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I. Kaplan, R. Halitschke, A. Kessler, S. Sardanelli, R. Denno (2008)
Constitutive and induced defenses to herbivory in above- and belowground plant tissues.Ecology, 89 2
E. Haukioja, V. Ossipov, K. Lempa (2002)
Interactive effects of leaf maturation and phenolics on consumption and growth of a geometrid mothEntomologia Experimentalis et Applicata, 104
M. Goverde, A. Erhardt, J. Stöcklin (2004)
Genotype-specific response of a lycaenid herbivore to elevated carbon dioxide and phosphorus availability in calcareous grasslandOecologia, 139
Ossipov, Haukioja, Ossipova, Hanhimäki, Pihlaja (2001)
Phenolic and phenolic-related factors as determinants of suitability of mountain birch leaves to an herbivorous insect.Biochemical systematics and ecology, 29 3
P. Raymer (2002)
Canola: an emerging oilseed crop.
J. Janick, A. Whipkey (2002)
Trends in new crops and new uses
R. Lindroth (2010)
Impacts of Elevated Atmospheric CO2 and O3 on Forests: Phytochemistry, Trophic Interactions, and Ecosystem DynamicsJournal of Chemical Ecology, 36
J. Peñuelas, M. Estiarte, J. Llusià (1997)
Carbon-based Secondary Compounds at Elevated CO2Photosynthetica, 33
D. Karowe (1989)
Differential effect of tannic acid on two tree-feeding Lepidoptera: implications for theories of plant anti-herbivore chemistryOecologia, 80
Yong-gen Lou, I. Baldwin (2004)
Nitrogen Supply Influences Herbivore-Induced Direct and Indirect Defenses and Transcriptional Responses in Nicotiana attenuata[w]Plant Physiology, 135
S. Hartley, Clive Jones, G. Couper, T. Jones (2000)
Biosynthesis of plant phenolic compounds in elevated atmospheric CO2Global Change Biology, 6
R. Littell, P. Henry, C. Ammerman (1998)
Statistical analysis of repeated measures data using SAS procedures.Journal of animal science, 76 4
P. Stiling, T. Cornelissen (2007)
How does elevated carbon dioxide (CO2) affect plant–herbivore interactions? A field experiment and meta‐analysis of CO2‐mediated changes on plant chemistry and herbivore performanceGlobal Change Biology, 13
(2000)
The SAS system for windows version 8e
E. Zvereva, M. Kozlov (2006)
Consequences of simultaneous elevation of carbon dioxide and temperature for plant–herbivore interactions: a metaanalysisGlobal Change Biology, 12
Bridget O’Neill, A. Zangerl, O. Dermody, Damla Bilgin, C. Casteel, J. Zavala, E. DeLucia, M. Berenbaum (2010)
Impact of Elevated Levels of Atmospheric CO2 and Herbivory on Flavonoids of Soybean (Glycine max Linnaeus)Journal of Chemical Ecology, 36
E. Paoletti, G. Seufert, G. Rocca, H. Thomsen (2007)
Photosynthetic responses to elevated CO(2) and O(3) in Quercus ilex leaves at a natural CO(2) spring.Environmental pollution, 147 3
J. Lake, R. Wade (2009)
Plant–pathogen interactions and elevated CO2: morphological changes in favour of pathogensJournal of Experimental Botany, 60
D. Karowe, D. Seimens, T. Mitchell-Olds (1997)
Species-Specific Response of Glucosinolate Content to Elevated Atmospheric CO2Journal of Chemical Ecology, 23
J. Lau, J. Strengbom, Laurie Stone, P. Reich, P. Tiffin (2008)
Direct and indirect effects of CO2, nitrogen, and community diversity on plant-enemy interactions.Ecology, 89 1
A. Rossi, P. Stiling, Daniel Moon, Maria Cattell, B. Drake (2004)
Induced Defensive Response of Myrtle Oak to Foliar Insect Herbivory in Ambient and Elevated Co2Journal of Chemical Ecology, 30
S. Pritchard, H. Rogers, S. Prior, C. Peterson (1999)
Elevated CO2 and plant structure: a reviewGlobal Change Biology, 5
M. Marks (1997)
MOLECULAR GENETIC ANALYSIS OF TRICHOME DEVELOPMENT IN ARABIDOPSIS.Annual review of plant physiology and plant molecular biology, 48
A Bazin, M Goverde, A Erhardt, J Shykoff (2002)
Influence of atmospheric CO2 enrichment on induced defense and growth compensation after herbivore damage in Lotus corniculatusEcol. Entomol., 27
A. Ghasemzadeh, H. Jaafar, A. Rahmat (2010)
Elevated Carbon Dioxide Increases Contents of Flavonoids and Phenolic Compounds, and Antioxidant Activities in Malaysian Young Ginger (Zingiber officinale Roscoe.) VarietiesMolecules, 15
A. Simmons, G. Gurr (2005)
Trichomes of Lycopersicon species and their hybrids: effects on pests and natural enemiesAgricultural and Forest Entomology, 7
J. Agrell, P. Anderson, W. Oleszek, A. Stochmal, Cecilia Agrell (2004)
Combined Effects of Elevated Co2 and Herbivore Damage on Alfalfa and CottonJournal of Chemical Ecology, 30
S. Roth, R. Lindroth, J. Volin, E. Kruger (1998)
Enriched atmospheric CO2 and defoliation: effects on tree chemistry and insect performanceGlobal Change Biology, 4
M. Bidart-Bouzat, R. Mithen, M. Berenbaum (2005)
Elevated CO2 influences herbivory-induced defense responses of Arabidopsis thalianaOecologia, 145
P. Reymond, H. Weber, Martine Damond, E. Farmer (2000)
Differential Gene Expression in Response to Mechanical Wounding and Insect Feeding in ArabidopsisPlant Cell, 12
S. Ralph, Hesther Yueh, M. Friedmann, Dana Aeschliman, Jeffrey Zeznik, Colleen Nelson, Y. Butterfield, R. Kirkpatrick, Jerry Liu, Steven Jones, M. Marra, C. Douglas, K. Ritland, J. Bohlmann (2006)
Conifer defence against insects: microarray gene expression profiling of Sitka spruce (Picea sitchensis) induced by mechanical wounding or feeding by spruce budworms (Choristoneura occidentalis) or white pine weevils (Pissodes strobi) reveals large-scale changes of the host transcriptome.Plant, cell & environment, 29 8
Sanna Haviola, L. Kapari, V. Ossipov, M. Rantala, T. Ruuhola, E. Haukioja (2007)
Foliar Phenolics are Differently Associated with Epirrita autumnata Growth and ImmunocompetenceJournal of Chemical Ecology, 33
R. Alley, T. Berntsen, N. Bindoff, Zhenlin Chen, A. Chidthaisong, P. Friedlingstein, J. Gregory, G. Hegerl, M. Heimann, B. Hewitson, B. Hoskins, F. Joos, J. Jouzel, V. Kattsov, U. Lohmann, M. Manning, T. Matsuno, M. Molina, N. Nicholls, J. Overpeck, D. Qin, G. Raga, V. Ramaswamy, Jiawen Ren, M. Rusticucci, S. Solomon, R. Somerville, T. Stocker, P. Stott, R. Stouffer, P. Whetton, R. Wood, D. Wratt, J. Arblaster, G. Brasseur, J. Christensen, K. Denman, D. Fahey, P. Forster, E. Jansen, P. Jones, R. Knutti, H. Treut, P. Lemke, G. Meehl, P. Mote, D. Randall, D. Stone, K. Trenberth, J. Willebrand, F. Zwiers (2007)
Climate Change 2007: The Physical Science Basis
J. Riikonen, K. Percy, M. Kivimäenpää, M. Kubiske, N. Nelson, E. Vapaavuori, D. Karnosky (2010)
Leaf size and surface characteristics of Betula papyrifera exposed to elevated CO2 and O3.Environmental pollution, 158 4
M. Traw, T. Dawson (2002)
Reduced Performance of Two Specialist Herbivores (Lepidoptera: Pieridae, Coleoptera: Chrysomelidae) on New Leaves of Damaged Black Mustard Plants, 31
J. Plett, Olivia Wilkins, M. Campbell, S. Ralph, S. Regan (2010)
Endogenous overexpression of Populus MYB186 increases trichome density, improves insect pest resistance, and impacts plant growth.The Plant journal : for cell and molecular biology, 64 3
R. Karban, I. Baldwin (1997)
Induced Responses to Herbivory
N. Tuchman, Kirk Wahtera, R. Wetzel, Nicole Russo, Grace Kilbane, Lisa Sasso, J. Teeri (2003)
Nutritional quality of leaf detritus altered by elevated atmospheric CO2: effects on development of mosquito larvaeFreshwater Biology, 48
J. Pearl (2001)
Direct and Indirect EffectsProbabilistic and Causal Inference
S. Gayler, T. Grams, W. Heller, D. Treutter, E. Priesack (2007)
A dynamical model of environmental effects on allocation to carbon-based secondary compounds in juvenile trees.Annals of botany, 101 8
A. Bazin, M. Goverde, A. Erhardt, J. Shykoff (2002)
Influence of atmospheric carbon dioxide enrichment on induced response and growth compensation after herbivore damage in Lotus corniculatusEcological Entomology, 27
D. Karowe (2007)
Are legume‐feeding herbivores buffered against direct effects of elevated carbon dioxide on host plants? A test with the sulfur butterfly, Colias philodiceGlobal Change Biology, 13
R Alley, T Berntsen, N Bindoff, Z Chen, A Chidthaisong, P Friedlingstein, J Gregory, G Hegerl, M Heimann, B Hewitson, B Hoskins, F Joos, J Jouzel, V Kattsov, U Lohmann, M Manning, T Matsuno, M Molina, N Nicholls, J Overpeck, D Qin, G Raga, V Ramaswamy, J Ren, M Rusticucci, S Solomon, R Somerville, T Stocker, P Stott, R Stouffer, P Whetton, R Wood, D Wratt (2007)
The physical science basis, summary for policymakers
W. Landman (2010)
Climate change 2007: the physical science basisSouth African Geographical Journal, 92
G. Howe, G. Jander (2008)
Plant immunity to insect herbivores.Annual review of plant biology, 59
J. Zavala, C. Casteel, E. DeLucia, M. Berenbaum (2008)
Anthropogenic increase in carbon dioxide compromises plant defense against invasive insectsProceedings of the National Academy of Sciences, 105
K. Boege, R. Marquis (2005)
Facing herbivory as you grow up: the ontogeny of resistance in plants.Trends in ecology & evolution, 20 8
Richard Musser, E. Farmer, M. Peiffer, Spencer Williams, G. Felton (2006)
Ablation of Caterpillar Labial Salivary Glands: Technique for Determining the Role of Saliva in Insect–Plant InteractionsJournal of Chemical Ecology, 32
M. Cotrufo, P. Ineson, A. Scott (1998)
Elevated CO2 reduces the nitrogen concentration of plant tissuesGlobal Change Biology, 4
R. Vannette, M. Hunter (2011)
Genetic variation in expression of defense phenotype may mediate evolutionary adaptation of Asclepias syriaca to elevated CO2Global Change Biology, 17
R. Lindroth, K. Kinney (1998)
Consequences of Enriched Atmospheric CO2 and Defoliation for Foliar Chemistry and Gypsy Moth PerformanceJournal of Chemical Ecology, 24
Increasing global atmospheric CO2 has been shown to affect important plant traits, including constitutive levels of defensive compounds. However, little is known about the effects of elevated CO2 on the inducibility of chemical defenses or on plant mechanical defenses. We grew Brassica rapa (oilseed rape) under ambient and elevated CO2 to determine the effects of elevated CO2 on constitutive levels and inducibility of carbon-based phenolic compounds, and on constitutive trichome densities. Trichome density increased by 57% under elevated CO2. Constitutive levels of simple, complex, and total phenolics also increased under elevated CO2, but inducibility of each decreased. Induction of simple phenolics occurred only under ambient CO2. Although induction of complex and total phenolics occurred under both ambient and elevated CO2, the damage-induced increases were 64% and 75% smaller, respectively, under elevated CO2. Constitutive phenolic levels were positively correlated with leaf C:N ratio, and inducibility was positively correlated with leaf N and negatively correlated with leaf C:N ratio, as would be expected if inducibility were constrained by nitrogen availability under elevated CO2. We conclude that B. rapa is likely to exhibit higher constitutive levels of both chemical and mechanical defenses in the future, but is also likely to be less able to respond to herbivore damage by inducing phenolic defenses. To our knowledge, this is only the second study to report a negative effect of elevated CO2 on the inducibility of any plant defense.
Journal of Chemical Ecology – Springer Journals
Published: Dec 15, 2011
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