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Hydrogen peroxide sensor HPCA1 is an LRR receptor kinase in Arabidopsis 期刊论文
NATURE, 2020, 578 (7796) : 577-+
作者:  Bogomilov, M.;  Tsenov, R.;  Vankova-Kirilova, G.;  Song, Y. P.;  Tang, J. Y.;  Li, Z. H.;  Bertoni, R.;  Bonesini, M.;  Chignoli, F.;  Mazza, R.;  Palladino, V;  de Bari, A.;  Orestano, D.;  Tortora, L.;  Kuno, Y.;  Sakamoto, H.;  Sato, A.;  Ishimoto, S.;  Chung, M.;  Sung, C. K.;  Filthaut, F.;  Jokovic, D.;  Maletic, D.;  Savic, M.;  Jovancevic, N.;  Nikolov, J.;  Vretenar, M.;  Ramberger, S.;  Asfandiyarov, R.;  Blondel, A.;  Drielsma, F.;  Karadzhov, Y.;  Boyd, S.;  Greis, J. R.;  Lord, T.;  Pidcott, C.;  Taylor, I;  Charnley, G.;  Collomb, N.;  Dumbell, K.;  Gallagher, A.;  Grant, A.;  Griffiths, S.;  Hartnett, T.;  Martlew, B.;  Moss, A.;  Muir, A.;  Mullacrane, I;  Oates, A.;  Owens, P.;  Stokes, G.;  Warburton, P.;  White, C.;  Adams, D.;  Bayliss, V;  Boehm, J.;  Bradshaw, T. W.;  Brown, C.;  Courthold, M.;  Govans, J.;  Hills, M.;  Lagrange, J-B;  Macwaters, C.;  Nichols, A.;  Preece, R.;  Ricciardi, S.;  Rogers, C.;  Stanley, T.;  Tarrant, J.;  Tucker, M.;  Watson, S.;  Wilson, A.;  Bayes, R.;  Nugent, J. C.;  Soler, F. J. P.;  Chatzitheodoridis, G. T.;  Dick, A. J.;  Ronald, K.;  Whyte, C. G.;  Young, A. R.;  Gamet, R.;  Cooke, P.;  Blackmore, V. J.;  Colling, D.;  Dobbs, A.;  Dornan, P.;  Franchini, P.;  Hunt, C.;  Jurj, P. B.;  Kurup, A.;  Long, K.;  Martyniak, J.;  Middleton, S.;  Pasternak, J.;  Uchida, M. A.;  Cobb, J. H.;  Booth, C. N.;  Hodgson, P.;  Langlands, J.;  Overton, E.;  Pec, V;  Smith, P. J.;  Wilbur, S.;  Ellis, M.;  Gardener, R. B. S.;  Kyberd, P.;  Nebrensky, J. J.;  DeMello, A.;  Gourlay, S.;  Lambert, A.;  Li, D.;  Luo, T.;  Prestemon, S.;  Virostek, S.;  Palmer, M.;  Witte, H.;  Adey, D.;  Bross, A. D.;  Bowring, D.;  Liu, A.;  Neuffer, D.;  Popovic, M.;  Rubinov, P.;  Freemire, B.;  Hanlet, P.;  Kaplan, D. M.;  Mohayai, T. A.;  Rajaram, D.;  Snopok, P.;  Torun, Y.;  Cremaldi, L. M.;  Sanders, D. A.;  Summers, D. J.;  Coney, L. R.;  Hanson, G. G.;  Heidt, C.
收藏  |  浏览/下载:36/0  |  提交时间:2020/07/03

Hydrogen peroxide (H2O2) is a major reactive oxygen species in unicellular and multicellular organisms, and is produced extracellularly in response to external stresses and internal cues(1-4). H2O2 enters cells through aquaporin membrane proteins and covalently modifies cytoplasmic proteins to regulate signalling and cellular processes. However, whether sensors for H2O2 also exist on the cell surface remains unknown. In plant cells, H2O2 triggers an influx of Ca2+ ions, which is thought to be involved in H2O2 sensing and signalling. Here, by using forward genetic screens based on Ca2+ imaging, we isolated hydrogen-peroxide-induced Ca(2+)increases (hpca) mutants in Arabidopsis, and identified HPCA1 as a leucine-rich-repeat receptor kinase belonging to a previously uncharacterized subfamily that features two extra pairs of cysteine residues in the extracellular domain. HPCA1 is localized to the plasma membrane and is activated by H2O2 via covalent modification of extracellular cysteine residues, which leads to autophosphorylation of HPCA1. HPCA1 mediates H2O2-induced activation of Ca2+ channels in guard cells and is required for stomatal closure. Our findings help to identify how the perception of extracellular H2O2 is integrated with responses to various external stresses and internal cues in plants, and have implications for the design of crops with enhanced fitness.


HPCA1, a member of a previously uncharacterized subfamily of leucine-rich-repeat receptor-like kinases, is the hydrogen-peroxide sensor at the plasma membrane in Arabidopsis.


  
Comparing optimal and empirical stomatal conductance models for application in Earth system models 期刊论文
GLOBAL CHANGE BIOLOGY, 2018, 24 (12) : 5708-5723
作者:  Franks, Peter J.;  Bonan, Gordon B.;  Berry, Joseph A.;  Lombardozzi, Danica L.;  Holbrook, N. Michele;  Herold, Nicholas;  Oleson, Keith W.
收藏  |  浏览/下载:10/0  |  提交时间:2019/04/09
Ball-Berry model  canopy conductance  CLM  forest CO2 response  land surface model  scaling stomatal conductance  stomatal conductance model  
Carbon Dioxide Physiological Forcing Dominates Projected Eastern Amazonian Drying 期刊论文
GEOPHYSICAL RESEARCH LETTERS, 2018, 45 (6) : 2815-2825
作者:  Richardson, T. B.;  Forster, P. M.;  Andrews, T.;  Boucher, O.;  Faluvegi, G.;  Flaeschner, D.;  Kasoar, M.;  Kirkevag, A.;  Lamarque, J. -F.;  Myhre, G.;  Olivie, D.;  Samset, B. H.;  Shawki, D.;  Shindell, D.;  Takemura, T.;  Voulgarakis, A.
收藏  |  浏览/下载:10/0  |  提交时间:2019/04/09
precipitation  Amazon  physiological forcing  fast response  CO2 forcing  stomatal response  
A unifying explanation for variation in ozone sensitivity among woody plants 期刊论文
GLOBAL CHANGE BIOLOGY, 2018, 24 (1) : 78-84
作者:  Feng, Zhaozhong;  Buker, Patrick;  Pleijel, Hakan;  Emberson, Lisa;  Karlsson, Per Erik;  Uddling, Johan
收藏  |  浏览/下载:11/0  |  提交时间:2019/04/09
leaf mass per area  ozone flux-response relationships  ozone risk assessment  stomatal conductance  stomatal ozone uptake  woody species  
Duke FACE -- Forest-Atmosphere Carbon Transfer and Storage (FACTS I) 科技报告
来源:US Department of Energy (DOE). 出版年: 2016
作者:  Oren, Ram
收藏  |  浏览/下载:8/0  |  提交时间:2019/04/05
Carbon Sequestration  Climate Change  CO2 enrichment  Ecophysiology  Forest Growth  Gas Exchange  Respiration  Soil Processes  Species Responses  Stomatal Response  Transpiration  Understory  Water-use