ABSTRACT
This research has developed a neural network model based on deep learning, which consists of a recognition part and a counting part. The recognition part is realized by the Fully Convolutional Neural Network (FCN), and thecounting part is realized by the NAS-CNN model. Labelme (online labeling tool) was used to manually mark the two types of targets, the remnant bait and the white prawn, and a special data set for the identification of the white prawn was created. Experiments show that the FCN model has achieved excellent recognition results, with a training recognition accuracy rate of 99%, and a verification recognition accuracy rate of 96.13%. When counting the residual bait, the connected-component labeling (CCL) isused for the image with only sporadic residual bait. The accuracy rate reached 97.5%. The pictures with severe adhesion residual bait are counted using the NAS-CNN model training, and the verification accuracy rate can reach 88.52%.Experiments have proved that combined with the deep learning method, the white shrimp and the residual bait can be quickly and accurately identified and theresidual bait can be counted at the same time. This method provides a reference for exploring the scientific breeding methods of Penaeus vannamei, and can be extended to use in other aquaculture environments.
Chuting Yu, Yu Li and Xinjie Yu.2021. A Method for Recognizing and Counting Residual Bait of Penaeus Vannamei Based on Deep Learning. In Proceedings of The 10th international workshop on intelligent data processing (IDP2021). ACM,Melbourne, Vic,Australia, 4 pages.
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