Distribution of biomass dynamics in relation to tree size in forests across the world
Summary Tree size shapes forest carbon dynamics and determines how trees interact with their environment, including a changing climate. Here, we conduct the first global analysis of among‐site differences in how aboveground biomass stocks and fluxes are distributed with tree size. We analyzed repeat...
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Published in | The New phytologist Vol. 234; no. 5; pp. 1664 - 1677 |
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Main Authors | , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , |
Format | Journal Article |
Language | English |
Published |
England
Wiley Subscription Services, Inc
01.06.2022
Wiley |
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Abstract | Summary
Tree size shapes forest carbon dynamics and determines how trees interact with their environment, including a changing climate. Here, we conduct the first global analysis of among‐site differences in how aboveground biomass stocks and fluxes are distributed with tree size.
We analyzed repeat tree censuses from 25 large‐scale (4–52 ha) forest plots spanning a broad climatic range over five continents to characterize how aboveground biomass, woody productivity, and woody mortality vary with tree diameter. We examined how the median, dispersion, and skewness of these size‐related distributions vary with mean annual temperature and precipitation.
In warmer forests, aboveground biomass, woody productivity, and woody mortality were more broadly distributed with respect to tree size. In warmer and wetter forests, aboveground biomass and woody productivity were more right skewed, with a long tail towards large trees. Small trees (1–10 cm diameter) contributed more to productivity and mortality than to biomass, highlighting the importance of including these trees in analyses of forest dynamics.
Our findings provide an improved characterization of climate‐driven forest differences in the size structure of aboveground biomass and dynamics of that biomass, as well as refined benchmarks for capturing climate influences in vegetation demographic models.
See also the Commentary on this article by Zuidema & van der Sleen, 234: 1544–1546. |
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AbstractList | Tree size shapes forest carbon dynamics and determines how trees interact with their environment, including a changing climate. Here, we conduct the first global analysis of among-site differences in how aboveground biomass stocks and fluxes are distributed with tree size. We analyzed repeat tree censuses from 25 large-scale (4-52 ha) forest plots spanning a broad climatic range over five continents to characterize how aboveground biomass, woody productivity, and woody mortality vary with tree diameter. We examined how the median, dispersion, and skewness of these size-related distributions vary with mean annual temperature and precipitation. In warmer forests, aboveground biomass, woody productivity, and woody mortality were more broadly distributed with respect to tree size. In warmer and wetter forests, aboveground biomass and woody productivity were more right skewed, with a long tail towards large trees. Small trees (1-10 cm diameter) contributed more to productivity and mortality than to biomass, highlighting the importance of including these trees in analyses of forest dynamics. Our findings provide an improved characterization of climate-driven forest differences in the size structure of aboveground biomass and dynamics of that biomass, as well as refined benchmarks for capturing climate influences in vegetation demographic models.Tree size shapes forest carbon dynamics and determines how trees interact with their environment, including a changing climate. Here, we conduct the first global analysis of among-site differences in how aboveground biomass stocks and fluxes are distributed with tree size. We analyzed repeat tree censuses from 25 large-scale (4-52 ha) forest plots spanning a broad climatic range over five continents to characterize how aboveground biomass, woody productivity, and woody mortality vary with tree diameter. We examined how the median, dispersion, and skewness of these size-related distributions vary with mean annual temperature and precipitation. In warmer forests, aboveground biomass, woody productivity, and woody mortality were more broadly distributed with respect to tree size. In warmer and wetter forests, aboveground biomass and woody productivity were more right skewed, with a long tail towards large trees. Small trees (1-10 cm diameter) contributed more to productivity and mortality than to biomass, highlighting the importance of including these trees in analyses of forest dynamics. Our findings provide an improved characterization of climate-driven forest differences in the size structure of aboveground biomass and dynamics of that biomass, as well as refined benchmarks for capturing climate influences in vegetation demographic models. Tree size shapes forest carbon dynamics and determines how trees interact with their environment, including a changing climate. Here, we conduct the first global analysis of among-site differences in how aboveground biomass stocks and fluxes are distributed with tree size. We analyzed repeat tree censuses from 25 large-scale (4–52 ha) forest plots spanning a broad climatic range over five continents to characterize how aboveground biomass, woody productivity, and woody mortality vary with tree diameter. We examined how the median, dispersion, and skewness of these size-related distributions vary with mean annual temperature and precipitation. In warmer forests, aboveground biomass, woody productivity, and woody mortality were more broadly distributed with respect to tree size. In warmer and wetter forests, aboveground biomass and woody productivity were more right skewed, with a long tail towards large trees. Small trees (1–10 cm diameter) contributed more to productivity and mortality than to biomass, highlighting the importance of including these trees in analyses of forest dynamics. Our findings provide an improved characterization of climate-driven forest differences in the size structure of aboveground biomass and dynamics of that biomass, as well as refined benchmarks for capturing climate influences in vegetation demographic models. Tree size shapes forest carbon dynamics and determines how trees interact with their environment, including a changing climate. Here, we conduct the first global analysis of among‐site differences in how aboveground biomass stocks and fluxes are distributed with tree size. We analyzed repeat tree censuses from 25 large‐scale (4–52 ha) forest plots spanning a broad climatic range over five continents to characterize how aboveground biomass, woody productivity, and woody mortality vary with tree diameter. We examined how the median, dispersion, and skewness of these size‐related distributions vary with mean annual temperature and precipitation. In warmer forests, aboveground biomass, woody productivity, and woody mortality were more broadly distributed with respect to tree size. In warmer and wetter forests, aboveground biomass and woody productivity were more right skewed, with a long tail towards large trees. Small trees (1–10 cm diameter) contributed more to productivity and mortality than to biomass, highlighting the importance of including these trees in analyses of forest dynamics. Our findings provide an improved characterization of climate‐driven forest differences in the size structure of aboveground biomass and dynamics of that biomass, as well as refined benchmarks for capturing climate influences in vegetation demographic models. See also the Commentary on this article by Zuidema & van der Sleen, 234 : 1544–1546 . Summary Tree size shapes forest carbon dynamics and determines how trees interact with their environment, including a changing climate. Here, we conduct the first global analysis of among‐site differences in how aboveground biomass stocks and fluxes are distributed with tree size. We analyzed repeat tree censuses from 25 large‐scale (4–52 ha) forest plots spanning a broad climatic range over five continents to characterize how aboveground biomass, woody productivity, and woody mortality vary with tree diameter. We examined how the median, dispersion, and skewness of these size‐related distributions vary with mean annual temperature and precipitation. In warmer forests, aboveground biomass, woody productivity, and woody mortality were more broadly distributed with respect to tree size. In warmer and wetter forests, aboveground biomass and woody productivity were more right skewed, with a long tail towards large trees. Small trees (1–10 cm diameter) contributed more to productivity and mortality than to biomass, highlighting the importance of including these trees in analyses of forest dynamics. Our findings provide an improved characterization of climate‐driven forest differences in the size structure of aboveground biomass and dynamics of that biomass, as well as refined benchmarks for capturing climate influences in vegetation demographic models. See also the Commentary on this article by Zuidema & van der Sleen, 234: 1544–1546. |
Author | Bt. Mohamad, Mohizah Wolf, Amy Mi, Xiangcheng Makana, Jean‐Remy Ren, Haibao Pérez, Rolando Parker, Geoffrey Hubbell, Stephen P. Yuan, Zuoqiang Zimmerman, Jess K. Dattaraja, Handanakere Shivaramaiah Král, Kamil Filip, Jonah Duque, Álvaro Suresh, Hebbalalu S. Novotný, Vojtěch Ediriweera, Sisira Ewango, Corneille Cordell, Susan Ostertag, Rebecca Howe, Robert Reynolds, Glen Giardina, Christian P. Sun, I‐Fang Chang‐Yang, Chia‐Hao Kenfack, David Janík, David Wang, Yunquan Davies, Stuart J. Weiblen, George D. Piponiot, Camille Uriarte, Maria Cárdenas, Dairon Chuyong, George Burslem, David F. R. P. Lutz, James A. McMahon, Sean M. Sack, Lawren Allen, David Yu, Mingjian Sukumar, Raman Bourg, Norman A. Yao, Tze Leong Hsieh, Chang‐Fu Su, Sheng‐Hsin Ware, Ian M. Itoh, Akira Shringi, Ankur Thomas, Duncan W. Whitfeld, Timothy J. S. Md Sabri, Mohamad Danial Thompson, Jill McShea, William Vandermeer, John Anderson‐Teixeira, Kristina J. Ezedin, Zacky Inman‐Narahari, Faith M. Muller‐Landau, Helene C. O'Brien, Michael J. Zuleta, Daniel |
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Keywords | tree size distribution woody mortality biomass climate gradients forests woody productivity biomasse changement climatique forêt cartographie biomasse aérienne des arbres forêt tropicale séquestration du carbone ressource forestière arbre forestier croissance mortalité allométrie |
Language | English |
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Notes | Zuidema & van der Sleen 234 See also the Commentary on this article by . 1544–1546 ObjectType-Article-1 SourceType-Scholarly Journals-1 ObjectType-Feature-2 content type line 14 content type line 23 |
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Tree size shapes forest carbon dynamics and determines how trees interact with their environment, including a changing climate. Here, we conduct the... Tree size shapes forest carbon dynamics and determines how trees interact with their environment, including a changing climate. Here, we conduct the first... |
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SubjectTerms | aboveground biomass Annual precipitation Benchmarks Biomass Carbon Climate Climate change climate gradients Climate models Dynamics Ecology Ekologi forest dynamics Forest ecosystems Forest Science Forests Life Sciences Mortality Productivity Skewness Skogsvetenskap statistical analysis Stocks Temperature tree and stand measurements tree size distribution Trees Tropical Climate Wood woody mortality woody productivity |
Title | Distribution of biomass dynamics in relation to tree size in forests across the world |
URI | https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fnph.17995 https://www.ncbi.nlm.nih.gov/pubmed/35201608 https://www.proquest.com/docview/2655952252 https://www.proquest.com/docview/2633847072 https://www.proquest.com/docview/2660993007 https://hal.science/hal-05180677 https://gup.ub.gu.se/publication/338214 |
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