基于深度学习的玉米作物病害检测、严重程度预测和作物损失估计

IF 8.2 Q1 AGRICULTURE, MULTIDISCIPLINARY Artificial Intelligence in Agriculture Pub Date : 2022-01-01 DOI:10.1016/j.aiia.2022.11.002
Nidhi Kundu , Geeta Rani , Vijaypal Singh Dhaka , Kalpit Gupta , Siddaiah Chandra Nayaka , Eugenio Vocaturo , Ester Zumpano
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引用次数: 6

摘要

玉米作物的需求和产量之间日益扩大的差距是食品工业和农民关注的一个问题。其对黄枯病和锈病的易感性是其减产的主要原因。人工检测、分类这些疾病、计算疾病严重程度和估计作物损失是一项耗时的任务。此外,它还需要疾病检测方面的专业知识。因此,有必要找到一种替代方法来自动检测疾病、预测严重程度和估计作物损失。机器学习和深度学习算法在模式识别、目标检测和数据分析方面的有希望的结果促使研究人员将这些技术用于玉米作物的疾病检测、分类和作物损失估计。文献中的研究工作已经证明了它们在使用机器学习和深度学习模型进行自动疾病检测方面的潜力。但是,这些工作都缺乏一个可靠的和现实生活中的标记数据集来训练这些模型。此外,现有的研究也没有关注严重程度预测和作物损失估计。本文作者收集了植物病理学家标记的真实数据集。他们提出了一个基于深度学习的框架,用于数据集预处理、自动疾病检测、严重程度预测和作物损失估计。它使用K-Means聚类算法提取感兴趣的区域。接下来,他们采用定制的深度学习模型“MaizeNet”进行疾病检测、严重程度预测和作物损失估计。该模型报告的最高准确率为98.50%。此外,作者还利用Grad-CAM进行了特征可视化。现在,建议的模型与web应用程序集成,以提供用户友好的界面。该模型提取相关特征的效率高,参数数量少,训练时间短,准确率高,是植物病理学专家的辅助工具。相关的网络应用程序“玉米疾病检测器”的版权归档日记号:17006/2021-CO/SW。
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Disease detection, severity prediction, and crop loss estimation in MaizeCrop using deep learning

The increasing gap between the demand and productivity of maize crop is a point of concern for the food industry, and farmers. Its' susceptibility to diseases such as Turcicum Leaf Blight, and Rust is a major cause for reducing its production. Manual detection, and classification of these diseases, calculation of disease severity, and crop loss estimation is a time-consuming task. Also, it requires expertise in disease detection. Thus, there is a need to find an alternative for automatic disease detection, severity prediction, and crop loss estimation. The promising results of machine learning, and deep learning algorithms in pattern recognition, object detection, and data analysis motivate researchers to employ these techniques for disease detection, classification, and crop loss estimation in maize crop. The research works available in literature, have proven their potential in automatic disease detection using machine learning, and deep learning models. But, there is a lack none of these works a reliable and real-life labelled dataset for training these models. Also, none of the existing works focus on severity prediction, and crop loss estimation. The authors in this manuscript collect the real-life dataset labelled by plant pathologists. They propose a deep learning-based framework for pre-processing of dataset, automatic disease detection, severity prediction, and crop loss estimation. It uses the K-Means clustering algorithm for extracting the region of interest. Next, they employ the customized deep learning model ‘MaizeNet’ for disease detection, severity prediction, and crop loss estimation. The model reports the highest accuracy of 98.50%. Also, the authors perform the feature visualization using the Grad-CAM. Now, the proposed model is integrated with a web application to provide a user-friendly interface. The efficacy of the model in extracting the relevant features, a smaller number of parameters, low training time, high accuracy favors its importance as an assisting tool for plant pathology experts.The copyright for the associated web application ‘Maize-Disease-Detector’ is filed with diary number: 17006/2021-CO/SW.

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来源期刊
Artificial Intelligence in Agriculture
Artificial Intelligence in Agriculture Engineering-Engineering (miscellaneous)
CiteScore
21.60
自引率
0.00%
发文量
18
审稿时长
12 weeks
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