Martin Bader

Dr. Martin Bader


Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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13 June 2016 in Nature Climate Change
Verified
Journal Article
Closed access
PDF file
CSChristina Schädel
Christina Schädel
MBMartin Bader
Martin Bader
ESEdward A. G. Schuur
Edward A. G. Schuur
CBChristina Biasi
Christina Biasi
RBRosvel Bracho
Rosvel Bracho
KWKimberly P. Wickland
Kimberly P. Wickland

1 October 2014 in Ecological Applications
Verified
Journal Article
Closed access
SPS. M. Pawson
S. M. Pawson
MBMartin Bader
Martin Bader

25 July 2013 in Journal of Ecology
Verified
Journal Article
Open access
PDF file
MBMartin Bader
Martin Bader
SLS. Leuzinger
S. Leuzinger
SKS. G. Keel
S. G. Keel
RSRolf Siegwolf
Rolf Siegwolf
FHFrank Hagedorn
Frank Hagedorn
CKChristian Körner
Christian Körner
Summary: Rapidly increasing atmospheric CO2 is not only changing the climate system but may also affect the biosphere directly through stimulation of plant growth and ecosystem carbon and nutrient cycling. Although forest ecosystems play a critical role in the global carbon cycle, experimental information on forest responses to rising CO2 is scarce, due to the sheer size of trees. Here, we present a synthesis of the only study world‐wide where a diverse set of mature broadleaved trees growing in a natural forest has been exposed to future atmospheric CO2 levels (c. 550 ppm) by free‐air CO2 enrichment (FACE). We show that litter production, leaf traits and radial growth across the studied hardwood species remained unaffected by elevated CO2 over 8 years. CO2 enrichment reduced tree water consumption resulting in detectable soil moisture savings. Soil air CO2 and dissolved inorganic carbon both increased suggesting enhanced below‐ground activity. Carbon release to the rhizosphere and/or higher soil moisture primed nitrification and nitrate leaching under elevated CO2; however, the export of dissolved organic carbon remained unaltered. Synthesis. Our findings provide no evidence for carbon‐limitation in five central European hardwood trees at current ambient CO2 concentrations. The results of this long‐term study challenge the idea of a universal CO2 fertilization effect on forests, as commonly assumed in climate–carbon cycle models.

1 December 2011 in Agricultural and Forest Meteorology
Verified
Journal Article
Closed access
DSDaniel Scherrer
Daniel Scherrer
MBMartin Bader
Martin Bader
CKChristian Körner
Christian Körner

22 September 2015 in Global Change Biology
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Journal Article
Closed access
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SVSteven L. Voelker
Steven L. Voelker
JBJ. Renée Brooks
J. Renée Brooks
FMFrederick C. Meinzer
Frederick C. Meinzer
RARebecca Anderson
Rebecca Anderson
MBMartin Bader
Martin Bader
LWLisa Wingate
Lisa Wingate

1 November 2019 in Environmental Science & Policy
Verified
Journal Article
Closed access
PSPeter Scott
Peter Scott
MBMartin Bader
Martin Bader
TBTreena Burgess
Treena Burgess
GHGiles Hardy
Giles Hardy
NWNari Williams
Nari Williams