Combined effects of ozone and drought stress on the emission of biogenic volatile organic compounds from Quercus robur  L

Drought events are expected to become more frequent with climate change. To predict the effect of plant emissions on air quality and potential feedback effects on climate, the study of biogenic volatile organic compound emissions under stress is of great importance. Trees can often be subject to a c...

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Published inBiogeosciences Vol. 18; no. 2; pp. 535 - 556
Main Authors Peron, Arianna, Kaser, Lisa, Fitzky, Anne Charlott, Graus, Martin, Halbwirth, Heidi, Greiner, Jürgen, Wohlfahrt, Georg, Rewald, Boris, Sandén, Hans, Karl, Thomas
Format Journal Article
LanguageEnglish
Published Katlenburg-Lindau Copernicus GmbH 22.01.2021
European Geosciences Union
Copernicus Publications
Subjects
Additives
Agricultural sciences
Air pollution
Air quality
Allelochemicals
Animal communication
Atmospheric models
Bioclimatology
Carbon
Climate change
Climate effects
Climate prediction
Drought
Droughts
Ecology, environment
Emissions
Feedback
Feedback loops
Fumigation
Global temperature changes
Isoprene
Isoprene emissions
Life Sciences
Metabolism
Organic compounds
Ozonation
Ozone
Physiological aspects
Plant stress
Quercus robur
Salicylic acid
Silviculture, forestry
Stomata
Trees
VOCs
Volatile compounds
Volatile organic compound emissions
Volatile organic compounds
Volatiles
Water potential
United Kingdom > UK
Europe
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Abstract Drought events are expected to become more frequent with climate change. To predict the effect of plant emissions on air quality and potential feedback effects on climate, the study of biogenic volatile organic compound emissions under stress is of great importance. Trees can often be subject to a combination of abiotic stresses, for example due to drought or ozone. Even though there is a large body of knowledge on individual stress factors, the effects of combined stressors are not much explored. This study aimed to investigate changes of biogenic volatile organic compound emissions and physiological parameters in Quercus robur L. during moderate to severe drought in combination with ozone stress. Results show that isoprene emissions decreased while monoterpene and sesquiterpene emissions increased during the progression of drought. We exposed plants with daily ozone concentrations of 100 ppb for 1 h for 7 d, which resulted in faster stomatal closure (e.g., a mean value of −31.3 % at an average stem water potential of −1 MPa), partially mitigating drought stress effects. Evidence of this was found in enhanced green leaf volatiles in trees without ozone fumigation, indicating cellular damage. In addition we observed an enhancement in (C8H8O3)H+ emissions likely corresponding to methyl-salicylate in trees with ozone treatment. Individual plant stress factors are not necessarily additive, and atmospheric models should implement stress feedback loops to study regional-scale effects.
AbstractList Drought events are expected to become more frequent with climate change. To predict the effect of plant emissions on air quality and potential feedback effects on climate, the study of biogenic volatile organic compound emissions under stress is of great importance. Trees can often be subject to a combination of abiotic stresses, for example due to drought or ozone. Even though there is a large body of knowledge on individual stress factors, the effects of combined stressors are not much explored. This study aimed to investigate changes of biogenic volatile organic compound emissions and physiological parameters in Quercus robur L. during moderate to severe drought in combination with ozone stress. Results show that isoprene emissions decreased while monoterpene and sesquiterpene emissions increased during the progression of drought. We exposed plants with daily ozone concentrations of 100 ppb for 1 h for 7 d, which resulted in faster stomatal closure (e.g., a mean value of -31.3 % at an average stem water potential of -1 MPa), partially mitigating drought stress effects. Evidence of this was found in enhanced green leaf volatiles in trees without ozone fumigation, indicating cellular damage. In addition we observed an enhancement in (C8H8O3)H+ emissions likely corresponding to methyl-salicylate in trees with ozone treatment. Individual plant stress factors are not necessarily additive, and atmospheric models should implement stress feedback loops to study regional-scale effects.
Drought events are expected to become more frequent with climate change. To predict the effect of plant emissions on air quality and potential feedback effects on climate, the study of biogenic volatile organic compound emissions under stress is of great importance. Trees can often be subject to a combination of abiotic stresses, for example due to drought or ozone. Even though there is a large body of knowledge on individual stress factors, the effects of combined stressors are not much explored. This study aimed to investigate changes of biogenic volatile organic compound emissions and physiological parameters in Quercus robur L. during moderate to severe drought in combination with ozone stress. Results show that isoprene emissions decreased while monoterpene and sesquiterpene emissions increased during the progression of drought. We exposed plants with daily ozone concentrations of 100 ppb for 1 h for 7 d, which resulted in faster stomatal closure (e.g., a mean value of -31.3 % at an average stem water potential of -1 MPa), partially mitigating drought stress effects. Evidence of this was found in enhanced green leaf volatiles in trees without ozone fumigation, indicating cellular damage. In addition we observed an enhancement in (C.sub.8 H.sub.8 O.sub.3 )H.sup.+ emissions likely corresponding to methyl-salicylate in trees with ozone treatment. Individual plant stress factors are not necessarily additive, and atmospheric models should implement stress feedback loops to study regional-scale effects.
Drought events are expected to become more frequent with climate change. To predict the effect of plant emissions on air quality and potential feedback effects on climate, the study of biogenic volatile organic compound emissions under stress is of great importance. Trees can often be subject to a combination of abiotic stresses, for example due to drought or ozone. Even though there is a large body of knowledge on individual stress factors, the effects of combined stressors are not much explored. This study aimed to investigate changes of biogenic volatile organic compound emissions and physiological parameters in Quercus robur L. during moderate to severe drought in combination with ozone stress. Results show that isoprene emissions decreased while monoterpene and sesquiterpene emissions increased during the progression of drought. We exposed plants with daily ozone concentrations of 100 ppb for 1 h for 7 d, which resulted in faster stomatal closure (e.g., a mean value of − 31.3 % at an average stem water potential of − 1 MPa), partially mitigating drought stress effects. Evidence of this was found in enhanced green leaf volatiles in trees without ozone fumigation, indicating cellular damage. In addition we observed an enhancement in (C 8 H 8 O 3 )H + emissions likely corresponding to methyl-salicylate in trees with ozone treatment. Individual plant stress factors are not necessarily additive, and atmospheric models should implement stress feedback loops to study regional-scale effects.
Drought events are expected to become more frequent with climate change. To predict the effect of plant emissions on air quality and potential feedback effects on climate, the study of biogenic volatile organic compound emissions under stress is of great importance. Trees can often be subject to a combination of abiotic stresses, for example due to drought or ozone. Even though there is a large body of knowledge on individual stress factors, the effects of combined stressors are not much explored. This study aimed to investigate changes of biogenic volatile organic compound emissions and physiological parameters in Quercus robur L. during moderate to severe drought in combination with ozone stress. Results show that isoprene emissions decreased while monoterpene and sesquiterpene emissions increased during the progression of drought. We exposed plants with daily ozone concentrations of 100 ppb for 1 h for 7 d, which resulted in faster stomatal closure (e.g., a mean value of −31.3 % at an average stem water potential of −1 MPa), partially mitigating drought stress effects. Evidence of this was found in enhanced green leaf volatiles in trees without ozone fumigation, indicating cellular damage. In addition we observed an enhancement in (C8H8O3)H+ emissions likely corresponding to methyl-salicylate in trees with ozone treatment. Individual plant stress factors are not necessarily additive, and atmospheric models should implement stress feedback loops to study regional-scale effects.
Drought events are expected to become more frequent with climate change. To predict the effect of plant emissions on air quality and potential feedback effects on climate, the study of biogenic volatile organic compound emissions under stress is of great importance. Trees can often be subject to a combination of abiotic stresses, for example due to drought or ozone. Even though there is a large body of knowledge on individual stress factors, the effects of combined stressors are not much explored. This study aimed to investigate changes of biogenic volatile organic compound emissions and physiological parameters in Quercus robur L. during moderate to severe drought in combination with ozone stress. Results show that isoprene emissions decreased while monoterpene and sesquiterpene emissions increased during the progression of drought. We exposed plants with daily ozone concentrations of 100 ppb for 1 h for 7 d, which resulted in faster stomatal closure (e.g., a mean value of −31.3 % at an average stem water potential of −1 MPa), partially mitigating drought stress effects. Evidence of this was found in enhanced green leaf volatiles in trees without ozone fumigation, indicating cellular damage. In addition we observed an enhancement in (C8H8O3)H+ emissions likely corresponding to methyl-salicylate in trees with ozone treatment. Individual plant stress factors are not necessarily additive, and atmospheric models should implement stress feedback loops to study regional-scale effects.
Audience Academic
Author Halbwirth, Heidi
Fitzky, Anne Charlott
Kaser, Lisa
Graus, Martin
Peron, Arianna
Sandén, Hans
Greiner, Jürgen
Wohlfahrt, Georg
Karl, Thomas
Rewald, Boris
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  fullname: Sandén, Hans
– sequence: 10
  givenname: Thomas
  orcidid: 0000-0003-2869-9426
  surname: Karl
  fullname: Karl, Thomas
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Snippet Drought events are expected to become more frequent with climate change. To predict the effect of plant emissions on air quality and potential feedback effects...
Drought events are expected to become more frequent with climate change. To predict the effect of plant emissions on air quality and potential feedback effects...
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StartPage 535
SubjectTerms Additives
Agricultural sciences
Air pollution
Air quality
Allelochemicals
Animal communication
Atmospheric models
Bioclimatology
Carbon
Climate change
Climate effects
Climate prediction
Drought
Droughts
Ecology, environment
Emissions
Feedback
Feedback loops
Fumigation
Global temperature changes
Isoprene
Isoprene emissions
Life Sciences
Metabolism
Organic compounds
Ozonation
Ozone
Physiological aspects
Plant stress
Quercus robur
Salicylic acid
Silviculture, forestry
Stomata
Trees
VOCs
Volatile compounds
Volatile organic compound emissions
Volatile organic compounds
Volatiles
Water potential
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Title Combined effects of ozone and drought stress on the emission of biogenic volatile organic compounds from Quercus robur  L
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