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Microplastic Detection in Glass Containers Using Circular Hough Transform and YOLOv8n

2025 Score: 38 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Manan Jindal, Manan Jindal, Sayak Ghorai, Sayak Ghorai, Yash Upadhyay, Yash Upadhyay, Vikas Upadhyaya

Summary

Researchers developed a novel lightweight microplastic detection system combining Circular Hough Transform preprocessing with YOLOv8n deep learning architecture to identify microplastic fragments in glass containers, achieving effective detection using CPU-based training on a dataset of 781 images.

Body Systems

This paper serves as a medium to present a novel approach combining Circular Hough Transform in the pre-processing phase with YOLOv8n architecture for microplastic detection in glass containers. Our proposed system is lightweight in nature which processes a dataset of 781 images along with a csv file containing the information of the microplastic fragments present in the respective images, using CPU-based training. The methodology integrates traditional algorithm from the field of computer vision which is the Circular Hough Transform to isolate the necessary region thereby providing a more focused area to work on with a pre-trained neural network from the domain of deep learning to detect and classify microplastic within the samples. The empirical results of the model were as follows: achieved $71.55 \%$ precision, $30.44 \% \mathrm{mAP}$ @ 0.5, and $\mathbf{2 8 . 5 3 \%}$ recall, showcasing a conservative detection behavior suitable for quality control applications. While the performance of the model is not up to the level of GPU-based systems, yet our approach still offers accessibility and deployment efficiency with $\mathbf{8 4 . 7 m s}$ CPU inference time with $\mathbf{2 . 6 9 M}$ parameters.

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