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Brain lipidomics identifies mitochondrial redox dysfunction and metabolic trade-offs associated with Parkinson’s disease-like pathology induced by Nanoplastics exposure
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Brain lipidomics identifies mitochondrial redox dysfunction and metabolic trade-offs associated with Parkinson's disease-like pathology induced by Nanoplastics exposure
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This bibliometric analysis of 17,198 publications mapped global research trends in biofilm-associated antimicrobial resistance from 1992 to 2025, finding accelerating output after 2015 and emerging focus on environmental AMR and One Health perspectives. Biofilms that form on microplastic surfaces are a known vector for antimicrobial resistance genes, making this landscape analysis directly relevant to microplastic pollution risks.
Brain lipidomics identifies mitochondrial redox dysfunction and metabolic trade-offs associated with Parkinson’s disease-like pathology induced by Nanoplastics exposure
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Using high-resolution lipidomics in Drosophila chronically exposed to polystyrene nanoplastics, researchers found dose-dependent remodeling of mitochondrial membrane lipids—particularly cardiolipins—along with increased fat storage molecules and signs of Parkinson's disease-like metabolic dysfunction.
Nanoplastics linked to Parkinson’s and some types of dementia – new study
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Researchers found that microscopic polystyrene nanoplastic flakes can enter brain cells in mice and trigger cellular damage associated with Parkinson's disease and certain forms of dementia, providing early mechanistic evidence linking nanoplastic brain exposure to neurodegenerative outcomes.
Nanoplastics, Gut Microbiota, and Neurodegeneration
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Nanoplastics ingested via contaminated food and water can cross biological barriers and accumulate in gut tissue, where they disrupt the gut microbiota and may trigger neuroinflammatory pathways linked to neurodegenerative disease. This gut-brain axis disruption represents one of the most concerning potential mechanisms by which chronic nanoplastic exposure could harm human health.
Micro-nanoplastics and Parkinson’s disease: evidence and perspectives
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Researchers reviewed growing evidence linking micro- and nanoplastic exposure to Parkinson's disease, a degenerative brain condition. Lab studies suggest these particles may accelerate disease by promoting the misfolding of a key brain protein (alpha-synuclein), triggering inflammation, and damaging mitochondria — though large-scale human studies are still needed to establish causation and define safe exposure thresholds.
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