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首页> 外文期刊>Remote Sensing of Environment: An Interdisciplinary Journal >Development of methods to improve soybean yield estimation and predict plant maturity with an unmanned aerial vehicle based platform
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Development of methods to improve soybean yield estimation and predict plant maturity with an unmanned aerial vehicle based platform

机译:利用无人飞行器平台改进大豆产量估算和预测植物成熟度的方法的开发

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摘要

Advances in phenotyping technology are critical to ensure the genetic improvement of crops meet future global demands for food and fuel. Field-based phenotyping platforms are being evaluated for their ability to deliver the necessary throughput for large scale experiments and to provide an accurate depiction of trait performance in real-world environments. We developed a dual-camera high throughput phenotyping (HTP) platform on an unmanned aerial vehicle (UAV) and collected time course multispectral images for large scale soybean [Glycine max (L) Merr.] breeding trials. We used a supervised machine learning model (Random Forest) to measure crop geometric features and obtained high correlations with final yield in breeding populations (r = 0.82). The traditional yield estimation model was significantly improved by incorporating plot row length as covariate (p < 0.01). We developed a binary prediction model from time-course multispectral HTP image data and achieved over 93% accuracy in classifying soybean maturity. This prediction model was validated in an independent breeding trial with a different plot type. These results show that multispectral data collected from the UAV-based HTP platform could improve yield estimation accuracy and maturity recording efficiency in a modern soybean breeding program. (C) 2016 Elsevier Inc All rights reserved.
机译:表型技术的进步对于确保作物的遗传改良能够满足未来全球对食物和燃料的需求至关重要。正在评估基于现场的表型分析平台的能力,这些平台可提供大规模实验所需的通量,并能够在真实环境中准确描述性状表现。我们在无人飞行器(UAV)上开发了双摄像头高通量表型(HTP)平台,并针对大型大豆[Glycine max(L)Merr。]育种试验收集了时程多光谱图像。我们使用监督机器学习模型(Random Forest)来测量作物的几何特征,并获得了与育种种群最终产量的高度相关性(r = 0.82)。通过将图行长度作为协变量,可以显着改善传统的产量估算模型(p <0.01)。我们根据时程多光谱HTP图像数据开发了一个二元预测模型,并在分类大豆成熟度方面达到了93%以上的准确性。该预测模型已在具有不同地块类型的独立育种试验中得到验证。这些结果表明,在现代大豆育种计划中,从基于无人机的HTP平台收集的多光谱数据可以提高产量估算的准确性和成熟度记录效率。 (C)2016 Elsevier Inc保留所有权利。

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