Department of Computer Engineering & Applications, G.L.A. University, Mathura (U.P.), India.
Department of Computer Science, NIT Meghalaya, Shillong, India.
Environ Monit Assess. 2023 Aug 7;195(9):1020. doi: 10.1007/s10661-023-11628-5.
Traditionally, rice leaf disease identification relies on a visual examination of abnormalities or an analytical result obtained by growing bacteria in the research lab. This method of visual evaluation is qualitative and error-prone. On the other hand, an artificial neural network system is fast and more accurate. Several pieces of research using traditional machine learning and deep convolution neural networks (CNN) have been utilized to overcome the issues. Still, these methods need more semantic contextual global and local feature extraction. Due to this, efficiency is less. Hence, in the present study, a multi-scale feature fusion-based RDTNet has been designed. The RDTNet contains two modules, and the first module extracts feature via three scales from the local binary pattern (LBP), gray, and a histogram of orient gradient (HOG) image. The second module extracts semantic global and local features through the transformer and convolution block. Furthermore, the computing cost is reduced by dividing the query into two parts and feeding them to convolution and the transformer block. The results indicate that the proposed method has a very high average precision, f1-score, and accuracy of 99.55%, 99.54%, and 99.53%, respectively. It is suggestive of improved classification accuracy using multi-scale features and the transformer. The model has also been validated on other datasets confirming that the present model can be used for real-time rice disease diagnosis. In the future, such models can be used for monitoring other crops, including wheat, tomato, and potato.
传统上,水稻叶片疾病的识别依赖于对异常情况的目视检查或在研究实验室中通过培养细菌获得的分析结果。这种目视评估方法是定性的且容易出错。另一方面,人工神经网络系统快速且更准确。已经使用传统机器学习和深度卷积神经网络 (CNN) 进行了几项研究,以克服这些问题。尽管如此,这些方法需要更多的语义上下文全局和局部特征提取。因此,效率较低。因此,在本研究中,设计了一种基于多尺度特征融合的 RDTNet。RDTNet 包含两个模块,第一个模块通过局部二值模式 (LBP)、灰度和方向梯度直方图 (HOG) 图像的三个尺度提取特征。第二个模块通过转换器和卷积块提取语义全局和局部特征。此外,通过将查询分成两部分并将它们提供给卷积和转换器块,降低了计算成本。结果表明,该方法的平均精度、f1 分数和准确率分别达到 99.55%、99.54%和 99.53%。这表明使用多尺度特征和转换器可以提高分类准确性。该模型还在其他数据集上进行了验证,证实了该模型可用于实时水稻疾病诊断。在未来,此类模型可用于监测包括小麦、番茄和土豆在内的其他作物。