe Lambert, Fabienne Lagarde, Fabienne Lagarde, Tomaso Patarnello, Virgile Quillien, Claudie Quéré, Claudie Quéré, Virgile Quillien, Fabienne Lagarde, Christophe Lambert, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Christophe Lambert, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Nelly Le Goïc, Jacqueline Le Grand, Nelly Le Goïc, Fabienne Lagarde, Fabienne Lagarde, Christophe Lambert, Christophe Lambert, Fabienne Lagarde, Fabienne Lagarde, Fabienne Lagarde, Camille Détrée, Rafael Trevisan, Charlotte Corporeau, Tomaso Patarnello, Massimo Milan Arnaud Huvet, Massimo Milan

Summary

A multigenerational study exposed Pacific oysters (Magallana gigas) to tire particles and their chemical leachates across multiple life stages and found effects at the cellular, molecular, and microbiota levels. The results demonstrate that tire particles — projected to become the dominant marine plastic by 2040 — can impair oyster physiology in ways that may affect wild populations and aquaculture.

By 2040, tire particles (TP) are expected to dominate marine plastic contamination, raising concerns about their effects on marine animals. This study employed a multidisciplinary and multigenerational approach on the Pacific oyster Magallana gigas to investigate the effects of TP and their leachates (LEA). Effects were analyzed at the individual scale, from cellular, molecular, and microbiota changes to reproductive outputs and offspring performance. Microbiota characterization revealed potential dysbiosis in oysters treated with high concentration of both TP and LEA. RNA-seq analyses highlighted the activation of energy metabolism and stress responses in the LEA treatment. Additionally, transcriptional changes in oocytes and the reduction of motile spermatozoa suggested potential effects on gamete quality. Notably, possible oyster resilience was pointed out by the lack of significant ecophysiological modifications in adults and impacts on the growth and reproductive outputs of the offspring. Overall, the implications of the observed oyster resilience under our experimental setting are discussed in relation to available toxicity data and within a comprehensive view of coastal ecosystems, where a higher diversity of plastic/rubber materials and harsher environmental conditions occur.

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