通过神经网络、迁移学习和集成模型增强对德国露天蔬菜作物灌溉需求的预测

IF 5.9 1区 农林科学 Q1 AGRONOMY
Samantha Rubo, Jana Zinkernagel
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引用次数: 0

摘要

蔬菜生产中精确的灌溉管理是优化水分利用和保证作物生产力的关键。本研究开发了两种类型的人工神经网络(ann),即多层感知器(MLPs)和长短期记忆(LSTM)网络,用于预测可用水量(AWC %)作为灌溉调度的目标参数。这些人工神经网络是用三年(2020-2023年)在德国两个地点进行的菠菜露天田间试验的实验数据进行训练的,试验数据涉及三个土层(0-20 厘米、20-40 厘米和40-60 厘米)。这些数据包括基于光谱反射率的植被指数以及平均气温、湿度、风速、光热时间等气象变量及其累积值得出的土壤质地、植物信号和植物发育状况。另外两个模型使用来自德国320个站点的免费AWC数据进行预训练,随后使用与之前相同的实验数据进行微调。人工神经网络集成模型巩固了先前模型的知识,以增强鲁棒性并促进对新气候条件和土壤质地的可转移性。变量重要性分析、敏感性分析等可解释人工智能方法通过识别各土层的影响因素,增强了模型的可解释性。使用额外AWC数据训练并经过实验微调的模型表现最佳(R2 >;0.98, RMSE <1.5 %)在所有土壤深度。LSTM模型的表现略好于等效的MLP模型,强调了时间依赖性在土壤湿度预测中的重要性。集成模型最大限度地减少了累积误差,并通过平均所有模型的输出来提供稳定的结果。虽然人工神经网络提供了高度准确的结果,但实施需要IT基础设施的专业知识和资源,例如开发与气象站的接口,如果适用,还需要额外的传感器。因此,在实践中部署基于人工神经网络的信息系统需要一个具有IT和蔬菜生产专业知识的服务提供商来有效地实施和维护。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enhancing the prediction of irrigation demand for open field vegetable crops in Germany through neural networks, transfer learning, and ensemble models
Precise irrigation management in vegetable production is key for optimizing water use and ensuring crop productivity. This study develops two types of artificial neural networks (ANNs), multilayer perceptron (MLPs) and long short-term memory (LSTM) networks for the prediction of available water capacity (AWC in %) as target parameter for irrigation scheduling. These ANNs are trained with experimental data from three-year (2020–2023) open field trials with spinach on two sites in Germany, and for three soil layers (0–20 cm, 20–40 cm and 40–60 cm). This data encompassed soil texture, plant signals and plant developmental status derived from vegetation indices based on spectral reflectance along with meteorological variables including mean air temperature, humidity, wind speed, photothermal time, and their cumulative values. Two additional models are pretrained with freely accessible AWC data from 320 stations across Germany and subsequently fine-tuned with the same experimental data as before. An ANN ensemble model consolidates the knowledge from preceding models to enhance robustness and promote transferability to new climatic conditions and soil textures. Methods of explainable AI such as variable importance analysis and sensitivity analysis enhance the model explainability by identifying influential factors for each soil layer. Models trained with additional AWC data and fine-tuned with experimental performed best (R2 > 0.98, RMSE <1.5 %) across all soil depths. The LSTM models perform slightly better than the MLP equivalent, emphasizing the importance of temporal dependencies in soil moisture prediction. The ensemble model minimized cumulative errors and provided stable results by averaging the outputs of all models. While ANNs provide highly accurate results, implementation requires expertise and resources of IT infrastructures such as the development of interfaces to weather stations and, if applicable, additional sensors. Consequently, deploying the ANN-based IS in practice requires a service provider with specialized knowledge in both IT and vegetable production for effective implementation and maintenance.
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来源期刊
Agricultural Water Management
Agricultural Water Management 农林科学-农艺学
CiteScore
12.10
自引率
14.90%
发文量
648
审稿时长
4.9 months
期刊介绍: Agricultural Water Management publishes papers of international significance relating to the science, economics, and policy of agricultural water management. In all cases, manuscripts must address implications and provide insight regarding agricultural water management.
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