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Article ? AI-assigned paper type based on the abstract. Classification may not be perfect — flag errors using the feedback button. Tier 2 ? Original research — experimental, observational, or case-control study. Direct primary evidence. Environmental Sources Marine & Wildlife Policy & Risk Sign in to save

Sizing Microplastic Particles Using Acoustic Imaging and Deep Neural Network

2025 2 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 48 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Christophe Bescond, Jean-Hughes Fournier-Lupien, Christophe Bescond, Christophe Bescond Christophe Bescond Jean-Hughes Fournier-Lupien, Christophe Bescond Jean-Hughes Fournier-Lupien, Christophe Bescond, Christophe Bescond, Christophe Bescond Jean-Hughes Fournier-Lupien, Christophe Bescond, Christophe Bescond

Summary

Researchers developed an acoustic imaging-based deep neural network system to size microplastic particles in real time, comparing Total Focusing Method and Circular Wave Imaging strategies and achieving accurate particle segmentation from acoustic signals.

Body Systems

This study addresses microplastic pollution in oceans by developing a real-time sensor system to size microplastic particles from aquatic environments. Using a deep neural network model, the study aims to segment microplastic particles from acoustic images. The methodology involves acoustic imaging with ultrasonic multi-element probes, utilizing imaging strategies like Total Focusing Method (slow but accurate) and Circular Wave Imaging (fast but includes artifacts). By generating a dataset of acoustic simulations, we trained multiple deep neural network models using various image reconstruction strategies to evaluate the feasibility of sizing and counting particles through rapid measurements, even with degraded reconstructed images. The findings suggest that deep-learning-based acoustic imaging can enhance the monitoring of oceanic microplastics by potentially increasing frame rates and simplifying probe complexity. Additionally, the model succeeds on experimental data, not included in the training set, which shows good generalization of the model.

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