Wang Yanhong, Xu Jiao, Yuan Qingsong, Guo Lanping, Xiao Chenghong, Yang Changgui, Li Liangyuan, Jiang Weike, Zhou Tao
Resource Institute for Chinese & Ethnic Materia Medica, Guizhou University of Traditional Chinese Medicine, Guiyang, China.
National Resource Center for Chinese Materia Medica, China Academy of Chinese Medical Sciences, Beijing, China.
Front Microbiol. 2023 Sep 7;14:1233555. doi: 10.3389/fmicb.2023.1233555. eCollection 2023.
members play important roles in the nutrient supply and growth modulation of Bl., and they will undergo severe competition with native soil organisms before colonization and become symbiotic with . Unraveling the response of soil microbial organisms to symbiotic fungi will open up new avenues to illustrate the biological mechanisms driving 's benefit from . For this purpose, strains from four main production areas in China were collected, identified, and co-planted with in Guizhou Province. The result of the phylogenetic tree indicated that the four strains shared the shortest clade with The yields of were compared to uncover the potential role of these strains. Soil microbial DNA was extracted and sequenced using Illumina sequencing of 16S and ITS rRNA gene amplicons to decipher the changes of soil bacterial and fungal communities arising from strains. The yield of symbiosis with the YN strain ( collected from Yunnan) was four times higher than that of the GZ strain ( collected from Guizhou) and nearly two times higher than that of the AH and SX strains ( collected from Shanxi and Anhui). We found that the GZ strain induced changes in the bacterial community, while the YN strain mainly caused changes in the fungal community. Similar patterns were identified in non-metric multidimensional scaling analysis, in which the GZ strain greatly separated from others in bacterial structure, while the YN strain caused significant separation from other strains in fungal structure. This current study revealed the assembly and response of the soil microbial community to strains and suggested that exotic strains of might be helpful in improving the yield of by inducing changes in the soil fungal community.
成员在 Bl. 的养分供应和生长调节中发挥着重要作用,它们在定殖前会与本地土壤生物进行激烈竞争,并与 形成共生关系。揭示土壤微生物对共生真菌的反应将为阐明驱动 从 中受益的生物学机制开辟新途径。为此,收集了来自中国四个主要 产区的菌株,进行了鉴定,并与 在贵州省共同种植。系统发育树的结果表明,这四个 菌株与 共享最短的进化枝。比较 的产量以揭示这些 菌株的潜在作用。提取土壤微生物DNA,并使用16S和ITS rRNA基因扩增子的Illumina测序进行测序,以解读由 菌株引起的土壤细菌和真菌群落的变化。与YN菌株(从云南收集)共生的 产量比GZ菌株(从贵州收集)高四倍,比AH和SX菌株(从山西和安徽收集)高近两倍。我们发现GZ菌株诱导了细菌群落的变化,而YN菌株主要引起了真菌群落的变化。在非度量多维尺度分析中也发现了类似的模式,其中GZ菌株在细菌结构上与其他菌株有很大分离,而YN菌株在真菌结构上与其他菌株有显著分离。这项当前研究揭示了土壤微生物群落对 菌株的组装和反应,并表明外来的 菌株可能有助于通过诱导土壤真菌群落的变化来提高 的产量。