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Toward a Harmonized Framework for Standardization for Scalable and Reproducible Measurement of Microplastic and Nanoplastic Monitoring in Human Urine

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Researchers propose a technology-agnostic standardization framework for measuring microplastics and nanoplastics in human urine, defining shared principles around reproducibility, contamination control, and scalability to enable population-level longitudinal monitoring beyond the small, cross-sectional cohorts that currently dominate the literature.

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Interest in measuring microplastics and nanoplastics (MNPs) in human urine has increased rapidly as concern grows regarding environmental exposures and potential health relevance. Early studies have provided important proof-of-concept evidence that urinary monitoring is feasible. However, the current literature remains limited by relatively small cohorts, predominantly cross-sectional one-time sampling, heterogeneous workflows, and reliance on centralized laboratory methods that may be difficult to scale for frequent longitudinal monitoring. As a result, key questions regarding baseline variability, temporal dynamics, and population-level distributions remain unresolved. This paper proposes a harmonized, technology-agnostic framework for urinary MNP monitoring focused on reproducibility, standardized workflows, contamination control, matrix robustness, transparent quality systems, and real-world scalability. The goal is not to prescribe a single analytical platform, but to define shared principles by which existing and future methods—including optical, spectroscopic, mass-based, and hybrid systems—can be evaluated. Such a framework may help transition the field from isolated exploratory studies toward repeatable and population-scale environmental exposure monitoring.

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