Articles citing this paper
A lack of aerenchyma and high rates of radial oxygen loss from the root base contribute to the waterlogging intolerance of Brassica napus
L.A.C.J. Voesenek, W. Armstrong, G.M. Bögemann, T.D. Colmer and M.P. McDonald
26(1) pp.87 - 93
27 articles found in Crossref database.
The effect of waterlogging on yield and seed quality at the early flowering stage in Brassica napus L.
Xu Mingyue,
Ma Haiqing,
Zeng Liu,
Cheng Yong,
Lu Guangyuan,
Xu Jinsong,
Zhang Xuekun, Zou Xiling
Field Crops Research. 2015 180 p.238
Plant Roots (2006)
A barrier to radial oxygen loss enables wetland plants to grow under waterlogged conditions
Shiono Katsuhiro
Root Research. 2016 25(3). p.47
Growth, Phytochemicals, and Antioxidant Activity of Kale Grown under Different Nutrient-Solution Depths in Hydroponic
Tan Jiehui,
Jiang Haozhao,
Li Yamin,
He Rui,
Liu Kaizhe,
Chen Yongkang,
He Xinyang,
Liu Xiaojuan, Liu Houcheng
Horticulturae. 2023 9(1). p.53
Genetic Manipulation in Plants for Mitigation of Climate Change (2015)
Crescimento de espécies do gênero Brachiaria sob alagamento em casa de vegetação
Mattos Jorge Luiz Schirmer de,
Gomide José Alberto, Martinez y Huaman Carlos Alberto
Revista Brasileira de Zootecnia. 2005 34(3). p.765
Tolerance of three grain legume species to transient waterlogging
Malik Al Imran,
Ailewe Tadhamin Iskander, Erskine William
AoB PLANTS. 2015 7
High Sulfur (S) Supplementation Imparts Waterlogging Tolerance to Oilseed rape (Brassica napus L.) Through Upregulating S Metabolism and Antioxidant Pathways
Hussain Md Arif,
Naeem Asif,
Pitann Britta, Mühling Karl H.
Journal of Plant Growth Regulation. 2023 42(12). p.7591
Waterlogging of Winter Crops at Early and Late Stages: Impacts on Leaf Physiology, Growth and Yield
Ploschuk Rocío Antonella,
Miralles Daniel Julio,
Colmer Timothy David,
Ploschuk Edmundo Leonardo, Striker Gustavo Gabriel
Frontiers in Plant Science. 2018 9
Aerenchyma formation and radial O2 loss along adventitious roots of wheat with only the apical root portion exposed to O2 deficiency
MALIK A. I.,
COLMER T. D.,
LAMBERS H., SCHORTEMEYER M.
Plant, Cell & Environment. 2003 26(10). p.1713
Void space inside the developing seed of Brassica napus and the modelling of its function
Verboven Pieter,
Herremans Els,
Borisjuk Ljudmilla,
Helfen Lukas,
Ho Quang Tri,
Tschiersch Henning,
Fuchs Johannes,
Nicolaï Bart M., Rolletschek Hardy
New Phytologist. 2013 199(4). p.936
The Plant Family Brassicaceae (2020)
Root Endodermis and Exodermis: Structure, Function, and Responses to the Environment
Enstone Daryl E.,
Peterson Carol A., Ma Fengshan
Journal of Plant Growth Regulation. 2002 21(4). p.335
Two Brassica napus cultivars differ in gene expression, but not in their response to submergence
Wittig Philipp R.,
Ambros Stefanie,
Müller Jana T.,
Bammer Bettina,
Álvarez‐Cansino Leonor,
Konnerup Dennis,
Pedersen Ole, Mustroph Angelika
Physiologia Plantarum. 2021 171(3). p.400
Physical and molecular responses to flooding in Brassicaceae
Combs-Giroir Rachel, Gschwend Andrea R.
Environmental and Experimental Botany. 2024 219 p.105664
Low-Oxygen Stress in Plants (2014)
Sensitivity of chickpea and faba bean to root‐zone hypoxia, elevated ethylene, and carbon dioxide
Munir Rushna,
Konnerup Dennis,
Khan Hammad A.,
Siddique Kadambot H.M., Colmer Timothy D.
Plant, Cell & Environment. 2019 42(1). p.85
Melatonin Application at Different Doses Changes the Physiological Responses in Favor of Cabbage Seedlings (Brassica oleracea var. capitata) Against Flooding Stress
Can Hasan
Gesunde Pflanzen. 2023 75(6). p.2733
Submergence research using Rumex palustris as a model; looking back and going forward
Peeters Anton J.M.,
Cox Marjolein C.H.,
Benschop Joris J.,
Vreeburg Robert A.M.,
Bou Jordi, Voesenek Laurentius A.C.J.
Journal of Experimental Botany. 2002 53(368). p.391
Long‐distance transport of gases in plants: a perspective on internal aeration and radial oxygen loss from roots
COLMER T. D.
Plant, Cell & Environment. 2003 26(1). p.17
Transcriptional Response of Two Brassica napus Cultivars to Short-Term Hypoxia in the Root Zone
Ambros Stefanie,
Kotewitsch Mona,
Wittig Philipp R.,
Bammer Bettina, Mustroph Angelika
Frontiers in Plant Science. 2022 13
Aerenchyma formation in the rice stem and its promotion by H2O2
Steffens Bianka,
Geske Thomas, Sauter Margret
New Phytologist. 2011 190(2). p.369
Sensitivity of wetland methane emissions to model assumptions: application and model testing against site observations
Meng L.,
Hess P. G. M.,
Mahowald N. M.,
Yavitt J. B.,
Riley W. J.,
Subin Z. M.,
Lawrence D. M.,
Swenson S. C.,
Jauhiainen J., Fuka D. R.
Biogeosciences. 2012 9(7). p.2793
Waterlogging tolerance in barley is associated with faster aerenchyma formation in adventitious roots
Zhang Xuechen,
Shabala Sergey,
Koutoulis Anthony,
Shabala Lana,
Johnson Peter,
Hayes Dane,
Nichols David S., Zhou Meixue
Plant and Soil. 2015 394(1-2). p.355
A barrier to radial oxygen loss helps the root system cope with waterlogging-induced hypoxia
Ejiri Masato,
Fukao Takeshi,
Miyashita Tomoki, Shiono Katsuhiro
Breeding Science. 2021 71(1). p.40
Improvement in canola yield and growth indices and water-use efficiency with subsurface drainage in a humid climate
Asgari Ahmad,
Darzi-Naftchali Abdullah,
Nadi Mahdi, Saberali Seyed Farhad
Paddy and Water Environment. 2021 19(1). p.23
Response to water‐deficit following waterlogging varies among ecotypes of subterranean clover (Trifolium subterraneum ssp. yanninicum), a waterlogging‐tolerant annual pasture legume
Enkhbat Gereltsetseg,
Inukai Yoshiaki,
Nichols Phillip G. H.,
Pang Jiayin,
Erskine William,
Foster Kevin J., Ryan Megan H.
Annals of Applied Biology. 2023 183(3). p.287
