CoBacFM: Core bacteria forecast model for global grassland pH dynamics under future climate warming scenarios

IF 15.1 1区 环境科学与生态学 Q1 ENVIRONMENTAL SCIENCES
Kai Feng, Shang Wang, Qing He, Michael Bonkowski, Mohammad Bahram, Etienne Yergeau, Zhujun Wang, Xi Peng, Danrui Wang, Shuzhen Li, Yingcheng Wang, Zhicheng Ju, Xiongfeng Du, Chengliang Yan, Songsong Gu, Tong Li, Xingsheng Yang, Wenli Shen, Ziyan Wei, Qiulong Hu, Ye Deng
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引用次数: 0

Abstract

Soil microbes regulate various biogeochemical cycles on Earth and respond rapidly to climate change, which is accompanied by changes in soil pH. However, the long-term patterns of these changes under future climate scenarios remain unclear. We propose a core-bacteria-forecast model (CoBacFM) to model soil pH changes by shifts of core bacterial groups under future scenarios using a curated soil microbiota dataset of global grasslands. Our model estimates that soil pH will increase in 63.8%–67.0% of grassland regions and decrease in 10.1%–12.4% of regions. Approximately 32.5%–32.9% of regions will become more alkaline by 5.6%, and these areas expand in all future scenarios. These results were supported by 14 warming simulation experiments. Using bacterial responses as bioindicators of soil pH, the CoBacFM method can accurately forecast pH changes in future scenarios, and the changing global climate is likely to result in the alkalization of grasslands.

Abstract Image

CoBacFM:未来气候变暖情景下全球草地 pH 值动态的核心细菌预测模型
土壤微生物调节着地球上的各种生物地球化学循环,并对伴随着土壤 pH 值变化的气候变化做出快速反应。然而,这些变化在未来气候情景下的长期模式仍不清楚。我们提出了一个核心细菌预测模型(CoBacFM),利用全球草地土壤微生物群数据集,通过核心细菌群在未来情景下的变化来模拟土壤 pH 值的变化。据我们的模型估计,63.8%-67.0%的草原地区土壤pH值将上升,10.1%-12.4%的地区土壤pH值将下降。约有 32.5%-32.9% 的地区的土壤酸碱度将增加 5.6%,在所有未来情景中,这些地区的面积都将扩大。这些结果得到了 14 项气候变暖模拟实验的支持。利用细菌反应作为土壤 pH 值的生物指标,CoBacFM 方法可以准确预测未来情景下的 pH 值变化,而全球气候的变化很可能导致草原碱化。
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来源期刊
One Earth
One Earth Environmental Science-Environmental Science (all)
CiteScore
18.90
自引率
1.90%
发文量
159
期刊介绍: One Earth, Cell Press' flagship sustainability journal, serves as a platform for high-quality research and perspectives that contribute to a deeper understanding and resolution of contemporary sustainability challenges. With monthly thematic issues, the journal aims to bridge gaps between natural, social, and applied sciences, along with the humanities. One Earth fosters the cross-pollination of ideas, inspiring transformative research to address the complexities of sustainability.
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