| Citation: | Jian Yang, Bingfu Yao, Min Cai, Mingxian Han, Zenghui Wu, Pingping Zhang, Haiyi Xiao, Jibin Han, Xiying Zhang, Hongchen Jiang. Salinity Change Overrides Nitrogen Increase in Affecting Microbial Abundance, Diversity, Community Composition and Organic Carbon Mineralization in Saline Lakes. Journal of Earth Science, 2026, 37(4): 1709-1721. doi: 10.1007/s12583-024-0139-4
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Saline lakes are simultaneously affected by salinity change due to climate change and increased nitrogen (N) input from human activities and atmosphere deposition. However, it is poorly known about how the salinity change and increased N input synchronously influence microbial community and its associated organic carbon mineralization in saline lakes. Here, lake sediments with different salinity (0.7–376.3 g·L-1) were employed to establish microcosm experiments, supplemented with different concentrations of NH4NO3, followed by incubation for 6 months and subsequent analyses of geochemistry and microbial community composition of the incubated sediments. The results showed that salinity change relative to nitrogen increase had a greater impact on microbial abundance, diversity, community structure and organic carbon mineralization in the studied lake sediments. Salinity increase significantly (
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