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南美超级胎牛血清999尝鲜特惠
转染试剂低至5折
基质胶阶梯特惠
积分商城,好礼送不停
分子生物学
IVD分子诊断
细胞培养与分析
蛋白研究
细胞因子
重组蛋白
抗体
高通量测序建库
病原检测UCF系列
生物医药
工具酶
抑制剂激活剂与常用试剂
仪器
耗材

植被驱动的土壤细菌和真菌多样性分异:日本当归种植系统中独特的土壤生态决定因素

Vegetation-Driven Differentiation of Soil Bacterial and Fungal Diversity: Distinct Edaphic Determinants in Atractylodes japonica Cultivation Systems

Zehao Gan, Ruitong Du, Zhipeng Xu, Xin Fu, Yunwei Liu, Xiangquan Li, Zhibin Wang

Journal:Diversity-Basel

IF:2.3

DOI:10.3390/d18080498

PMID:

Published:2026-08-20

research field:分子生物学植物学植物遗传学

Abstract

As key drivers of soil biogeochemical cycles, soil microbial communities play essential roles in maintaining soil fertility, nutrient cycling, and plant growth. In this study, high-throughput sequencing of 16S rRNA and ITS genes was used to investigate the diversity, the composition, and the driving factors of bacterial and fungal communities in bulk soils across four soil groups collected from different vegetation covers (forest soil (FS), soybean field (PGS), and twoAtractylodes japonicacultivation soils (ALO and ALR)) under identical climatic conditions. The results showed that the bacterialα-diversity remained stable across all the vegetation types, whereas the fungalα-diversity and richness were more sensitive to the vegetation type, with the PGS generally exhibiting lower Shannon and Chao1 indices. Theβ-diversity analysis revealed significant differences in the microbial community structure among the vegetation types, with a stronger effect on fungi (R2= 0.737,p= 0.001) than on bacteria (R2= 0.493,p= 0.001). At the phylum and genus levels, the fungal communities displayed more pronounced shifts than the bacterial communities, which remained relatively stable. A redundancy analysis indicated that the soil chemical properties significantly shaped the microbial community structure (p= 0.002). The microbial communities in theA. japonicasoils (ALO and ALR) were primarily driven by pH, available phosphorus, and available potassium, while the FS and PGS communities were more strongly influenced by soil organic carbon, total nitrogen, and nitrogen forms (NH4+-N and NO3−-N). The Spearman correlation and functional prediction analyses further confirmed that the key soil factors differentially regulated the abundance and ecological functions of the dominant microbial taxa. These findings demonstrate the vegetation-specific assembly of soil microbial communities and highlight the distinct edaphic drivers associated withA. japonicacultivation, providing a scientific basis

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