bioclimate; vegetation; cluster analysis; vegetation modeling; China
Abstract :
[en] Predicting future ecosystems changes is necessary for better managing human resources. Such forecasting
requires robust vegetation models which have been tested versus observed field data. Nowadays, it is very common that a
simulation model is firstly validated using modern observed data and then tested versus palaeodata. In a sense, ecological
data represent the natural laboratory for modelers. Thus, palaeo and actuo-ecological data are key points when dealing
with predicting future changes. The present work represents the first step in such data-model comparison approach. Here,
we use only modern plants distributions to test the robustness of our ecosystems definitions and use these definitions for
testing a dynamic vegetation model.
We have defined twenty-nine Bioclimatic affinity groups (BAGs) for 196 dominant plant species including trees, shrubs
and herbs in China. These BAGs are characterized by the phenology and the climatic tolerances of the species they
include. They are detailed enough to describe all vegetation types in China including the tropical, the subtropical, the
temperate and the high altitude (Tibet Plateau) ecosystems.
The climatic thresholds of these 29 BAGs were then used to test and validate a global dynamic vegetation model
(CARAIB). The simulated BAGs are in good agreement with those observed in China, especially in the Tibetan Plateau
and in the subtropical ecosystems. Broadly, all simulated BAGs fit quite well with the modern distribution. However, they
all cover larger areas than the observed distributions, especially in the temperate region and in some areas in the northwest
and the tropical zone. These discrepancies between simulated and observed distributions are related to the fact that the
vegetation models simulate potential distributions. In China during recent decades natural ecosystems, mostly in the
temperate zone, have been strongly altered in their species composition and geographical extent by different human
activities such as the intense cultivation, deforestation, introduction of fast growing species and grazing.
Disciplines :
Earth sciences & physical geography
Author, co-author :
Huang, K.; Sun Yat-Sen University, Guangzhou, China > Department of Earth Sciences
Zheng, Z.; Sun Yat-Sen University, Guangzhou, China > Department of Earth Sciences
François, Louis ; Université de Liège - ULiège > Département d'astrophys., géophysique et océanographie (AGO) > Modélisation du climat et des cycles biogéochimiques
Guan, D.; Sun Yat-Sen University, Guangzhou, China > School of Environmental Science and Engineering
Cheddadi, R.; Université Montpellier 2 > ISEM
Language :
English
Title :
Plants bioclimatic affinity groups in China : observed vs. simulated ranges
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