Customised Convolutional Neural Network With Transfer Learning for Multi-Nutrient Deficiency Identification With Pattern and Deep Features in Paddy Image

IF 1.1 4区 农林科学 Q3 PLANT SCIENCES Journal of Phytopathology Pub Date : 2025-01-15 DOI:10.1111/jph.70014
S Kavitha, Kotadi Chinnaiah
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Abstract

Multi-nutrient deficiency in crops, involving a shortage of essential nutrients such as nitrogen, phosphorus and potassium, impacts plant growing and yield. Accurate recognition is vital for effective nutrient management and maximising productivity. Identification techniques include extractive methods that analyse symptoms and abstractive methods that generate insights from data, with hybrid approaches aiming to improve the accuracy. However, challenges remain in maintaining diagnostic consistency and so forth. Continuous improvements are necessary to better integrate and interpret complex data for more accurate nutrient deficiency identification. To tackle these challenges, this research proposes the customised convolutional neural network-transfer learning (CCNN-TL) model for identifying multi-nutrient deficiencies in paddy leaves. This model includes several key phases: image preprocessing, segmentation, feature extraction, data augmentation and identification. Initially, the paddy leaf images undergo preprocessing using the improved Wiener filtering (IWF) technique. Next, the modified U-Net model is proposed for segmenting the preprocessed images. In the feature extraction phase, relevant features are identified from the segmented images. These features are then augmented through the data augmentation process. Finally, the CCNN-TL model is used for multi-nutrient deficiency identification. The model's effectiveness is demonstrated through comprehensive simulations and experimental evaluations. These evaluations showcase its enhanced performance, with improved accuracy, precision and specificity compared to traditional methods. The CCNN-TL scheme attained the greatest accuracy of 0.982, precision of 0.975 and F-measure of 0.973. The Nutrient-Deficiency-Symptoms-in-Rice dataset was employed for simulations and analysis, ensuring a solid foundation for the evaluations.

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基于迁移学习的自定义卷积神经网络在水稻图像中模式和深度特征的多营养缺乏症识别
作物多种营养素缺乏,包括氮、磷和钾等必需营养素的缺乏,影响植物生长和产量。准确的识别对于有效的营养管理和最大限度地提高生产力至关重要。识别技术包括分析症状的提取方法和从数据中产生见解的抽象方法,以及旨在提高准确性的混合方法。然而,在保持诊断一致性等方面仍然存在挑战。为了更好地整合和解释复杂的数据,以更准确地识别营养缺乏症,需要不断改进。为了应对这些挑战,本研究提出了定制的卷积神经网络迁移学习(CCNN-TL)模型,用于识别水稻叶片中的多种营养缺乏症。该模型包括几个关键阶段:图像预处理、分割、特征提取、数据增强和识别。首先,采用改进的维纳滤波技术对稻田叶片图像进行预处理。然后,提出改进的U-Net模型对预处理后的图像进行分割。在特征提取阶段,从分割后的图像中识别出相关的特征。然后通过数据增强过程增强这些特性。最后,利用CCNN-TL模型进行多营养素缺乏症鉴定。通过综合仿真和实验验证了该模型的有效性。这些评估表明,与传统方法相比,该方法具有更高的准确性、精密度和特异性。CCNN-TL方案的准确度为0.982,精密度为0.975,F-measure为0.973。利用水稻营养缺乏症状数据集进行模拟和分析,为评估提供了坚实的基础。
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来源期刊
Journal of Phytopathology
Journal of Phytopathology 生物-植物科学
CiteScore
2.90
自引率
0.00%
发文量
88
审稿时长
4-8 weeks
期刊介绍: Journal of Phytopathology publishes original and review articles on all scientific aspects of applied phytopathology in agricultural and horticultural crops. Preference is given to contributions improving our understanding of the biotic and abiotic determinants of plant diseases, including epidemics and damage potential, as a basis for innovative disease management, modelling and forecasting. This includes practical aspects and the development of methods for disease diagnosis as well as infection bioassays. Studies at the population, organism, physiological, biochemical and molecular genetic level are welcome. The journal scope comprises the pathology and epidemiology of plant diseases caused by microbial pathogens, viruses and nematodes. Accepted papers should advance our conceptual knowledge of plant diseases, rather than presenting descriptive or screening data unrelated to phytopathological mechanisms or functions. Results from unrepeated experimental conditions or data with no or inappropriate statistical processing will not be considered. Authors are encouraged to look at past issues to ensure adherence to the standards of the journal.
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