Capturing crop adaptation to abiotic stress using image-based technologies

被引:40
作者
Al-Tamimi, Nadia [1 ]
Langan, Patrick [1 ]
Bernad, Villo [1 ]
Walsh, Jason [1 ,2 ,3 ]
Mangina, Eleni [2 ,3 ]
Negrao, Sonia [1 ]
机构
[1] Univ Coll Dublin, Sch Biol & Environm Sci, Dublin, Ireland
[2] Univ Coll Dublin, Sch Comp Sci, Dublin, Ireland
[3] Univ Coll Dublin, UCD Energy Inst, Dublin, Ireland
基金
爱尔兰科学基金会;
关键词
abiotic stress; imaging; high-throughput phenotyping; crops; machine learning; LEAF PIGMENT CONTENT; SPECTRAL REFLECTANCE; VEGETATION INDEXES; DROUGHT STRESS; WATER-DEFICIT; GRAIN-YIELD; CHLOROPHYLL FLUORESCENCE; SALINITY TOLERANCE; CANOPY TEMPERATURE; WINTER-WHEAT;
D O I
10.1098/rsob.210353
中图分类号
Q5 [生物化学]; Q7 [分子生物学];
学科分类号
071010 ; 081704 ;
摘要
Farmers and breeders aim to improve crop responses to abiotic stresses and secure yield under adverse environmental conditions. To achieve this goal and select the most resilient genotypes, plant breeders and researchers rely on phenotyping to quantify crop responses to abiotic stress. Recent advances in imaging technologies allow researchers to collect physiological data non-destructively and throughout time, making it possible to dissect complex plant responses into quantifiable traits. The use of image-based technologies enables the quantification of crop responses to stress in both controlled environmental conditions and field trials. This paper summarizes phenotyping imaging technologies (RGB, multispectral and hyperspectral sensors, among others) that have been used to assess different abiotic stresses including salinity, drought and nitrogen deficiency, while discussing their advantages and drawbacks. We present a detailed review of traits involved in abiotic tolerance, which have been quantified by a range of imaging sensors under high-throughput phenotyping facilities or using unmanned aerial vehicles in the field. We also provide an up-to-date compilation of spectral tolerance indices and discuss the progress and challenges in machine learning, including supervised and unsupervised models as well as deep learning.
引用
收藏
页数:20
相关论文
共 177 条
[1]  
Abrmoff M.D., 2004, BIOPHOTONICS INT, V11, P36, DOI DOI 10.1201/9781420005615.AX4
[2]   Phenomic and Physiological Analysis of Salinity Effects on Lettuce [J].
Adhikari, Neil D. ;
Simko, Ivan ;
Mou, Beiquan .
SENSORS, 2019, 19 (21)
[3]   Evaluation of Broadband and Narrowband Vegetation Indices for the Identification of Archaeological Crop Marks [J].
Agapiou, Athos ;
Hadjimitsis, Diofantos G. ;
Alexakis, Dimitrios D. .
REMOTE SENSING, 2012, 4 (12) :3892-3919
[4]   Salinity tolerance loci revealed in rice using high-throughput non-invasive phenotyping [J].
Al-Tamimi, Nadia ;
Brien, Chris ;
Oakey, Helena ;
Berger, Bettina ;
Saade, Stephanie ;
Ho, Yung Shwen ;
Schmockel, Sandra M. ;
Tester, Mark ;
Negrao, Sonia .
NATURE COMMUNICATIONS, 2016, 7
[5]   Development and evaluation of a field-based high-throughput phenotyping platform [J].
Andrade-Sanchez, Pedro ;
Gore, Michael A. ;
Heun, John T. ;
Thorp, Kelly R. ;
Carmo-Silva, A. Elizabete ;
French, Andrew N. ;
Salvucci, Michael E. ;
White, Jeffrey W. .
FUNCTIONAL PLANT BIOLOGY, 2014, 41 (01) :68-79
[6]   Genome-wide association of barley plant growth under drought stress using a nested association mapping population [J].
Anh-Tung Pham ;
Maurer, Andreas ;
Pillen, Klaus ;
Brien, Chris ;
Dowling, Kate ;
Berger, Bettina ;
Eglinton, Jason K. ;
March, Timothy J. .
BMC PLANT BIOLOGY, 2019, 19 (1)
[7]  
[Anonymous], 1997, MACH LEARN
[8]   Digital imaging information technology applied to seed germination testing. A review [J].
Aquila, Antonio Dell' .
AGRONOMY FOR SUSTAINABLE DEVELOPMENT, 2009, 29 (01) :213-221
[9]   Nonlinear Regression Models and Applications in Agricultural Research [J].
Archontoulis, Sotirios V. ;
Miguez, Fernando E. .
AGRONOMY JOURNAL, 2015, 107 (02) :786-798
[10]   Analysis of hyperspectral images for detection of drought stress and recovery in maize plants in a high-throughput phenotyping platform [J].
Asaari, Mohd Shahrimie Mohd ;
Mertens, Stien ;
Dhondt, Stijn ;
Inze, Dirk ;
Wuyts, Nathalie ;
Scheunders, Paul .
COMPUTERS AND ELECTRONICS IN AGRICULTURE, 2019, 162 :749-758