利用解释性机器学习和作物模型研究环境和管理对大豆产量缺口的影响

IF 1.8 4区 农林科学 Q2 AGRICULTURE, MULTIDISCIPLINARY Crop & Pasture Science Pub Date : 2023-01-01 DOI:10.1071/cp23032
Alireza Nehbandani, Patrick Filippi, Parisa Alizadeh-Dehkordi, Amir Dadrasi, Afshin Soltani
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引用次数: 0

摘要

管理和环境条件是影响大豆(Glycine max (L.))产量的主要因素。稳定)。尽管近年来伊朗的平均大豆产量有所增加,但实际产量与潜在产量之间仍存在相当大的差距。本研究的目的是确定影响伊朗大豆主产区大豆产量的关键气候和管理因素。方法结合机器学习方法(使用梯度增强决策树,XGBoost)和SSM-iCrop2仿真模型。影响大豆产量的关键管理因素通过解释性机器学习确定,该机器学习使用了5年来从268块大豆田收集的信息。利用SSM-iCrop2模拟模式估算了6个气象站30年的潜在产量和限水潜在产量。以限水产量潜力与潜在产量之比确定限水产量,热胁迫状态量化为大豆生长季最高温度>36℃的天数。XGBoost模型充分描述了观察到的大豆产量变化。校正模型的均方根误差和Lin’s一致性相关系数值分别为262kgha−1和0.96,表明预测变量可以描述研究数据集的大部分大豆产量变化。我们确定了15个影响大豆产量的气候和管理变量。研究区大部分处于高水胁迫和低热胁迫下。结论优化种植日期和改善灌溉管理是减小研究区产量差距的主要措施。
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Use of interpretive machine learning and a crop model to investigate the impact of environment and management on soybean yield gap
Context Management and environmental conditions are the main factors influencing yield of soybean (Glycine max (L.) Merr.). Despite an increase in average soybean yield in recent years in Iran, a considerable gap remains between actual yield and potential yield.Aims The objective of this study was to identify critical climate and management factors affecting soybean yield in Iran’s major soybean production area.Methods A combination of machine learning approaches (using gradient boosted decision trees, XGBoost) and the SSM-iCrop2 simulation model was used. Critical management factors affecting soybean yield were determined through interpretive machine learning using information collected from 268 soybean fields over a 5-year period. Potential yield and water-limited potential yield at six weather stations were estimated for 30years via the SSM-iCrop2 simulation model. Water limitation was determined by considering the ratio of water-limited yield potential to potential yield, and heat stress status was quantified as the number of days with maximum temperature >36°C during the soybean growing season.Key results The XGBoost models adequately described the observed changes in soybean yield. Root-mean-square error and Lin’s concordance correlation coefficient values of the calibrated model were 262kgha−1 and 0.96, respectively, which indicated that the predictor variables could describe most of the variation in soybean yield for the studied dataset.Conclusions We identified 15 climatic and management variables that affect soybean yield. A large part of the studied area is under high water stress and low heat stress.Implications Optimal planting date and improved irrigation management are the main options for reducing the yield gap in the study area.
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来源期刊
Crop & Pasture Science
Crop & Pasture Science AGRICULTURE, MULTIDISCIPLINARY-
CiteScore
4.20
自引率
15.80%
发文量
111
审稿时长
3 months
期刊介绍: Crop and Pasture Science (formerly known as Australian Journal of Agricultural Research) is an international journal publishing outcomes of strategic research in crop and pasture sciences and the sustainability of farming systems. The primary focus is broad-scale cereals, grain legumes, oilseeds and pastures. Articles are encouraged that advance understanding in plant-based agricultural systems through the use of well-defined and original aims designed to test a hypothesis, innovative and rigorous experimental design, and strong interpretation. The journal embraces experimental approaches from molecular level to whole systems, and the research must present novel findings and progress the science of agriculture. Crop and Pasture Science is read by agricultural scientists and plant biologists, industry, administrators, policy-makers, and others with an interest in the challenges and opportunities facing world agricultural production. Crop and Pasture Science is published with the endorsement of the Commonwealth Scientific and Industrial Research Organisation (CSIRO) and the Australian Academy of Science.
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