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Geographic range predicts photosynthetic and growth response to warming in co-occurring tree species
Authors
A Guisan
A Sakai
+28 more
AE Cahill
AR Hughes
C Loehle
C Peng
C Pucko
DF Grigal
DT Price
G Koehler
G-R Walther
GE Rehfeldt
GF Midgley
GR Strimbeck
JA Savage
LR Iverson
M Bakkenes
M Heinselman
MB Davis
N Fisichelli
PB Reich
RC Barbour
RHW Bradshaw
RL Rich
RM Burns
RM Burns
SK Friedman
W Thuiller
Y Messaoud
Z Ma
Publication date
1 January 2015
Publisher
'Springer Science and Business Media LLC'
Doi
Abstract
www.nature.comPopulations near the warm edge of species ranges may be particularly sensitive to climate change, but lack of empirical data on responses to warming represents a key gap in understanding future range dynamics. Herein we document the impacts of experimental warming on the performance of 11 boreal and temperate forest species that co-occur at the ecotone between these biomes in North America. We measured in situ net photosynthetic carbon gain and growth of >4,100 juvenile trees from local seed sources exposed to a chamberless warming experiment that used infrared heat lamps and soil heating cables to elevate temperatures by +3.4 °C above- and belowground for three growing seasons across 48 plots at two sites. In these ecologically realistic field settings, species growing nearest their warm range limit exhibited reductions in net photosynthesis and growth, whereas species near their cold range limit responded positively to warming. Differences among species in their three-year growth responses to warming parallel their photosynthetic responses to warming, suggesting that leaf-level responses may scale to whole-plant performance. These responses are consistent with the hypothesis, from observational data and models, that warming will reduce the competitive ability of currently dominant southern boreal species compared with locally rarer co-occurring species that dominate warmer neighbouring regions. © 2015 Macmillan Publishers Limited. All rights reserved
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