Will large-scale forestation lead to a soil water deficit crisis in China's drylands?

植树造林 中国 比例(比率) 铅(地质) 环境科学 气候学 农林复合经营 地理 地质学 地图学 地貌学 考古
作者
Qiuming Wang,Hongyan Liu,Boyi Liang,Liang Shi,Lu Wu,Jing Cao
出处
期刊:Science Bulletin [Elsevier]
卷期号:69 (10): 1506-1514 被引量:56
标识
DOI:10.1016/j.scib.2024.03.005
摘要

Trading water for carbon has cautioned large-scale afforestation in global drylands. However, model simulations suggested that the consumption of soil water could be partially offset by increasing precipitation due to vegetation feedback. A systematic meta-analysis of long-term and large-scale field observations is urgently required to address the abovementioned limitations, and the implementation of large-scale afforestation since 1978 in northern China provides an ideal example. This study collected data comprising 1226 observations from 98 sites in northern China to assess the variation in soil water content (SWC) with stand age after afforestation and discuss the effects of tree species, precipitation and conversions of land use types on SWC. We found that the SWC has been decreased by coniferous forest and broadleaf forest at rates of 0.6 and 3.2 mm decade–1, respectively, since 1978. There is a significant declining trend of SWC with the stand age of plantations, and the optimum growth stage for plantation forest is 0–20 a in northern China. However, we found increases in SWC for the conversion from grassland to forest and in the low-precipitation region, both are corresponding to the increased SWC in coniferous forest. Our study implies that afforestation might lead to a soil water deficit crisis in northern China in the long term at the regional scale but depends on prior land use types, tree taxa and the mean annual precipitation regime, which sheds light on decision-making regarding ecological restoration policies and water resource management in drylands.
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