As early-spring pioneer ephemeroids in arid and semi-arid regions, Ferula species exert irreplaceable ecological functions through distinctive life-history strategies. However, their impacts on soil microhabitats and soil quality remain unclear. Taking Ferula species (Ferula feruloides, Ferula lehmannii, Ferula krylovii, and Ferula sinkiangensis) as the research subject, this study conducted a comprehensive analysis of the soil abiotic (physicochemical properties) and biological (microbial (bacterial/fungal) community diversity, composition, structure, and co-occurrence networks) factors as well as their correlations in the Ferula-planted areas (EX) and the unplanted areas (CK), and comprehensively assessed the soil quality index (SQI). Results showed the following: (1) The EX significantly affected soil nutrient contents and microbial community diversity indices (p < 0.05), with interspecific specificity and temporal dynamics. (2) The EX enhanced the stability/connectivity of microbial co-occurrence networks but reduced connection density (opposite to CK). (3) Changes in soil physicochemical factors were correlated with variations in the composition and distribution of rhizosphere microbial communities in Ferula species, with bacteria showing closer associations with soil nutrients and fungi with soil properties. Additionally, rhizosphere bacterial diversity indices explained the greatest proportion of SQI improvement. This study clarifies relationships of Ferula to the “soil−microbe−quality” continuum, providing scientific support for arid-region soil remediation, vegetation protection, and ecosystem stability.
Despite the ecological and economic importance of Camellia tetracocca, a rare ancient tea germplasm endemic to karst areas, variation in rhizosphere effects across plantation types and associated soil ecological coupling patterns remain poorly understood. This exploratory study compared physicochemical, biochemical, an...
Xiao-Hui Xu, Di Meng, Tian-Fei Hu et al.· Agronomy· 0 citations
This study aimed to elucidate the impacts of cultivating different herbaceous perennials on the rhizosphere microenvironment, nitrogen-cycling microbial communities, and functional genes in black soils of urban green spaces in Northeast China, thereby providing a scientific basis for rational urban plant configuration...
Pu-Shun Bian, Bo Han, Hai-Feng Zhu et al.· Frontiers in Plant Science· 0 citations
Soil carbon and nitrogen variables were the factors most strongly associated with microbial community composition, and long-term cultivation concurrently enriched the arbuscular mycorrhizal fungi Septoglomus and genera containing potential plant pathogens such as Fusarium and Nectria.
Lin-Yan Zhao, Kai-Xing Qu, Xiang-Sheng Su et al.· Agronomy· 0 citations
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 bacteria...
Ze-Hao Gan, Rui-Tong Du, Zhi-Peng Xu et al.· Diversity· 0 citations
Introduction Phellodendron chinense is an important medicinal plant in China. However, continuous monoculture has caused soil degradation and physiological constraints, which have become a key bottleneck limiting its sustainable production. Intercropping with companion plants is an effective approach to break this dile...
Chuan-Jun Xie, Jiao-Jiao Wu, Peng-Hui Song et al.· Frontiers in Plant Science· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.