The effect of tree mortality on CO2 fluxes in an old-growth spruce forest

Long-term (2009–2019) field studies of the CO 2 fluxes over the Valday upland in north-western European Russia were performed in an old-growth spruce-dominated forest subject to the combined effects of climate change, bark beetle attacks and windfall events. The annual carbon uptake within the study...

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Published inEuropean journal of forest research Vol. 140; no. 2; pp. 287 - 305
Main Authors Karelin, D. V., Zamolodchikov, D. G., Shilkin, A. V., Popov, S. Yu, Kumanyaev, A. S., de Gerenyu, V. O. Lopes, Tel’nova, N. O., Gitarskiy, Michael L.
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LanguageEnglish
Published Berlin/Heidelberg Springer Berlin Heidelberg 01.04.2021
Springer Nature B.V
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Abstract Long-term (2009–2019) field studies of the CO 2 fluxes over the Valday upland in north-western European Russia were performed in an old-growth spruce-dominated forest subject to the combined effects of climate change, bark beetle attacks and windfall events. The annual carbon uptake within the study area decreased from − 300 g C m −2  yr −1 in 2010–2011 to − 95 g C m −2  yr −1 in 2018 as a result of progressive tree mortality. However, mortality did not cause a significant reduction in specific ecosystem respiration. The respiration of the damaged forest was formed by efflux from soil (64.8%), living vegetation (15.5%), hotspots under dry standing trees (12.1%) and decomposition of woody debris (7.6%). High correlations between net ecosystem exchange and dry standing spruce stocks and average soil CO 2 efflux were found. The decrease in the carbon sink was followed by a decline in evapotranspiration from 0.0142 ± 0.0003 g H 2 O m −2  s −1 for May–October 2010 to 0.0116 ± 0.0002 g H 2 O m −2  s −1 in 2018. We assumed that the decrease in carbon uptake was due to both the reduction in primary tree production and the decrease in the area of the unaffected stands. Our estimates show that an increase in tree mortality up to 27% of a stand area could turn an old-growth spruce forest into a net source of CO 2 . This should be taken into account when considering human-induced and climate-related effects on boreal forests.
AbstractList Long-term (2009–2019) field studies of the CO2 fluxes over the Valday upland in north-western European Russia were performed in an old-growth spruce-dominated forest subject to the combined effects of climate change, bark beetle attacks and windfall events. The annual carbon uptake within the study area decreased from − 300 g C m−2 yr−1 in 2010–2011 to − 95 g C m−2 yr−1 in 2018 as a result of progressive tree mortality. However, mortality did not cause a significant reduction in specific ecosystem respiration. The respiration of the damaged forest was formed by efflux from soil (64.8%), living vegetation (15.5%), hotspots under dry standing trees (12.1%) and decomposition of woody debris (7.6%). High correlations between net ecosystem exchange and dry standing spruce stocks and average soil CO2 efflux were found. The decrease in the carbon sink was followed by a decline in evapotranspiration from 0.0142 ± 0.0003 g H2O m−2 s−1 for May–October 2010 to 0.0116 ± 0.0002 g H2O m−2 s−1 in 2018. We assumed that the decrease in carbon uptake was due to both the reduction in primary tree production and the decrease in the area of the unaffected stands. Our estimates show that an increase in tree mortality up to 27% of a stand area could turn an old-growth spruce forest into a net source of CO2. This should be taken into account when considering human-induced and climate-related effects on boreal forests.
Long-term (2009–2019) field studies of the CO₂ fluxes over the Valday upland in north-western European Russia were performed in an old-growth spruce-dominated forest subject to the combined effects of climate change, bark beetle attacks and windfall events. The annual carbon uptake within the study area decreased from − 300 g C m⁻² yr⁻¹ in 2010–2011 to − 95 g C m⁻² yr⁻¹ in 2018 as a result of progressive tree mortality. However, mortality did not cause a significant reduction in specific ecosystem respiration. The respiration of the damaged forest was formed by efflux from soil (64.8%), living vegetation (15.5%), hotspots under dry standing trees (12.1%) and decomposition of woody debris (7.6%). High correlations between net ecosystem exchange and dry standing spruce stocks and average soil CO₂ efflux were found. The decrease in the carbon sink was followed by a decline in evapotranspiration from 0.0142 ± 0.0003 g H₂O m⁻² s⁻¹ for May–October 2010 to 0.0116 ± 0.0002 g H₂O m⁻² s⁻¹ in 2018. We assumed that the decrease in carbon uptake was due to both the reduction in primary tree production and the decrease in the area of the unaffected stands. Our estimates show that an increase in tree mortality up to 27% of a stand area could turn an old-growth spruce forest into a net source of CO₂. This should be taken into account when considering human-induced and climate-related effects on boreal forests.
Long-term (2009–2019) field studies of the CO 2 fluxes over the Valday upland in north-western European Russia were performed in an old-growth spruce-dominated forest subject to the combined effects of climate change, bark beetle attacks and windfall events. The annual carbon uptake within the study area decreased from − 300 g C m −2  yr −1 in 2010–2011 to − 95 g C m −2  yr −1 in 2018 as a result of progressive tree mortality. However, mortality did not cause a significant reduction in specific ecosystem respiration. The respiration of the damaged forest was formed by efflux from soil (64.8%), living vegetation (15.5%), hotspots under dry standing trees (12.1%) and decomposition of woody debris (7.6%). High correlations between net ecosystem exchange and dry standing spruce stocks and average soil CO 2 efflux were found. The decrease in the carbon sink was followed by a decline in evapotranspiration from 0.0142 ± 0.0003 g H 2 O m −2  s −1 for May–October 2010 to 0.0116 ± 0.0002 g H 2 O m −2  s −1 in 2018. We assumed that the decrease in carbon uptake was due to both the reduction in primary tree production and the decrease in the area of the unaffected stands. Our estimates show that an increase in tree mortality up to 27% of a stand area could turn an old-growth spruce forest into a net source of CO 2 . This should be taken into account when considering human-induced and climate-related effects on boreal forests.
Author Tel’nova, N. O.
Gitarskiy, Michael L.
Zamolodchikov, D. G.
Karelin, D. V.
Shilkin, A. V.
de Gerenyu, V. O. Lopes
Kumanyaev, A. S.
Popov, S. Yu
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  surname: Shilkin
  fullname: Shilkin, A. V.
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  givenname: Michael L.
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  surname: Gitarskiy
  fullname: Gitarskiy, Michael L.
  email: m.gitarskiy@gmail.com
  organization: Dubna State University
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Keywords Debris decay
Net carbon flux
Soil respiration
CO
hotspots
Evapotranspiration
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Snippet Long-term (2009–2019) field studies of the CO 2 fluxes over the Valday upland in north-western European Russia were performed in an old-growth spruce-dominated...
Long-term (2009–2019) field studies of the CO2 fluxes over the Valday upland in north-western European Russia were performed in an old-growth spruce-dominated...
Long-term (2009–2019) field studies of the CO₂ fluxes over the Valday upland in north-western European Russia were performed in an old-growth spruce-dominated...
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StartPage 287
SubjectTerms Bark
bark beetles
Biomedical and Life Sciences
Boreal forests
Carbon
Carbon dioxide
Carbon sinks
Climate change
Climate effects
ecosystem respiration
Efflux
Evapotranspiration
Fluxes
Forestry
Forests
highlands
Human influences
Life Sciences
Mortality
net ecosystem exchange
Original Paper
Plant Ecology
Plant Sciences
Reduction
Respiration
Russia
soil
Soils
tree mortality
trees
windthrow
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Title The effect of tree mortality on CO2 fluxes in an old-growth spruce forest
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