缩小精准农业的差距:用于疾病分类的 CNN-随机森林融合技术

Arshleen Kaur, Vinay Kukreja, Sushant Chamoli, Siddhant Thapliyal, Rishabh Sharma
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摘要

在全球人口迅速增长和保障粮食安全的迫切需要的框架下,精准农业已成为一个重要的研究和发展领域。在这一领域,我们的研究旨在通过创新的多分类框架,加强对洋葱烟粉虱疾病严重程度的评估,从而产生重大影响。本研究提出了一种新的混合模型,它结合了卷积神经网络(CNN)和随机森林(RF)的优势。该模型集成了深度学习(DL)的特征提取能力和集合学习的分类鲁棒性,形成了一种协同方法。多种元素的结合使我们开发出的模型不仅超越了当前的基准,还建立了一个显著的标准,显示出 96.38% 的出色总体准确率。我们模型的意义不仅在于其卓越的准确性。它的特征可解释性带来了显著的优势,因为它使我们能够全面了解导致病情严重程度的各个方面。在这种情况下,可解释性为农民和农业专家提供了一个强大的工具,可以大大提高他们在管理疾病时根据数据做出明智决策的能力。我们的研究代表了农业多类分类领域的突破性进展。由于作物和疾病的复杂性和多样性,历史上的制约因素一直很严重。然而,我们的混合方法提供了一种可扩展的替代方案,超越了传统洋葱种植的局限性。它不仅为改进疾病评估提供了可能,还为在更大范围内解决农业领域的多类分类工作开创了先例。
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Bridging the Gap in Precision Agriculture: A CNN-Random Forest Fusion for Disease Classification
Within the framework of a rapidly expanding worldwide population and the critical need to guarantee food security, precision agriculture has arisen as a crucial area of study and advancement. In the scope of this field, our research aims to make a significant impact by enhancing the evaluation of onion smut disease severity through an innovative multiclassification framework. The present study presents a new hybrid model that combines the strengths of Convolutional Neural Networks (CNN) and Random Forest (RF). This model integrates the feature extraction capabilities of deep learning (DL) with the classification robustness of ensemble learning, resulting in a synergistic approach. The combination of many elements leads to the development of a model that not only exceeds current benchmarks but also establishes a notable standard, demonstrating an outstanding overall accuracy rate of 96.38%. The significance of our model extends beyond its exceptional accuracy. The feature interpretability of this confers a significant advantage, as it enables a comprehensive comprehension of the various aspects that contribute to the severity of the condition. The availability of interpretability in this context provides farmers and agricultural specialists with a powerful tool that can significantly enhance their ability to make informed decisions based on data when it comes to managing diseases. Our research represents a groundbreaking advancement in the field of multiclass categorization in the context of agriculture. The historical constraints given by the complexity and diversity of crops and illnesses have been significant. However, our hybrid approach presents a scalable alternative that surpasses the limitations of traditional onion farming. Not only does it offer the potential for improved disease evaluation, but it also establishes a precedent for addressing multiclass classification jobs in the agricultural domain on a wider scale.
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