Mobile Bot Application for Identification of Trypanosoma evansi Infection through Thin-Blood Film Examination Based on Deep Learning Approach

Rangsan Jomtarak, V. Kittichai, Morakot Kaewthamasorn, Suchansa Thanee, Apinya Arnuphapprasert, Kaung Myat Naing, T. Tongloy, S. Boonsang, S. Chuwongin
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引用次数: 1

Abstract

Trypanosomiasis caused Trypanosoma evansi is current public health concern especially, in south Asia and Southeast Asia. Although polymerase chain reaction is currently used as a standard method, the techniques required skilled personnel, were performed in multiple steps, and required expensive instruments. Fundamental microscopic approach also has limitation in use by facing both inter- and intra-variability of interpretation by examiners. New automatic tool with the microscopic examination is needed. The study aimed to develop the mobile application-based YOLO neural network algorithms to predict T. evansi blood stages from thin-blood film examination. YOLO v4 tiny model is outperformed to localize and classify unseen images with the best performance at 95% of sensitivity, specificity, precision, accuracy and F1 score, respectively, with less misclassification rate than 5%. Simulation implementation platform, calling CiRA bot, give the empirical result and reliably comparable to that from the computational experiment studied with the area under ROC and precision-recall curves as 0.964 and 0.962, respectively. The result obtained from the CIRA bot platform is good enough for further distribution in field site. In the future, the study could contribute human and animal public health staff to simply identify the unicellular parasitic flagellate infection and also benefit them for designing the strategy in prevention and treatment of the disease.
基于深度学习方法的埃文锥虫薄血膜检测移动机器人应用
伊文氏锥虫引起的锥虫病是目前的公共卫生问题,特别是在南亚和东南亚。虽然聚合酶链反应目前被用作标准方法,但该技术需要熟练的人员,分多个步骤进行,并且需要昂贵的仪器。基本的微观方法在使用上也有局限性,因为要面对审查员解释的内部变异性和内部变异性。需要新的具有显微检查功能的自动工具。本研究旨在开发基于移动应用程序的YOLO神经网络算法,通过薄血膜检查预测伊瓦西氏t型血分期。YOLO v4微型模型在未见图像的定位和分类方面表现优于YOLO v4微型模型,灵敏度、特异性、精密度、准确度和F1评分分别达到95%,分类错误率低于5%。仿真实现平台CiRA bot给出的实验结果与计算实验结果具有可靠的可比性,ROC曲线下面积为0.964,precision-recall曲线下面积为0.962。在CIRA机器人平台上获得的结果足以在现场进一步分布。在未来,该研究可以为人类和动物公共卫生人员简单地识别单细胞寄生虫鞭毛虫感染提供帮助,也有利于他们制定预防和治疗该病的策略。
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