Articles citing this paper
Leaf structural responses to pre-industrial, current and elevated atmospheric [CO2] and temperature affect leaf function in Eucalyptus sideroxylon
Renee A. Smith A , James D. Lewis A B C , Oula Ghannoum A and David T. Tissue A
+ Author Affiliations
- Author Affiliations
A University of Western Sydney, Hawkesbury Institute for the Environment, Richmond, NSW 2753, Australia.
B Fordham University, Louis Calder Center - Biological Field Station and Department of Biological Sciences, Armonk, NY 10504, USA.
C Corresponding author. Email: jdlewis@fordham.edu
Functional Plant Biology 39(4) 285-296 https://doi.org/10.1071/FP11238
Submitted: 28 May 2011 Accepted: 16 January 2012 Published: 20 March 2012
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Alvares Clayton Alcarde,
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Barbour Margaret,
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AusTraits, a curated plant trait database for the Australian flora
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Gallagher Rachael,
Wenk Elizabeth H.,
Wright Ian J.,
Indiarto Dony,
Andrew Samuel C.,
Baxter Caitlan,
Lawson James,
Allen Stuart,
Fuchs Anne,
Monro Anna,
Kar Fonti,
Adams Mark A.,
Ahrens Collin W.,
Alfonzetti Matthew,
Angevin Tara,
Apgaua Deborah M. G.,
Arndt Stefan,
Atkin Owen K.,
Atkinson Joe,
Auld Tony,
Baker Andrew,
von Balthazar Maria,
Bean Anthony,
Blackman Chris J.,
Bloomfield Keith,
Bowman David M. J. S.,
Bragg Jason,
Brodribb Timothy J.,
Buckton Genevieve,
Burrows Geoff,
Caldwell Elizabeth,
Camac James,
Carpenter Raymond,
Catford Jane A.,
Cawthray Gregory R.,
Cernusak Lucas A.,
Chandler Gregory,
Chapman Alex R.,
Cheal David,
Cheesman Alexander W.,
Chen Si-Chong,
Choat Brendan,
Clinton Brook,
Clode Peta L.,
Coleman Helen,
Cornwell William K.,
Cosgrove Meredith,
Crisp Michael,
Cross Erika,
Crous Kristine Y.,
Cunningham Saul,
Curran Timothy,
Curtis Ellen,
Daws Matthew I.,
DeGabriel Jane L.,
Denton Matthew D.,
Dong Ning,
Du Pengzhen,
Duan Honglang,
Duncan David H.,
Duncan Richard P.,
Duretto Marco,
Dwyer John M.,
Edwards Cheryl,
Esperon-Rodriguez Manuel,
Evans John R.,
Everingham Susan E.,
Farrell Claire,
Firn Jennifer,
Fonseca Carlos Roberto,
French Ben J.,
Frood Doug,
Funk Jennifer L.,
Geange Sonya R.,
Ghannoum Oula,
Gleason Sean M.,
Gosper Carl R.,
Gray Emma,
Groom Philip K.,
Grootemaat Saskia,
Gross Caroline,
Guerin Greg,
Guja Lydia,
Hahs Amy K.,
Harrison Matthew Tom,
Hayes Patrick E.,
Henery Martin,
Hochuli Dieter,
Howell Jocelyn,
Huang Guomin,
Hughes Lesley,
Huisman John,
Ilic Jugoslav,
Jagdish Ashika,
Jin Daniel,
Jordan Gregory,
Jurado Enrique,
Kanowski John,
Kasel Sabine,
Kellermann Jürgen,
Kenny Belinda,
Kohout Michele,
Kooyman Robert M.,
Kotowska Martyna M.,
Lai Hao Ran,
Laliberté Etienne,
Lambers Hans,
Lamont Byron B.,
Lanfear Robert,
van Langevelde Frank,
Laughlin Daniel C.,
Laugier-Kitchener Bree-Anne,
Laurance Susan,
Lehmann Caroline E. R.,
Leigh Andrea,
Leishman Michelle R.,
Lenz Tanja,
Lepschi Brendan,
Lewis James D.,
Lim Felix,
Liu Udayangani,
Lord Janice,
Lusk Christopher H.,
Macinnis-Ng Cate,
McPherson Hannah,
Magallón Susana,
Manea Anthony,
López-Martinez Andrea,
Mayfield Margaret,
McCarthy James K.,
Meers Trevor,
van der Merwe Marlien,
Metcalfe Daniel J.,
Milberg Per,
Mokany Karel,
Moles Angela T.,
Moore Ben D.,
Moore Nicholas,
Morgan John W.,
Morris William,
Muir Annette,
Munroe Samantha,
Nicholson Áine,
Nicolle Dean,
Nicotra Adrienne B.,
Niinemets Ülo,
North Tom,
O’Reilly-Nugent Andrew,
O’Sullivan Odhran S.,
Oberle Brad,
Onoda Yusuke,
Ooi Mark K. J.,
Osborne Colin P.,
Paczkowska Grazyna,
Pekin Burak,
Guilherme Pereira Caio,
Pickering Catherine,
Pickup Melinda,
Pollock Laura J.,
Poot Pieter,
Powell Jeff R.,
Power Sally A.,
Prentice Iain Colin,
Prior Lynda,
Prober Suzanne M.,
Read Jennifer,
Reynolds Victoria,
Richards Anna E.,
Richardson Ben,
Roderick Michael L.,
Rosell Julieta A.,
Rossetto Maurizio,
Rye Barbara,
Rymer Paul D.,
Sams Michael A.,
Sanson Gordon,
Sauquet Hervé,
Schmidt Susanne,
Schönenberger Jürg,
Schulze Ernst-Detlef,
Sendall Kerrie,
Sinclair Steve,
Smith Benjamin,
Smith Renee,
Soper Fiona,
Sparrow Ben,
Standish Rachel J.,
Staples Timothy L.,
Stephens Ruby,
Szota Christopher,
Taseski Guy,
Tasker Elizabeth,
Thomas Freya,
Tissue David T.,
Tjoelker Mark G.,
Tng David Yue Phin,
de Tombeur Félix,
Tomlinson Kyle,
Turner Neil C.,
Veneklaas Erik J.,
Venn Susanna,
Vesk Peter,
Vlasveld Carolyn,
Vorontsova Maria S.,
Warren Charles A.,
Warwick Nigel,
Weerasinghe Lasantha K.,
Wells Jessie,
Westoby Mark,
White Matthew,
Williams Nicholas S. G.,
Wills Jarrah,
Wilson Peter G.,
Yates Colin,
Zanne Amy E.,
Zemunik Graham, Ziemińska Kasia
Scientific Data. 2021 8(1).
Visualized analysis of amino acids and organic acids in wheat caryopsis in response to multigenerational effects of elevated atmospheric CO2 concentration
Li Shuxin,
Jian Shulian,
Zhang Peng,
Wang Ling,
Hu Zhe,
Liu Fulai, Li Xiangnan
Environmental and Experimental Botany. 2023 207 p.105225
Structural basis for C4 photosynthesis without Kranz anatomy in leaves of the submerged freshwater plant Ottelia alismoides
Han Shijuan,
Maberly Stephen C,
Gontero Brigitte,
Xing Zhenfei,
Li Wei,
Jiang Hongsheng, Huang Wenmin
Annals of Botany. 2020 125(6). p.869
Increases in CO 2 from past low to future high levels result in “slower” strategies on the leaf economic spectrum
Temme Andries A.,
Liu Jin Chun,
van Hal Jurgen,
Cornwell Will K.,
Cornelissen Johannes (Hans) H.C., Aerts Rien
Perspectives in Plant Ecology, Evolution and Systematics. 2017 29 p.41
The Leaf: A Platform for Performing Photosynthesis (2018)
Early-growth results within a Eucalyptus globulus breeding population suggest limited scope for selection focused on CO2 responsiveness
Brookhouse Matthew Theodore,
Bush David,
Ivkovich Milos,
Busch Florian,
Farquhar Graham Douglas, Pinkard Elizabeth
Tree Genetics & Genomes. 2022 18(2).
Photosynthetic variation and responsiveness to CO2 in a widespread riparian tree
Dillon Shannon,
Quentin Audrey,
Ivković Milos,
Furbank Robert T.,
Pinkard Elizabeth, Struik Paul C.
PLOS ONE. 2018 13(1). p.e0189635