Linking drought legacy effects across scales: From leaves to tree rings to ecosystems

Severe drought can cause lagged effects on tree physiology that negatively impact forest functioning for years. These “drought legacy effects” have been widely documented in tree‐ring records and could have important implications for our understanding of broader scale forest carbon cycling. However,...

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Veröffentlicht in:Global change biology 2019-09, Vol.25 (9), p.2978-2992
Hauptverfasser: Kannenberg, Steven A., Novick, Kimberly A., Alexander, M. Ross, Maxwell, Justin T., Moore, David J. P., Phillips, Richard P., Anderegg, William R. L.
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container_end_page 2992
container_issue 9
container_start_page 2978
container_title Global change biology
container_volume 25
creator Kannenberg, Steven A.
Novick, Kimberly A.
Alexander, M. Ross
Maxwell, Justin T.
Moore, David J. P.
Phillips, Richard P.
Anderegg, William R. L.
description Severe drought can cause lagged effects on tree physiology that negatively impact forest functioning for years. These “drought legacy effects” have been widely documented in tree‐ring records and could have important implications for our understanding of broader scale forest carbon cycling. However, legacy effects in tree‐ring increments may be decoupled from ecosystem fluxes due to (a) postdrought alterations in carbon allocation patterns; (b) temporal asynchrony between radial growth and carbon uptake; and (c) dendrochronological sampling biases. In order to link legacy effects from tree rings to whole forests, we leveraged a rich dataset from a Midwestern US forest that was severely impacted by a drought in 2012. At this site, we compiled tree‐ring records, leaf‐level gas exchange, eddy flux measurements, dendrometer band data, and satellite remote sensing estimates of greenness and leaf area before, during, and after the 2012 drought. After accounting for the relative abundance of tree species in the stand, we estimate that legacy effects led to ~10% reductions in tree‐ring width increments in the year following the severe drought. Despite this stand‐scale reduction in radial growth, we found that leaf‐level photosynthesis, gross primary productivity (GPP), and vegetation greenness were not suppressed in the year following the 2012 drought. Neither temporal asynchrony between radial growth and carbon uptake nor sampling biases could explain our observations of legacy effects in tree rings but not in GPP. Instead, elevated leaf‐level photosynthesis co‐occurred with reduced leaf area in early 2013, indicating that resources may have been allocated away from radial growth in conjunction with postdrought upregulation of photosynthesis and repair of canopy damage. Collectively, our results indicate that tree‐ring legacy effects were not observed in other canopy processes, and that postdrought canopy allocation could be an important mechanism that decouples tree‐ring signals from GPP. Legacy effects in tree rings were large in response to a severe drought in a temperate forest. Despite this postdrought suppression of tree growth, ecosystem fluxes were not affected, likely due to dynamic C allocation away from stem growth towards the canopy.
doi_str_mv 10.1111/gcb.14710
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In order to link legacy effects from tree rings to whole forests, we leveraged a rich dataset from a Midwestern US forest that was severely impacted by a drought in 2012. At this site, we compiled tree‐ring records, leaf‐level gas exchange, eddy flux measurements, dendrometer band data, and satellite remote sensing estimates of greenness and leaf area before, during, and after the 2012 drought. After accounting for the relative abundance of tree species in the stand, we estimate that legacy effects led to ~10% reductions in tree‐ring width increments in the year following the severe drought. Despite this stand‐scale reduction in radial growth, we found that leaf‐level photosynthesis, gross primary productivity (GPP), and vegetation greenness were not suppressed in the year following the 2012 drought. Neither temporal asynchrony between radial growth and carbon uptake nor sampling biases could explain our observations of legacy effects in tree rings but not in GPP. 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L.</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>Linking drought legacy effects across scales: From leaves to tree rings to ecosystems</atitle><jtitle>Global change biology</jtitle><addtitle>Glob Chang Biol</addtitle><date>2019-09</date><risdate>2019</risdate><volume>25</volume><issue>9</issue><spage>2978</spage><epage>2992</epage><pages>2978-2992</pages><issn>1354-1013</issn><eissn>1365-2486</eissn><abstract>Severe drought can cause lagged effects on tree physiology that negatively impact forest functioning for years. These “drought legacy effects” have been widely documented in tree‐ring records and could have important implications for our understanding of broader scale forest carbon cycling. However, legacy effects in tree‐ring increments may be decoupled from ecosystem fluxes due to (a) postdrought alterations in carbon allocation patterns; (b) temporal asynchrony between radial growth and carbon uptake; and (c) dendrochronological sampling biases. In order to link legacy effects from tree rings to whole forests, we leveraged a rich dataset from a Midwestern US forest that was severely impacted by a drought in 2012. At this site, we compiled tree‐ring records, leaf‐level gas exchange, eddy flux measurements, dendrometer band data, and satellite remote sensing estimates of greenness and leaf area before, during, and after the 2012 drought. After accounting for the relative abundance of tree species in the stand, we estimate that legacy effects led to ~10% reductions in tree‐ring width increments in the year following the severe drought. Despite this stand‐scale reduction in radial growth, we found that leaf‐level photosynthesis, gross primary productivity (GPP), and vegetation greenness were not suppressed in the year following the 2012 drought. Neither temporal asynchrony between radial growth and carbon uptake nor sampling biases could explain our observations of legacy effects in tree rings but not in GPP. Instead, elevated leaf‐level photosynthesis co‐occurred with reduced leaf area in early 2013, indicating that resources may have been allocated away from radial growth in conjunction with postdrought upregulation of photosynthesis and repair of canopy damage. Collectively, our results indicate that tree‐ring legacy effects were not observed in other canopy processes, and that postdrought canopy allocation could be an important mechanism that decouples tree‐ring signals from GPP. Legacy effects in tree rings were large in response to a severe drought in a temperate forest. 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subjects Canopies
Canopy
Carbon
carbon allocation
Carbon cycle
Dendrochronology
dendroecology
Drought
drought recovery
Ecosystems
eddy covariance
Eddy flux
Environmental impact
Fluxes
Forests
Gas exchange
Growth
Herbivores
Leaf area
Leaves
Photosynthesis
Primary production
Records
Relative abundance
Remote sensing
Sampling
Satellites
Tree rings
Trees
Uptake
title Linking drought legacy effects across scales: From leaves to tree rings to ecosystems
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