Quantifying the Impact of Climate Change and Forest Management on Swedish Forest Ecosystems Using the Dynamic Vegetation Model LPJ‐GUESS

Abstract Boreal and temperate forests are undergoing structural, compositional and functional changes in response to increasing temperatures, changes in precipitation, and rising CO2, but the extent of the changes in forests will also depend on current and future forest management. This study utiliz...

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Main Authors: John Bergkvist, Fredrik Lagergren, Md. Rafikul Islam, David Wårlind, Paul A. Miller, Maj‐Lena Finnander Linderson, Mats Lindeskog, Anna Maria Jönsson
Format: Article
Language:English
Published: Wiley 2025-01-01
Series:Earth's Future
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Online Access:https://doi.org/10.1029/2024EF004662
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author John Bergkvist
Fredrik Lagergren
Md. Rafikul Islam
David Wårlind
Paul A. Miller
Maj‐Lena Finnander Linderson
Mats Lindeskog
Anna Maria Jönsson
author_facet John Bergkvist
Fredrik Lagergren
Md. Rafikul Islam
David Wårlind
Paul A. Miller
Maj‐Lena Finnander Linderson
Mats Lindeskog
Anna Maria Jönsson
author_sort John Bergkvist
collection DOAJ
description Abstract Boreal and temperate forests are undergoing structural, compositional and functional changes in response to increasing temperatures, changes in precipitation, and rising CO2, but the extent of the changes in forests will also depend on current and future forest management. This study utilized the dynamic vegetation model LPJ‐GUESS enabled with forest management (version 4.1.2, rev11016) to simulate changes in forest ecosystem functioning and supply of ecosystem services in Sweden. We compared three alternative forest policy scenarios: Business As Usual, with no change in the proportion of forest types within landscapes; Adaptation and Resistance, with an increased area of mixed stands; and EU‐Policy, with a focus on conservation and reduced management intensity. LPJ‐GUESS was forced with climate data derived from an ensemble of three earth system models to study long‐term implications of a low (SSP1‐2.6), a high (SSP3‐7.0), and a very high (SSP5‐8.5) emissions scenario. Increases in net primary production varied between 4% and 8% in SSP1‐2.6, 21%–25% in SSP3‐7.0 and 25%–29% in SSP5‐8.5 across all three forest policy scenarios, when comparing 2081–2100 to 2001–2020. Increased net primary production was mediated by a higher soil nitrogen availability and increased water use efficiency in the higher emission scenarios SSP3‐7.0 and SSP5‐8.5. Soil carbon storage showed small but significant decreases in SSP3‐7.0 and in SSP5‐8.5. Our results highlight differences in the predisposition to storm damage among forest policy scenarios, which were most pronounced in southern Sweden, with increases of 61%–76% in Business‐As‐Usual, 4%–11% in Adaptation and Resistance, and decreases of 7%–12% in EU‐Policy when comparing 2081–2100 to 2001–2020.
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spelling doaj-art-51fbee258ceb45cb905ba436b2f1f1852025-01-28T15:40:38ZengWileyEarth's Future2328-42772025-01-01131n/an/a10.1029/2024EF004662Quantifying the Impact of Climate Change and Forest Management on Swedish Forest Ecosystems Using the Dynamic Vegetation Model LPJ‐GUESSJohn Bergkvist0Fredrik Lagergren1Md. Rafikul Islam2David Wårlind3Paul A. Miller4Maj‐Lena Finnander Linderson5Mats Lindeskog6Anna Maria Jönsson7Department of Physical Geography and Ecosystem Science Lund University Lund SwedenDepartment of Physical Geography and Ecosystem Science Lund University Lund SwedenCentre for Environmental and Climate Science Lund University Lund SwedenDepartment of Physical Geography and Ecosystem Science Lund University Lund SwedenDepartment of Physical Geography and Ecosystem Science Lund University Lund SwedenDepartment of Physical Geography and Ecosystem Science Lund University Lund SwedenDepartment of Physical Geography and Ecosystem Science Lund University Lund SwedenDepartment of Physical Geography and Ecosystem Science Lund University Lund SwedenAbstract Boreal and temperate forests are undergoing structural, compositional and functional changes in response to increasing temperatures, changes in precipitation, and rising CO2, but the extent of the changes in forests will also depend on current and future forest management. This study utilized the dynamic vegetation model LPJ‐GUESS enabled with forest management (version 4.1.2, rev11016) to simulate changes in forest ecosystem functioning and supply of ecosystem services in Sweden. We compared three alternative forest policy scenarios: Business As Usual, with no change in the proportion of forest types within landscapes; Adaptation and Resistance, with an increased area of mixed stands; and EU‐Policy, with a focus on conservation and reduced management intensity. LPJ‐GUESS was forced with climate data derived from an ensemble of three earth system models to study long‐term implications of a low (SSP1‐2.6), a high (SSP3‐7.0), and a very high (SSP5‐8.5) emissions scenario. Increases in net primary production varied between 4% and 8% in SSP1‐2.6, 21%–25% in SSP3‐7.0 and 25%–29% in SSP5‐8.5 across all three forest policy scenarios, when comparing 2081–2100 to 2001–2020. Increased net primary production was mediated by a higher soil nitrogen availability and increased water use efficiency in the higher emission scenarios SSP3‐7.0 and SSP5‐8.5. Soil carbon storage showed small but significant decreases in SSP3‐7.0 and in SSP5‐8.5. Our results highlight differences in the predisposition to storm damage among forest policy scenarios, which were most pronounced in southern Sweden, with increases of 61%–76% in Business‐As‐Usual, 4%–11% in Adaptation and Resistance, and decreases of 7%–12% in EU‐Policy when comparing 2081–2100 to 2001–2020.https://doi.org/10.1029/2024EF004662ecosystem servicesboreal forestdynamic vegetation modelnet primary productionforest managementSweden
spellingShingle John Bergkvist
Fredrik Lagergren
Md. Rafikul Islam
David Wårlind
Paul A. Miller
Maj‐Lena Finnander Linderson
Mats Lindeskog
Anna Maria Jönsson
Quantifying the Impact of Climate Change and Forest Management on Swedish Forest Ecosystems Using the Dynamic Vegetation Model LPJ‐GUESS
Earth's Future
ecosystem services
boreal forest
dynamic vegetation model
net primary production
forest management
Sweden
title Quantifying the Impact of Climate Change and Forest Management on Swedish Forest Ecosystems Using the Dynamic Vegetation Model LPJ‐GUESS
title_full Quantifying the Impact of Climate Change and Forest Management on Swedish Forest Ecosystems Using the Dynamic Vegetation Model LPJ‐GUESS
title_fullStr Quantifying the Impact of Climate Change and Forest Management on Swedish Forest Ecosystems Using the Dynamic Vegetation Model LPJ‐GUESS
title_full_unstemmed Quantifying the Impact of Climate Change and Forest Management on Swedish Forest Ecosystems Using the Dynamic Vegetation Model LPJ‐GUESS
title_short Quantifying the Impact of Climate Change and Forest Management on Swedish Forest Ecosystems Using the Dynamic Vegetation Model LPJ‐GUESS
title_sort quantifying the impact of climate change and forest management on swedish forest ecosystems using the dynamic vegetation model lpj guess
topic ecosystem services
boreal forest
dynamic vegetation model
net primary production
forest management
Sweden
url https://doi.org/10.1029/2024EF004662
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