Current applications and potential future directions of reinforcement learning-based Digital Twins in agriculture

IF 6.3 Q1 AGRICULTURAL ENGINEERING Smart agricultural technology Pub Date : 2024-08-01 DOI:10.1016/j.atech.2024.100512
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Abstract

Digital Twins have gained attention in various industries by creating virtual replicas of real-world systems through data collection and machine learning. These replicas are used to run simulations, monitor processes, and support decision-making, extracting valuable information to benefit users. Reinforcement learning is a promising machine learning technique to use in Digital Twins, as it relies on a virtual representation of an environment or system to learn an optimal policy for a given task, which is exactly what a Digital Twin provides. Through its self-learning nature, reinforcement learning can not only optimize given tasks but might also find ways to achieve goals that were previously unexplored and, therefore, open up new avenues to tackle tasks like pest and disease detection, crop growth or crop rotation planning. However, while reinforcement learning can benefit many agricultural practices, the explainability of the employed models is frequently disregarded, diminishing its benefits as users fail to build trust in the suggested decisions. Consequently, there is a notable absence of focus on explainable reinforcement learning techniques, indicating a significant area for future development as an industry as vital to many people as the agri-food sector needs to rely on resilient methods and understandable decisions. Explainable AI models contribute to achieving both of these requirements. Therefore, the use of reinforcement learning in agriculture has the potential to open up a variety of reinforcement learning-based Digital Twin applications in agricultural domains. To explore these domains, This review categorises existing research works that employ reinforcement learning techniques in agricultural settings. On the one hand, we examine the application domain and put them into categories accordingly. On the other hand, we group the works by the reinforcement learning method involved to gain an overview of the currently employed models. Through this analysis, the review seeks to provide insights into the state-of-the-art reinforcement learning applications in agriculture. Additionally, we aim to identify gaps and opportunities for future research focusing on potential synergies of reinforcement learning and Digital Twins to tackle agricultural challenges and optimise farming processes, paving the way for more efficient and sustainable farming methodologies.

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基于强化学习的 "数字孪生 "在农业领域的当前应用和未来发展方向
数字孪生系统通过数据收集和机器学习创建真实世界系统的虚拟复制品,在各行各业中备受关注。这些复制品用于运行模拟、监控流程和支持决策,从而提取有价值的信息,使用户受益。强化学习是一种很有前途的机器学习技术,可以用于数字孪生中,因为它依靠环境或系统的虚拟表示来学习特定任务的最优策略,而这正是数字孪生所能提供的。强化学习具有自学性质,不仅能优化给定任务,还能找到以前未曾探索过的实现目标的方法,因此为解决病虫害检测、作物生长或轮作规划等任务开辟了新途径。然而,尽管强化学习可以使许多农业实践受益,但所采用模型的可解释性却经常被忽视,从而降低了其效益,因为用户无法对所建议的决策建立信任。因此,可解释的强化学习技术明显缺乏关注,这表明未来发展的一个重要领域是农业食品行业,因为该行业对许多人来说至关重要,需要依靠有弹性的方法和可理解的决策。可解释的人工智能模型有助于实现这两项要求。因此,在农业领域使用强化学习有可能在农业领域开辟各种基于强化学习的数字孪生应用。为了探索这些领域,本综述对在农业环境中采用强化学习技术的现有研究工作进行了分类。一方面,我们对应用领域进行了研究,并将其分为相应的类别。另一方面,我们按照所涉及的强化学习方法对作品进行分组,以获得当前所使用模型的总体情况。通过上述分析,本综述旨在为农业领域最先进的强化学习应用提供见解。此外,我们还旨在确定未来研究的差距和机遇,重点关注强化学习和数字孪生的潜在协同作用,以应对农业挑战并优化耕作流程,为更高效、更可持续的耕作方法铺平道路。
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