Identification and Velocity Measurement of Microplastics Based on Machine Learning

Role of Machine Learning and Machine Vision on Microplastics

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Scientists are teaching computers to spot and identify microplastics in samples of water, soil, and food much faster than humans can by eye, this review paper explains how these AI tools work and where they still fall short. Faster, more accurate detection matters because it could help researchers track how much plastic contamination is getting into our environment and food supply, which is an important step toward understanding potential health risks. The technology still needs better cameras, shared databases, and standardized methods before it can be reliably used everywhere.

Advanced Microplastic Identification in Marine Environments via Hybrid Deep Learning

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Researchers propose a hybrid deep learning architecture combining 3D convolutional neural networks and Vision Transformers applied to hyperspectral imagery to detect and classify microplastics in turbid marine environments, capturing both local spectral signatures and global contextual patterns that single-model approaches miss.

Laser induced fluorescence and machine learning: a novel approach to microplastic identification

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Researchers combined laser-induced fluorescence with machine learning to identify microplastics in water in real time, achieving 97.6% accuracy in distinguishing plastics from other organic matter and 88.3% accuracy in identifying specific plastic types — a promising step toward automated ocean monitoring.

Deep Learning Approaches for Microplastic Identification in Microscopic Water Samples

Defining Irregular Microplastics: A Machine Learning Approach for Morphometric Characterization

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Researchers applied a machine learning decision-tree classifier to hyperspectral images of 129 nano- and microplastic particles and identified five morphometric descriptors—circularity, roundness, solidity, long diameter, and perimeter-area ratio—that together distinguish irregular particles from spherical and fibrous forms with 96% accuracy, providing a standardized definition for the most environmentally prevalent but least-defined shape class.