Development of OO-Do-Aware Parasite Egg Detection

Nutsuda Penpong, Yupaporn Wanna, Cristakan Kamjanlard, A. Techasen, Thanapong Intharah
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Abstract

The out-of-domain (OO-Do) problem occurs when a machine learning model is presented with test data that does not belong to any of the classes present in the training data. As a result, the model will always render an incorrect prediction, predict OO-Do as one of the trained classes. Parasitic infections can be a significant public health issue, and detecting and identifying parasite eggs in images can be a helpful technology for early diagnosis and treatment. However, a parasite egg detection model may face challenges when presented with out-of-domain (OO-Do) data, which includes images of unrelated objects such as cats, trees, or other irrelevant content. Previous research developed techniques for detecting out-of-domain samples in object detection to overcome this issue. These methods typically involve modifying a pre-trained model for object detection to improve its ability to detect samples outside the domain it was trained. To retain the performance of the original model while improving its ability to detect objects in OO-Do samples, we adopted a two-step approach to address the challenge of the out-of-domain samples. The first step involves classifying the test images using threshold strategies. The second step is employing object detection techniques to detect further and verify the out-of-domain samples. Object detection without threshold strategy and a two-step approach using SoftMax threshold achieved an F1-score of 77.30% and 70.60%, respectively. For out-of-domain image awareness, a two-step approach using SoftMax threshold obtained 57.97% F1-score compared to 29.94% F1-score of object detection without threshold strategy. This suggests that the proposed approach effectively addressed the out-of-domain problem in the context of parasite egg detection.
oo - do感知寄生虫卵检测技术的发展
当机器学习模型使用不属于训练数据中任何类的测试数据时,就会出现域外(OO-Do)问题。因此,模型总是呈现不正确的预测,将OO-Do预测为训练类之一。寄生虫感染可能是一个重大的公共卫生问题,在图像中检测和识别寄生虫卵可能是一种有助于早期诊断和治疗的技术。然而,当呈现域外(OO-Do)数据时,寄生虫卵检测模型可能面临挑战,这些数据包括不相关对象(如猫、树或其他不相关内容)的图像。为了克服这一问题,以往的研究开发了目标检测中的域外样本检测技术。这些方法通常涉及修改预训练的对象检测模型,以提高其检测训练域外样本的能力。为了保持原始模型的性能,同时提高其在OO-Do样本中检测对象的能力,我们采用了两步方法来解决域外样本的挑战。第一步涉及使用阈值策略对测试图像进行分类。第二步是利用目标检测技术对域外样本进行进一步检测和验证。无阈值策略的目标检测和使用SoftMax阈值的两步法的目标检测f1得分分别为77.30%和70.60%。对于域外图像感知,使用SoftMax阈值的两步方法获得57.97%的f1得分,而不使用阈值策略的目标检测的f1得分为29.94%。这表明该方法有效地解决了寄生虫卵检测中的域外问题。
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