The recent window is materially active
505 eligible papers appear in the current 30-day evidence window, compared with 116 in the prior 30 days. The busiest visible day is 2026-05-05 with 29 eligible papers.
4.4x prior-window volumeWeekly trend brief
Microplastics work is moving across detection methods, aquatic exposure, and ecotoxicology. The current 30-day evidence window contains 505 eligible papers, 4.4x the prior 30-day window, with 504 abstract-backed papers available for a closer scan. Representative papers point to detection and quantification methods, fish and seabird ingestion, freshwater and mangrove pollution, nanoplastic toxicity, co-exposures, and non-invasive monitoring.
505 eligible papers appear in the current 30-day evidence window, compared with 116 in the prior 30 days. The busiest visible day is 2026-05-05 with 29 eligible papers.
4.4x prior-window volume504 recent papers include abstracts, about 100% of the eligible set. That gives the brief enough signal for topic-specific commentary while keeping claims limited to paper metadata and representative titles.
504 abstract-backed papersThe selected papers point toward detection and quantification methods, fish and seabird ingestion, freshwater and mangrove pollution, nanoplastic toxicity, co-exposures, and non-invasive monitoring. That gives the brief a visible research direction rather than only a ranked list of recent papers.
8 representative papers8 representative papers span 8 sources.
8 representative sourcesMethod papers on detection, quantification, sampling precision, recovery, and sample size show the measurement layer is still active.
8 representative papersRepresentative papers span seabirds, fish, pinnipeds, rivers, mangroves, and terrestrial passerines rather than one exposure pathway.
8 representative papersReview work on nanoplastics, pollutant mixtures, climate stress, and ecotoxicity adds a risk-assessment thread to the monitoring papers.
8 representative papersSelected because it grounds the page in detection methods, wildlife exposure, aquatic pollution, or ecotoxicology evidence; this paper appears in Critical Reviews in Analytical Chemistry (2026) and is matched to Microplastics and Plastic Pollution.
Selected because it grounds the page in detection methods, wildlife exposure, aquatic pollution, or ecotoxicology evidence; this paper appears in Marine Pollution Bulletin (2026) and is matched to Microplastics and Plastic Pollution.
Selected because it grounds the page in detection methods, wildlife exposure, aquatic pollution, or ecotoxicology evidence; this paper appears in Journal of Fish Biology (2026) and is matched to Microplastics and Plastic Pollution.
Selected because it grounds the page in detection methods, wildlife exposure, aquatic pollution, or ecotoxicology evidence; this paper appears in Ecologica Montenegrina (2026) and is matched to Microplastics and Plastic Pollution.
Selected because it grounds the page in detection methods, wildlife exposure, aquatic pollution, or ecotoxicology evidence; this paper appears in Frontiers in Physiology (2026) and is matched to Microplastics and Plastic Pollution.
Selected because it grounds the page in detection methods, wildlife exposure, aquatic pollution, or ecotoxicology evidence; this paper appears in Microplastics (2026) and is matched to Microplastics and Plastic Pollution.
Selected because it grounds the page in detection methods, wildlife exposure, aquatic pollution, or ecotoxicology evidence; this paper appears in Water Air & Soil Pollution (2026) and is matched to Microplastics and Plastic Pollution.
Selected because it grounds the page in detection methods, wildlife exposure, aquatic pollution, or ecotoxicology evidence; this paper appears in Toxics (2026) and is matched to Microplastics and Plastic Pollution.