Khasanov Doston, Khujamatov Halimjon, Shakhnoza Muksimova, Abdullaev Mirjamol, Toshtemirov Temur, Anarova Shahzoda, Lee Cheolwon, Jeon Heung-Seok
Department of Data Communication Networks and Systems, Tashkent University of Information Technologies, Tashkent 100084, Uzbekistan.
Department of Computer Engineering, Gachon University, Seognam-daero, Sujeong-gu, Seongnam-si 1342, Republic of Korea.
Diagnostics (Basel). 2025 Jul 22;15(15):1841. doi: 10.3390/diagnostics15151841.
: The accurate identification of insect bites from images of skin is daunting due to the fine gradations among diverse bite types, variability in human skin response, and inconsistencies in image quality. : For this work, we introduce DeepBiteNet, a new ensemble-based deep learning model designed to perform robust multiclass classification of insect bites from RGB images. Our model aggregates three semantically diverse convolutional neural networks-DenseNet121, EfficientNet-B0, and MobileNetV3-Small-using a stacked meta-classifier designed to aggregate their predicted outcomes into an integrated, discriminatively strong output. Our technique balances heterogeneous feature representation with suppression of individual model biases. Our model was trained and evaluated on a hand-collected set of 1932 labeled images representing eight classes, consisting of common bites such as mosquito, flea, and tick bites, and unaffected skin. Our domain-specific augmentation pipeline imputed practical variability in lighting, occlusion, and skin tone, thereby boosting generalizability. : Our model, DeepBiteNet, achieved a training accuracy of 89.7%, validation accuracy of 85.1%, and test accuracy of 84.6%, and surpassed fifteen benchmark CNN architectures on all key indicators, viz., precision (0.880), recall (0.870), and F1-score (0.875). Our model, optimized for mobile deployment with quantization and TensorFlow Lite, enables rapid on-client computation and eliminates reliance on cloud-based processing. : Our work shows how ensemble learning, when carefully designed and combined with realistic data augmentation, can boost the reliability and usability of automatic insect bite diagnosis. Our model, DeepBiteNet, forms a promising foundation for future integration with mobile health (mHealth) solutions and may complement early diagnosis and triage in dermatologically underserved regions.
由于不同叮咬类型之间的细微差别、人类皮肤反应的变异性以及图像质量的不一致性,从皮肤图像中准确识别昆虫叮咬具有挑战性。在这项工作中,我们引入了DeepBiteNet,这是一种基于集成的新型深度学习模型,旨在对RGB图像中的昆虫叮咬进行稳健的多类分类。我们的模型聚合了三个语义不同的卷积神经网络——DenseNet121、EfficientNet - B0和MobileNetV3 - Small——使用一个堆叠元分类器,该分类器旨在将它们的预测结果聚合为一个集成的、具有强大判别力的输出。我们的技术在抑制个体模型偏差的同时平衡了异构特征表示。我们的模型在一组手工收集的1932张标记图像上进行训练和评估,这些图像代表八个类别,包括蚊子、跳蚤和蜱虫叮咬等常见叮咬以及未受影响的皮肤。我们特定领域的增强管道模拟了光照、遮挡和肤色方面的实际变异性,从而提高了通用性。我们的模型DeepBiteNet训练准确率达到89.7%,验证准确率为85.1%,测试准确率为84.6%,并且在所有关键指标上超过了十五种基准CNN架构,即精度(0.880)、召回率(0.870)和F1分数(0.875)。我们的模型通过量化和TensorFlow Lite针对移动部署进行了优化,实现了快速的客户端计算并消除了对基于云处理的依赖。我们的工作展示了精心设计的集成学习与现实数据增强相结合如何提高自动昆虫叮咬诊断的可靠性和可用性。我们的模型DeepBiteNet为未来与移动健康(mHealth)解决方案的集成奠定了有前景的基础,并可能在皮肤科服务不足的地区补充早期诊断和分诊。