Shu He, Rui Rui, Jingying Hei, Yue Li, Noor Faisal, Biao Wang, Xiahong He, Shu Wang
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引用次数: 0
Abstract
Aims
Panax notoginseng (Sanqi), organically cultivated in the forest understory, has been shown to enhance its quality. However, the impact of organically vs. conventionally managed Sanqi on soil community composition, function, and metabolites remains unclear.
Methods
Here, we compared various land use patterns, including monoculture pine (MP), organically managed Sanqi (OMS), and conventionally managed Sanqi (CMS), to explore the diversity, function, and metabolism of the soil microbiome using metagenomic and metabolomic techniques.
Results
Our findings revealed that OMS and MP exhibited similar microbial α-diversity, community structure, and function as opposed to CMS. Moreover, both the OMS and CMS demonstrated a higher level of microbial complexity and stability than the MP, with respective enhancements ranging from 1.106% to 1.359% and 1.037% to 1.113%. Acidobacteria and Bradyrhizobium japonicum were significantly enriched in OMS but not in CMS. The OMS soils exhibited a notable enhancement in the carbon fixation pathway. In addition, differential metabolites such as deoxynucleosine, hypoxanthine, deoxyadenosine, deoxyguanosine, inosine, and guanine were found in the highest content in the OMS soils, primarily enriched in the purine metabolism pathway of nucleotide metabolism (map01232). OMS exhibited two additional factors (microbial α-diversity and community structure) directly influencing soil metabolites compared with CMS.
Conclusion
OMS significantly enhances microbial complexity and stability and the accumulation of beneficial metabolites. As a result, the land use conversion from MP to OMS fosters the development of a more stable and healthier soil environment, thereby providing a robust ecological foundation for the growth of Sanqi.
期刊介绍:
Plant and Soil publishes original papers and review articles exploring the interface of plant biology and soil sciences, and that enhance our mechanistic understanding of plant-soil interactions. We focus on the interface of plant biology and soil sciences, and seek those manuscripts with a strong mechanistic component which develop and test hypotheses aimed at understanding underlying mechanisms of plant-soil interactions. Manuscripts can include both fundamental and applied aspects of mineral nutrition, plant water relations, symbiotic and pathogenic plant-microbe interactions, root anatomy and morphology, soil biology, ecology, agrochemistry and agrophysics, as long as they are hypothesis-driven and enhance our mechanistic understanding. Articles including a major molecular or modelling component also fall within the scope of the journal. All contributions appear in the English language, with consistent spelling, using either American or British English.