Which is a better predictor of plant traits: temperature or precipitation?

QUESTION: Are plant traits more closely correlated with mean annual temperature, or with mean annual precipitation? LOCATION: Global. METHODS: We quantified the strength of the relationships between temperature and precipitation and 21 plant traits from 447,961 species‐site combinations worldwide. W...

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Published inJournal of vegetation science Vol. 25; no. 5; pp. 1167 - 1180
Main Authors Moles, Angela T, Perkins, Sarah E, Laffan, Shawn W, Flores‐Moreno, Habacuc, Awasthy, Monica, Tindall, Marianne L, Sack, Lawren, Pitman, Andy, Kattge, Jens, Aarssen, Lonnie W, Anand, Madhur, Bahn, Michael, Blonder, Benjamin, Cavender‐Bares, Jeannine, Cornelissen, J. Hans C, Cornwell, Will K, Díaz, Sandra, Dickie, John B, Freschet, Grégoire T, Griffiths, Joshua G, Gutierrez, Alvaro G, Hemmings, Frank A, Hickler, Thomas, Hitchcock, Timothy D, Keighery, Matthew, Kleyer, Michael, Kurokawa, Hiroko, Leishman, Michelle R, Liu, Kenwin, Niinemets, Ülo, Onipchenko, Vladimir, Onoda, Yusuke, Penuelas, Josep, Pillar, Valério D, Reich, Peter B, Shiodera, Satomi, Siefert, Andrew, Sosinski, Enio E., Jr, Soudzilovskaia, Nadejda A, Swaine, Emily K, Swenson, Nathan G, Bodegom, Peter M, Warman, Laura, Weiher, Evan, Wright, Ian J, Zhang, Hongxiang, Zobel, Martin, Bonser, Stephen P, Helm, Aveliina
Format Journal Article Conference Proceeding
LanguageEnglish
Published Oxford Opulus Press 01.09.2014
Blackwell Publishing Ltd
Blackwell
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Abstract QUESTION: Are plant traits more closely correlated with mean annual temperature, or with mean annual precipitation? LOCATION: Global. METHODS: We quantified the strength of the relationships between temperature and precipitation and 21 plant traits from 447,961 species‐site combinations worldwide. We used meta‐analysis to provide an overall answer to our question. RESULTS: Mean annual temperature was significantly more strongly correlated with plant traits than was mean annual precipitation. CONCLUSIONS: Our study provides support for some of the assumptions of classical vegetation theory, and points to many interesting directions for future research. The relatively low R² values for precipitation might reflect the weak link between mean annual precipitation and the availability of water to plants.
AbstractList QUESTION: Are plant traits more closely correlated with mean annual temperature, or with mean annual precipitation? LOCATION: Global. METHODS: We quantified the strength of the relationships between temperature and precipitation and 21 plant traits from 447,961 species‐site combinations worldwide. We used meta‐analysis to provide an overall answer to our question. RESULTS: Mean annual temperature was significantly more strongly correlated with plant traits than was mean annual precipitation. CONCLUSIONS: Our study provides support for some of the assumptions of classical vegetation theory, and points to many interesting directions for future research. The relatively low R² values for precipitation might reflect the weak link between mean annual precipitation and the availability of water to plants.
Question Are plant traits more closely correlated with mean annual temperature, or with mean annual precipitation? Location Global. Methods We quantified the strength of the relationships between temperature and precipitation and 21 plant traits from 447,961 species-site combinations worldwide. We used meta-analysis to provide an overall answer to our question. Results Mean annual temperature was significantly more strongly correlated with plant traits than was mean annual precipitation. Conclusions Our study provides support for some of the assumptions of classical vegetation theory, and points to many interesting directions for future research. The relatively low R super(2) values for precipitation might reflect the weak link between mean annual precipitation and the availability of water to plants. We assembled a database including 21 plant traits from 447 961 species-site combinations worldwide. We found that mean annual temperature was significantly more strongly correlated with plant traits than was mean annual precipitation. The relatively low R super(2) values for precipitation might reflect the weak link between mean annual precipitation and the availability of water to plants.
Question Are plant traits more closely correlated with mean annual temperature, or with mean annual precipitation? Location Global. Methods We quantified the strength of the relationships between temperature and precipitation and 21 plant traits from 447,961 species‐site combinations worldwide. We used meta‐analysis to provide an overall answer to our question. Results Mean annual temperature was significantly more strongly correlated with plant traits than was mean annual precipitation. Conclusions Our study provides support for some of the assumptions of classical vegetation theory, and points to many interesting directions for future research. The relatively low R2 values for precipitation might reflect the weak link between mean annual precipitation and the availability of water to plants. We assembled a database including 21 plant traits from 447 961 species‐site combinations worldwide. We found that mean annual temperature was significantly more strongly correlated with plant traits than was mean annual precipitation. The relatively low R2 values for precipitation might reflect the weak link between mean annual precipitation and the availability of water to plants.
Question: Are plant traits more closely correlated with mean annual temperature, or with mean annual precipitation? Location: Global. Methods: We quantified the strength of the relationships between temperature and precipitation and 21 plant traits from 447,961 species-site combinations worldwide. We used meta-analysis to provide an overall answer to our question. Results: Mean annual temperature was significantly more strongly correlated with plant traits than was mean annual precipitation. Conclusions: Our study provides support for some of the assumptions of classical vegetation theory, and points to many interesting directions for future research. The relatively low R 2 values for precipitation might reflect the weak link between mean annual precipitation and the availability of water to plants.
Author Bahn, Michael
Hickler, Thomas
Liu, Kenwin
Leishman, Michelle R
Wright, Ian J
Gutierrez, Alvaro G
Kleyer, Michael
Hemmings, Frank A
Shiodera, Satomi
Aarssen, Lonnie W
Pitman, Andy
Bodegom, Peter M
Dickie, John B
Onoda, Yusuke
Kurokawa, Hiroko
Helm, Aveliina
Reich, Peter B
Anand, Madhur
Flores‐Moreno, Habacuc
Warman, Laura
Hitchcock, Timothy D
Zobel, Martin
Awasthy, Monica
Swaine, Emily K
Kattge, Jens
Cornelissen, J. Hans C
Laffan, Shawn W
Swenson, Nathan G
Cornwell, Will K
Freschet, Grégoire T
Sack, Lawren
Siefert, Andrew
Niinemets, Ülo
Penuelas, Josep
Soudzilovskaia, Nadejda A
Blonder, Benjamin
Griffiths, Joshua G
Keighery, Matthew
Díaz, Sandra
Perkins, Sarah E
Moles, Angela T
Onipchenko, Vladimir
Weiher, Evan
Bonser, Stephen P
Cavender‐Bares, Jeannine
Tindall, Marianne L
Sosinski, Enio E., Jr
Pillar, Valério D
Zhang, Hongxiang
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Issue 5
Keywords Climate
Temperature
Predictor
Functional trait
Dispersal syndrome
Compound leaves
Spinescence
Plant
Precipitation
Seed mass
Nitrogen fixation
Plant sciences
Specific leaf area
Plant height
Mass surface
Leaf life span
Photosynthetic pathway
Plant ecology
Plant leaf
Longevity
Plant life span
Syndrome
Functionality
Functional traits
Photosynthesis
Language English
License http://onlinelibrary.wiley.com/termsAndConditions#vor
CC BY 4.0
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MeetingName Vegetation Patterns and their Underlying Processes
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UK Department of Environment, Food and Rural Affairs
Consolider-Ingenio Montes - No. CSD2008-00040
European Commission through the European Regional Fund
UWEC-ORSP
European Regional Development Fund - No. IUT 20-28
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US National Science Foundation Long-Term Ecological Research Program
Appendix S1. List of TRY data sets used.Appendix S2. Error checking procedures.Appendix S3. Figures showing raw data and relationships between each trait and each climate variable.
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PublicationTitle Journal of vegetation science
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2011; 116
2011b; 191
2007; 189
2004; 164
2010; 13
2002; 153
1994; 372
2000; 88
2013; 61
2010; 188
2008; 34
2008; 105
1972
2006; 170
1970
2012; 15
2012; 14
1965; 16
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2003; 311
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1978
2001; 149
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2004; 31
2006; 20
2010; 24
2009; 97
2009; 90
2007; 175
2007; 8
2008; 24
2013; 198
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1994; 70
2010; 5
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2012; 21
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1902
1998; 14
2009; 18
1992; 40
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2007; 202
2007; 18
1995; 9
2010; 33
2010a; 91
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1960; 14
2010a; 98
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2009; 182
2013; 506
2010a; 16
2013; 101
1998
1953; 4
1999; 22
1994
2007; 94
2004; 428
2007; 10
2007; 99
1998; 134
1999
2007; 16
2009; 79
2005; 360
2006; 185
1996; 84
2009; 183
2001; 38
2005; 93
2005; 16
2012; 117
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1965; 53
2009; 40
2013; 22
2009; 160
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2003; 17
1999; 124
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2011; 17
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2000
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1999; 10
2003; 84
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2006; 273
1981; 69
1999; 143
2008
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2007
2005
2008; 11
2008; 96
1999; 144
2002
1993; 142
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2001; 82
2013; 36
2014; 506
2004; 18
2006; 87
2004; 15
2001; 8
1947; 105
2008; 89
2009; 6
2013
2010; 91
2012; 5
1963; 17
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Snippet QUESTION: Are plant traits more closely correlated with mean annual temperature, or with mean annual precipitation? LOCATION: Global. METHODS: We quantified...
Question: Are plant traits more closely correlated with mean annual temperature, or with mean annual precipitation? Location: Global. Methods: We quantified...
Question Are plant traits more closely correlated with mean annual temperature, or with mean annual precipitation? Location Global. Methods We quantified the...
Question Are plant traits more closely correlated with mean annual temperature, or with mean annual precipitation? Location Global. Methods We quantified the...
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SubjectTerms Animal and plant ecology
Animal, plant and microbial ecology
Annual plants
atmospheric precipitation
Biological and medical sciences
Climate
compound leaves
dispersal syndrome
Ecological genetics
Forest ecology
functional traits
Fundamental and applied biological sciences. Psychology
leaf life span
Moles
nitrogen fixation
photosynthetic pathway
plant available water
Plant ecology
plant height
plant life span
Plants
Precipitation
seed mass
SPECIAL FEATURE: VEGETATION PATTERNS AND THEIR UNDERLYING PROCESSES
specific leaf area
spinescence
Synecology
temperature
Vascular plants
Vegetation
Title Which is a better predictor of plant traits: temperature or precipitation?
URI https://api.istex.fr/ark:/67375/WNG-M4JBFRQ3-D/fulltext.pdf
https://www.jstor.org/stable/24035706
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fjvs.12190
https://www.proquest.com/docview/1560137444
https://www.proquest.com/docview/1663569549
Volume 25
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