0
Article Tier 2 Sign in to save

Dataset for: Advancing QA/QC Protocols for Microplastics Research and Enhancing Ecological Risk Assessment: Lessons Learned from the Delaware River Estuary, United States

AI summary Read the abstract

Scientists studying tiny plastic pieces (microplastics) in the Delaware River Estuary created better quality-control methods to make sure their measurements are accurate and not contaminated during testing. This matters because reliable data is the foundation for understanding how much plastic pollution is really in our water — and eventually, how much might end up in the fish we eat or the water we drink. Note: this specific resource is a data repository supporting the study, so it focuses on lab methods rather than new health findings.

Study Type Environmental

This repository contains the supplementary data associated with the manuscript “Advancing QA/QC Protocols for Microplastics Research and Enhancing Ecological Risk Assessment: Lessons Learned from the Delaware River Estuary, United States.”

More Papers Like This

Article Tier 2

Dataset for: Advancing QA/QC Protocols for Microplastics Research and Enhancing Ecological Risk Assessment: Lessons Learned from the Delaware River Estuary, United States

AI summary Read the abstract

Scientists studying tiny plastic particles (microplastics) in the Delaware River Estuary developed better quality-control methods to make sure their measurements are accurate and not contaminated by outside plastic sources, like lab equipment or clothing fibers. This matters because if researchers can't trust their data, we can't accurately judge how risky microplastic pollution really is for wildlife or the people who eat seafood and drink water from affected areas. Better testing standards mean more reliable science, which is the first step toward understanding and addressing any real health risks microplastics may pose.

Article Tier 2

Change of perspective through quality assurance measures on microplastic particle counts in surface waters of the Rhine River - Importance of LOD and LOQ

AI summary Read the abstract

Researchers surveyed the entire 1,233-km length of the Rhine River for micro- and nanoplastics, emphasizing that proper quality assurance measures — including defined limits of detection and quantification — are essential for producing reliable and comparable plastic pollution data.

Article Tier 2

Methods for Studying Microplastic Pollution in Natural Waters: Current State and Recommendations

AI summary Read the abstract

This methodological review addresses the lack of standardization in how scientists sample, process, and report microplastic contamination in natural waters, which makes it nearly impossible to compare results across studies. It details quality assurance and quality control steps — especially important given how easily tiny plastic particles contaminate samples from the lab environment itself — and provides concrete recommendations for sampling protocols and data reporting. Harmonizing these methods is a critical step toward building a reliable global database of microplastic pollution.

Article Tier 2

Data for Integrated assessment of digestion methods, analytical techniques, and sampling strategies for microplastics characterization in municipal wastewater influent

AI summary Read the abstract

Scientists tested different methods for measuring tiny plastic particles (microplastics) in wastewater to figure out which techniques give the most accurate results. This matters because wastewater treatment plants are a key checkpoint for tracking how much plastic pollution enters our environment and water supply—but only if we're measuring it correctly, since different labs currently use inconsistent methods that can produce wildly different results. Getting these methods standardized is an important step toward understanding how much microplastic exposure we're actually dealing with in our water.

Article Tier 2

Dataset supporting mass-based microplastic method development and validation

AI summary Read the abstract

Scientists developed and tested a new method for measuring how much microplastic (by weight, not just particle count) ends up in wastewater as it moves through treatment plants. This matters because wastewater treatment is a major pathway for microplastics to reach our rivers, soil, and drinking water sources, and having a reliable way to measure them is a key step toward understanding, and eventually reducing, our exposure to these tiny plastic particles.

Research digests by email

When a large batch of papers lands in the Atlas, we read through it and send a short write-up of what stood out.

Email me about

Share this paper