一个支持物联网的混合深度q -学习和Elman神经网络框架,用于农业部门的主动作物医疗保健

IF 7.6 3区 计算机科学 Q1 COMPUTER SCIENCE, INFORMATION SYSTEMS
Meshari Alazmi , Majid Alshammari , Dina A. Alabbad , Hamad Ali Abosaq , Ola Hegazy , Khaled M. Alalayah , Nahla O.A. Mustafa , Abu Sarwar Zamani , Shahid Hussain
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引用次数: 0

摘要

新兴的传感技术和人工智能(AI)通过提供作物健康监测和实现实时决策,提升了农业部门。然而,物联网设备的异构性导致了具有不同特征的海量数据,这给单个AI模型理解继承的数据模式带来了挑战,因此需要先进的模型。因此,我们引入了一个物联网耦合混合框架,该框架集成了Deep Q-Network和Elman神经网络(ENN),用于农业部门的主动作物医疗保健。开发的混合框架利用物联网系统进行作物监测数据,并结合新网络,利用递归模式消除技术来评估数据模式并提取与作物健康相关的最佳模式。随后,开发的框架利用Deep Q-Network来理解与作物健康相关的遗传数据模式,以实现知情决策目的。提出的混合框架应用于通过物联网系统收集的公开可用的大田和温室作物数据集,并针对专注于作物医疗保健的最先进模型进行验证。结果表明,所提出的ENN-DQN框架准确率为99.77%,精密度为99.52%,召回率为99.93%,f分数为99.76%。此外,详细介绍了DQN的作用分布,并通过对不同异质性水平的鲁棒性分析、95%置信区间的统计分析和计算复杂度分析对结果进行了验证。本研究的源代码可以在GitHub仓库中公开访问
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An IoT-Enabled Hybrid Deep Q-Learning and Elman Neural Network Framework for Proactive Crop Healthcare in the Agriculture Sector
Emerging sensing technology and the artificial intelligence (AI) has lifted the agriculture sector by offering crop health monitoring and enabling real-time decision making. However, the heterogeneous nature of IoT devices results in massive data with distinct features that present challenges for individual AI models to comprehend the inherited data pattern, thereby necessitating advanced models. Consequently, we introduce an IoT coupled hybrid framework that integrates Deep Q-Network and Elman Neural Network (ENN) for proactive crop healthcare in the agriculture sector. The developed hybrid framework utilizes the IoT system for crop monitoring data and incorporates ENN, which leverages the Recursive Pattern Elimination technique to evaluate the data patterns and extract the optimal pattern related to crop health. Subsequently, the developed framework utilizes Deep Q-Network to comprehend the inherited data pattern related to the crop health for informed decision-making purposes. The proposed hybrid framework is applied to publicly available Field and Greenhouse crop datasets collected through the IoT system and is validated against state-of-the-art models focused on crop healthcare. The results showed that the proposed ENN-DQN framework achieved a high accuracy of 99.77%, precision of 99.52%, recall of 99.93%, and F-score of 99.76%. Moreover, a detail of the DQN action distribution is presented, and the results are validated through robustness analysis against different levels of heterogeneity, statistical analysis with a 95% confidence interval, and computational complexity analysis. A source code for this study is openly accessible at: GitHub repository
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来源期刊
Internet of Things
Internet of Things Multiple-
CiteScore
3.60
自引率
5.10%
发文量
115
审稿时长
37 days
期刊介绍: Internet of Things; Engineering Cyber Physical Human Systems is a comprehensive journal encouraging cross collaboration between researchers, engineers and practitioners in the field of IoT & Cyber Physical Human Systems. The journal offers a unique platform to exchange scientific information on the entire breadth of technology, science, and societal applications of the IoT. The journal will place a high priority on timely publication, and provide a home for high quality. Furthermore, IOT is interested in publishing topical Special Issues on any aspect of IOT.
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