数字农科院2.0

Analysis of soil microbial community structure changes in the drainage field of the Shengli coalfield based on high-throughput sequencing

文献类型： 外文期刊

作者： Zhao, Weixuan;Hou, Ruihong;Liu, Mingjian;Shen, Haowei;Deng, Xiaochen;Wang, Mingjiu;Yun, Xiangjun

作者机构：

关键词： Coal mine;Different dominant plants;Rhizosphere soil;Microbial community characteristics;Functional prediction

期刊名称： BMC MICROBIOLOGY

ISSN： 1471-2180

年卷期： 2025 年 25 卷 1 期

页码：

收录情况： SCIE（2025版）

摘要： BackgroundThe study of soil environment in drainage fields is important for environmental management and ecological restoration, and there is currently a knowledge gap in understanding the impact of soil microbial communities in the Shengli coalfield drainage fields and the corresponding ecological effects. To investigate the changes in rhizosphere soil microbial communities of different dominant plants after years of restoration, this study examines the improvement effects of different dominant plants on the soil environment.ResultsThis study is based on high-throughput sequencing to restore the slope of coal mine spoil after 15 years as the sampling site. The rhizosphere soil of five dominant plants was selected for microbial community analysis, and functional prediction of the microbial community was conducted. The dominant plants selected included Erect Milkvetch (Astragalus adsurgens), Lemongrass (Caragana korshinskii), Alfalfa (Medicago sativa), Phyllanthus pinnatifida (Elymus dahuricus), and Brassica Rapa (Brassica campestris). The results showed that after 15 years of restoration, the soil physicochemical properties in the Phyllanthus pinnatifida group were better than those in the other groups overall, but some of them were inferior to those in the lemon-stripped mallard group. Abundant saprophytic fungal communities were found in different dominant plant groups, mainly belonging to the phyla Ascomycota and Basidiomycota, resulting in significantly higher organic matter content in the dominant plant groups compared to the CK group. The bacterial communities were dominated by the phyla Actinobacteriota, Proteobacteria, Chloroflexi, and Firmicutes. Among these microbial phyla, the Phyllanthus pinnatifida group had higher abundance, which is beneficial for vegetation colonization. Redundancy analysis showed that soil pH was significantly correlated with microbial communities. Organic matter content and pH are the main factors influencing the composition of soil microbial communities, significantly affecting the composition of microorganisms in different groups. After years of restoration, the environment of the Shengli Coalfield's spoil heap has been greatly improved.ConclusionsThe planting of various beneficial plants has resulted in significant improvements to the soil microbial community and physicochemical properties, with Phyllanthus pinnatifida having the most positive impact. This lays the foundation for the subsequent restoration of the slope of the spoil heap.

分类号：

  • 相关文献

[1]Application of microbial organic fertilizers promotes the utilization of nutrients and restoration of microbial community structure and function in rhizosphere soils after dazomet fumigation. Huang B.,Chen Y.,Pei Z.,Jiang L.,Zhang Y.,Wang J.,Wang J.. 2023

[2]Chemical fertilizer reduction with organic material amendments alters co-occurrence network patterns of bacterium-fungus-nematode communities under the wheat-maize rotation regime. Wu, Xian,Hu, He,Li, Shengjun,Zhao, Jianning,Li, Jie,Zhang, Guilong,Li, Gang,Xiu, Weiming. 2022

[3]Characterization of the Microbial Communities along the Gastrointestinal Tract in Crossbred Cattle. Kai Wang,Hailiang Zhang,Lirong Hu,Guoxing Zhang,Haibo Lu,Hanpeng Luo,Shanjiang Zhao,Huabin Zhu,Yachun Wang. 2022

[4]Diversity of microbial communities in cigar filler leaves with different initial water contents analyzed based on high-throughput sequencing technology. Yumeng Gao,Yihui Wang,Bingqing Hou,Guo Zhang,Chun Jiang,Song Fang,Qian Wang,Yang Ning. 2025

[5]DNA metabarcode analyses reveal similarities and differences in plant microbiomes of industrial hemp and medicinal Cannabis in China. Li, Jiayang,Zhang, Hong,Long, Songhua,Li, Wenting,Wang, Tuhong,Yu, Jian,Zhou, Ying,Zou, Shuo,Zhu, Hongjian,Xu, Jianping,Cheng, Yi. 2025

[6]Moderate grazing drives contrasting microbial network reorganization and functional shifts in desert and meadow steppes of Inner Mongolia. Gai Hang,Chengyang Zhou,Shining Zuo,Li Liu,Ding Huang. 2025

[7]Effect of Cd Contamination on Soil Microbial Community Structure in Flue-cured Tobacco Rhizosphere. Gao, Lin,Shen, Guo-Ming,Zhang, Ji-Guang. 2015

[8]Comparison of rhizosphere impacts of two wheat genotypes differing in phosphorus utilization efficiency. Yan, Haili,Liu, Xuan,Li, Guihua,Zhang, Shuxiang,Liu, Wenke.

[9]Change of Zinc Forms in Rhizosphere and Nonrhizosphere Soils of Maize (Zea mays L.) Plants as Influenced by Soil Drought Condition. Wang, Hong,Gao, Xiang,Cheng, Mingfang,Jin, Jiyun.

[10]In vitro Inhibition of Fungal Root-Rot Pathogens of Panax notoginseng by Rhizobacteria. Li, Shidong,Miao, Zuoqing,Liu, Xingzhong.

[11]Influence of plant genotype and soil on the cotton rhizosphere microbiome. Chuanzhen Yang,Hongchen Yue,Zheng Ma,Zili Feng,Hongjie Feng,Lihong Zhao,Yalin Zhang,Greg Deakin,Xiangming Xu,Heqin Zhu,Feng Wei. 2022

[12]Chryseobacterium herbae Isolated from the Rhizospheric Soil of Pyrola calliantha H. Andres in Segrila Mountain on the Tibetan Plateau. Li Zhang,Yan Wang,Delong Kong,Qingyun Ma,Yan Li,Zhen Xing,Zhiyong Ruan. 2023

[13]Streptomyces liangshanensis sp. nov., a novel actinomycete isolated from rhizosphere soil of Fagopyrum tataricum. Yi hui Guo,Xin ke Tang,Si ren Hu,Mei liang Zhou,Jian Gao. 2021

[14]Changes in nitrogen pools in the maize–soil system after urea or straw application to a typical intensive agricultural soil: A15N tracer study. Jie Zhang,Ping He,Dan Wei,Liang Jin,Lijuan Zhang,Ling Li,Shicheng Zhao,Xinpeng Xu,Wei Zhou,Shaojun Qiu. 2021

[15]Distinct soil microbial communities under Ageratina adenophora invasions. Li, Q.,Wan, F.,Zhao, M.. 2022

[16]Long-term fertilization coupled with rhizobium inoculation promotes soybean yield and alters soil bacterial community composition. Wanling Wei,Dawei Guan,Mingchao Ma,Xin Jiang,Fenliang Fan,Fangang Meng,Li Li,Baisuo Zhao,Yubin Zhao,Fengming Cao,Huijun Chen,Jun Li. 2023

[17]Differential impact of Bt-transgenic rice plantings on bacterial community in three niches over consecutive years. Nan Wu,Wencong Shi,Wenwen Liu,Zheng Gao,Lanzhi Han,Xifeng Wang. 2021

[18]Changes in nitrogen pools in the maize–soil system after urea or straw application to a typical intensive agricultural soil: A15N tracer study. Jie Zhang,Ping He,Dan Wei,Liang Jin,Lijuan Zhang,Ling Li,Shicheng Zhao,Xinpeng Xu,Wei Zhou,Shaojun Qiu. 2021

[19]Changes Of Soil Microbes Related With Carbon And Nitrogen Cycling After Long-Term Co2 Enrichment In A Typical Chinese Maize Field. Diao, TT, Peng, ZP, Niu, XG, Yang, RQ, Ma, F, Guo, LP. 2020

[20]Ralstonia solanacearum Infection Disturbed the Microbiome Structure Throughout the Whole Tobacco Crop Niche as Well as the Nitrogen Metabolism in Soil. Wang, Zhaobao,Zhang, Yuzhen,Bo, Guodong,Zhang, Yanping,Chen, Yu,Shen, Minchong,Zhang, Peng,Li, Guitong,Zhou, Jie,Li, Zhengfeng,Yang, Jianming. 2022

作者其他论文 更多>>