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 in | Journal of vegetation science Vol. 25; no. 5; pp. 1167 - 1180 |
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Main Authors | , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , |
Format | Journal Article Conference Proceeding |
Language | English |
Published |
Oxford
Opulus Press
01.09.2014
Blackwell Publishing Ltd Blackwell |
Subjects | |
Online Access | Get full text |
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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. |
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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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BackLink | http://pascal-francis.inist.fr/vibad/index.php?action=getRecordDetail&idt=28789975$$DView record in Pascal Francis |
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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 |
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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? |
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