TY  - JOUR
A1  - Maes, Sybryn L.
A1  - Perring, Michael P.
A1  - Vanhellemont, Margot
A1  - Depauw, Leen
A1  - Van den Bulcke, Jan
A1  - Brumelis, Guntis
A1  - Brunet, Jorg
A1  - Decocq, Guillaume
A1  - den Ouden, Jan
A1  - Härdtle, Werner
A1  - Hedl, Radim
A1  - Heinken, Thilo
A1  - Heinrichs, Steffi
A1  - Jaroszewicz, Bogdan
A1  - Kopecký, Martin
A1  - Malis, Frantisek
A1  - Wulf, Monika
A1  - Verheyen, Kris
T1  - Environmental drivers interactively affect individual tree growth across temperate European forests
T2  - Global change biology
N2  - Forecasting the growth of tree species to future environmental changes requires abetter understanding of its determinants. Tree growth is known to respond to global‐change drivers such as climate change or atmospheric deposition, as well as to localland‐use drivers such as forest management. Yet, large geographical scale studiesexamining interactive growth responses to multiple global‐change drivers are relativelyscarce and rarely consider management effects. Here, we assessed the interactiveeffects of three global‐change drivers (temperature, precipitation and nitrogen deposi-tion) on individual tree growth of three study species (Quercus robur/petraea, Fagus syl-vatica and Fraxinus excelsior). We sampled trees along spatial environmental gradientsacross Europe and accounted for the effects of management for Quercus. We collectedincrement cores from 267 trees distributed over 151 plots in 19 forest regions andcharacterized their neighbouring environment to take into account potentially confounding factors such as tree size, competition, soil conditions and elevation. Wedemonstrate that growth responds interactively to global‐change drivers, with species ‐specific sensitivities to the combined factors. Simultaneously high levels of precipita-tion and deposition benefited Fraxinus, but negatively affected Quercus’ growth, high-lighting species‐specific interactive tree growth responses to combined drivers. ForFagus, a stronger growth response to higher temperatures was found when precipita-tion was also higher, illustrating the potential negative effects of drought stress underwarming for this species. Furthermore, we show that past forest management canmodulate the effects of changing temperatures on Quercus’ growth; individuals in plotswith a coppicing history showed stronger growth responses to higher temperatures.Overall, our findings highlight how tree growth can be interactively determined by glo-bal‐change drivers, and how these growth responses might be modulated by past for-est management. By showing future growth changes for scenarios of environmentalchange, we stress the importance of considering multiple drivers, including past man-agement and their interactions, when predicting tree growth.
KW  - basal area increment
KW  - climate change
KW  - Fagus
KW  - Fraxinus
KW  - historical ecology
KW  - nitrogen deposition
KW  - Quercus
KW  - tree-ring analysis
Y1  - 2018
UR  - https://publishup.uni-potsdam.de/frontdoor/index/index/docId/50847
SN  - 1354-1013
SN  - 1365-2486
VL  - 25
IS  - 1
SP  - 201
EP  - 217
PB  - Wiley
CY  - Hoboken
ER  -