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Tier 2
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Original research — experimental, observational, or case-control study. Direct primary evidence.
Marine & Wildlife
Nanoplastics
Policy & Risk
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Challenges and recommendations in experimentation and risk assessment of nanoplastics in aquatic organisms
TrAC Trends in Analytical Chemistry2023
12 citations
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Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count.
Score: 40
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0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Danae Patsiou,
Ana I. Catarino,
Ana I. Catarino,
Danae Patsiou,
Ana I. Catarino,
Ana I. Catarino,
Theodore B. Henry,
Danae Patsiou,
Tony Gutiérrez,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Danae Patsiou,
Danae Patsiou,
Stephen Summers,
Stephen Summers,
Gert Everaert
Danae Patsiou,
Ana I. Catarino,
Ana I. Catarino,
Danae Patsiou,
Ana I. Catarino,
Danae Patsiou,
Danae Patsiou,
Ana I. Catarino,
Theodore B. Henry,
Danae Patsiou,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Danae Patsiou,
Theodore B. Henry,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Gert Everaert
Gert Everaert
Theodore B. Henry,
Danae Patsiou,
Gert Everaert
Theodore B. Henry,
Theodore B. Henry,
Ana I. Catarino,
Danae Patsiou,
Ana I. Catarino,
Theodore B. Henry,
Ana I. Catarino,
Tony Gutiérrez,
Tony Gutiérrez,
Ana I. Catarino,
Stephen Summers,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Stephen Summers,
Theodore B. Henry,
Theodore B. Henry,
Gert Everaert
Theodore B. Henry,
Gert Everaert
Gert Everaert
Gert Everaert
Theodore B. Henry,
Gert Everaert
Gert Everaert
Ana I. Catarino,
Theodore B. Henry,
Gert Everaert
Ana I. Catarino,
Theodore B. Henry,
Theodore B. Henry,
Theodore B. Henry,
Danae Patsiou,
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Tony Gutiérrez,
Tony Gutiérrez,
Theodore B. Henry,
Theodore B. Henry,
Theodore B. Henry,
Theodore B. Henry,
Theodore B. Henry,
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Tony Gutiérrez,
Gert Everaert
Ana I. Catarino,
Gert Everaert
Theodore B. Henry,
Gert Everaert
Gert Everaert
Gert Everaert
Theodore B. Henry,
Tony Gutiérrez,
Ana I. Catarino,
Ana I. Catarino,
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Ana I. Catarino,
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Gert Everaert
Danae Patsiou,
Ana I. Catarino,
Ana I. Catarino,
Ana I. Catarino,
Gert Everaert
Gert Everaert
Gert Everaert
Theodore B. Henry,
Ana I. Catarino,
Gert Everaert
Gert Everaert
Summary
This review identifies key methodological weaknesses in laboratory studies of nanoplastics in aquatic organisms — including inadequate controls, unrealistic exposure concentrations, and poor detection methods — that undermine risk assessment reliability. The authors call for a standardized quality criteria framework to make nanoplastic research more rigorous and environmentally relevant. Since nanoplastics are the least-understood size fraction of plastic pollution, improving study design is essential before regulators can set safe exposure limits.
Nanoplastics (<1000 nm), raise concerns regarding their potential effects and associated risks. These particles exhibit unique characteristics including diverse buoyancy and colloid behaviour, with additional challenges on processing and detection, and on their interaction with aquatic organisms. Consequently, laboratory experiments on nanoplastics can at times lack appropriate experimental controls or quality criteria and may not generate relevant data for conducting reliable risk assessments or capturing environmental realism. This study aimed to review and discuss the methodological challenges involved in assessing the effects of nanoplastics on aquatic organisms and provides recommendations for optimising experimental approaches. We discuss the major challenges and best practices when experimenting with nanoplastics, the current methods for detection of nanoplastics in internal tissues and assess translocation, and the pressing needs for nanoplastics risk assessment. We recommend the development of a rigorous quality criteria framework to advise researchers when designing experimental work, and to ensure suitability of data for risk assessment.