Deep learning for sustainable agriculture needs ecology and human involvement

Masahiro Ryo, Josepha Schiller, Stefan Stiller, Juan Camilo Rivera Palacio, Konlavach Mengsuwan, Anastasiia Safonova, Yuqi Wei
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引用次数: 1

Abstract

Deep learning is an emerging data analytic tool that can improve predictability, efficiency and sustainability in agriculture. With a bibliometric analysis of 156 articles, we show how deep learning methods have been applied in the context of sustainable agriculture. As a general publication trend, China and India are leading countries for publication, international collaboration is still minor. Deep learning has been popularly applied in the context of smart agriculture across scales for individual plant monitoring, field monitoring, field operation and robotics, predicting soil, water and climate conditions and landscape-level monitoring of land use and crop types. We identified that the potential of deep learning had been investigated mainly for predicting soil (abiotic), water, climate and vegetation dynamics, but ecological characteristics are critically understudied. We also highlight key themes that can be better addressed with deep learning for fostering sustainable agriculture: (i) including above- and belowground ecological dynamics such as ecosystem functioning and ecotone, (ii) evaluating agricultural impacts on other ecosystems and (iii) incorporating the knowledge and opinions of domain experts and stakeholders into artificial intelligence. We propose that deep learning needs to go beyond automatic data analysis by integrating ecological and human knowledge to foster sustainable agriculture.

Abstract Image

可持续农业的深度学习需要生态学和人类参与
深度学习是一种新兴的数据分析工具,可以提高农业的可预测性、效率和可持续性。通过对156篇文章的文献计量分析,我们展示了深度学习方法是如何应用于可持续农业的。作为一种普遍的出版趋势,中国和印度是出版业的领先国家,国际合作仍然很少。深度学习已广泛应用于智能农业的各个领域,包括单株监测、田间监测、田间作业和机器人技术、土壤、水和气候条件预测以及土地利用和作物类型的景观水平监测。我们发现,深度学习的潜力主要用于预测土壤(非生物)、水、气候和植被动态,但对生态特征的研究严重不足。我们还强调了通过深度学习可以更好地解决的关键主题,以促进可持续农业:(i)包括地上和地下生态动态,如生态系统功能和交错带,(ii)评估农业对其他生态系统的影响,以及(iii)将领域专家和利益相关者的知识和意见纳入人工智能。我们提出,深度学习需要超越自动数据分析,通过整合生态和人类知识来促进可持续农业。
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