用于植物胁迫表型分析的高通量表型分析和机器学习综合评述。

IF 3.7 Q2 GENETICS & HEREDITY
Phenomics (Cham, Switzerland) Pub Date : 2022-04-04 eCollection Date: 2022-06-01 DOI:10.1007/s43657-022-00048-z
Taqdeer Gill, Simranveer K Gill, Dinesh K Saini, Yuvraj Chopra, Jason P de Koff, Karansher S Sandhu
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引用次数: 0

摘要

过去十年间,配备多种传感器的地面和空中平台被迅速采用,用于对作物植物整个发育阶段的各种生物和非生物胁迫进行表型分析。高通量表型技术(HTP)就是应用这些工具对植物进行表型,包括地面成像、空中表型和遥感等。这些高通量表型工具的采用试图减少育种计划中的表型瓶颈,并有助于加快遗传增益的步伐。更具体地说,本文讨论了几种根系表型工具,以研究植物的隐性部分和一个长期被忽视的领域。然而,使用这些 HTP 技术会产生大数据集,从而阻碍从这些数据集中进行推断。机器学习和深度学习为提取有用信息以得出结论提供了另一个机会。这些跨学科的数据分析方法使用概率、统计、分类、回归、决策理论、数据可视化和神经网络,将提取的信息与获得的表型联系起来。这些技术使用特征提取、识别、分类和预测标准来识别相关数据,以用于植物育种和病理学活动。本综述重点介绍机器学习和深度学习方法用于植物胁迫表型分析的最新研究成果,这些数据是利用各种 HTP 平台收集的。我们全面概述了现有的不同机器学习和深度学习工具及其潜在优势和缺陷。总之,本综述为研究各种 HTP 平台提供了一个途径,特别强调使用机器学习和深度学习工具得出合理的结论。最后,我们提出了目前面临的概念性挑战,并对管理这些问题的未来前景提出了见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

A Comprehensive Review of High Throughput Phenotyping and Machine Learning for Plant Stress Phenotyping.

A Comprehensive Review of High Throughput Phenotyping and Machine Learning for Plant Stress Phenotyping.

During the last decade, there has been rapid adoption of ground and aerial platforms with multiple sensors for phenotyping various biotic and abiotic stresses throughout the developmental stages of the crop plant. High throughput phenotyping (HTP) involves the application of these tools to phenotype the plants and can vary from ground-based imaging to aerial phenotyping to remote sensing. Adoption of these HTP tools has tried to reduce the phenotyping bottleneck in breeding programs and help to increase the pace of genetic gain. More specifically, several root phenotyping tools are discussed to study the plant's hidden half and an area long neglected. However, the use of these HTP technologies produces big data sets that impede the inference from those datasets. Machine learning and deep learning provide an alternative opportunity for the extraction of useful information for making conclusions. These are interdisciplinary approaches for data analysis using probability, statistics, classification, regression, decision theory, data visualization, and neural networks to relate information extracted with the phenotypes obtained. These techniques use feature extraction, identification, classification, and prediction criteria to identify pertinent data for use in plant breeding and pathology activities. This review focuses on the recent findings where machine learning and deep learning approaches have been used for plant stress phenotyping with data being collected using various HTP platforms. We have provided a comprehensive overview of different machine learning and deep learning tools available with their potential advantages and pitfalls. Overall, this review provides an avenue for studying various HTP platforms with particular emphasis on using the machine learning and deep learning tools for drawing legitimate conclusions. Finally, we propose the conceptual challenges being faced and provide insights on future perspectives for managing those issues.

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