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Proceeding the categorization of microplastics through deep learning-based image segmentation

The Science of The Total Environment 2023 34 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 50 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Huahong Shi Huiwen Cai, Huiwen Cai, Huahong Shi Huahong Shi Huiwen Cai, Yanan Di, Weimin Yao, Huiwen Cai, Hong Song, Hui Huang, Hui Huang, Huiwen Cai, Yanan Di, Hui Huang, Hui Huang, Hui Huang, Hui Huang, Hui Huang, Huahong Shi Hong Song, Huahong Shi Huiwen Cai, Huiwen Cai, Huiwen Cai, Huahong Shi Huiwen Cai, Huiwen Cai, Huahong Shi Huiwen Cai, Hui Huang, Huahong Shi Junaid Ullah Qureshi, Zehao Sun, Zehao Sun, Junaid Ullah Qureshi, Syed Raza Mehdi, Huiwen Cai, Syed Raza Mehdi, Huahong Shi Huiwen Cai, Junaid Ullah Qureshi, Junaid Ullah Qureshi, Junaid Ullah Qureshi, Huahong Shi Junaid Ullah Qureshi, Huahong Shi Weimin Yao, Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Yanan Di, Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Zehao Sun, Syed Raza Mehdi, Syed Raza Mehdi, Huiwen Cai, Huahong Shi Huahong Shi Huiwen Cai, Huahong Shi Hong Song, Hong Song, Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Hui Huang, Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Yanan Di, Huahong Shi Huahong Shi Yanan Di, Huahong Shi Huiwen Cai, Caicai Liu, Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Yanan Di, Huiwen Cai, Caicai Liu, Caicai Liu, Caicai Liu, Caicai Liu, Caicai Liu, Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Yanan Di, Huahong Shi Yanan Di, Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Yanan Di, Yanan Di, Huahong Shi Huahong Shi Hong Song, Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Weimin Yao, Weimin Yao, Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi Zehao Sun, Huahong Shi Zehao Sun, Huahong Shi Huahong Shi Huahong Shi Huahong Shi Huahong Shi

Summary

Researchers developed a deep learning-based image segmentation method using Mask R-CNN to automatically identify and classify microplastic shapes in microscopic images, demonstrating a practical step toward standardized and automated microplastic categorization.

Body Systems

Microplastics (MPs) have been recognized as prominent anthropogenic pollutants that inflict significant harm to marine ecosystems. Various approaches have been proposed to mitigate the risks posed by MPs. Gaining an understanding of the morphology of plastic particles can provide valuable insights into the source and their interaction with marine organisms, which can assist the development of response measures. In this study, we present an automated technique for identifying MPs through segmentation of MPs in microscopic images using a deep convolutional neural network (DCNN) based on a shape classification nomenclature framework. We used MP images from diverse samples to train a Mask Region Convolutional Neural Network (Mask R-CNN) based model for classification. Erosion and dilation operations were added to the model to improve segmentation results. On the testing dataset, the mean F1-score (F1) of segmentation and shape classification was 0.7601 and 0.617, respectively. These results demonstrate the potential of proposed method for the automatic segmentation and shape classification of MPs. Furthermore, by adopting a specific nomenclature, our approach represents a practical step towards the global standardization of MPs categorization criteria. This work also identifies future research directions to improve accuracy and further explore the possibilities of using DCNN for MPs identification.

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