Mechanistic insights into phosphorus transformation mediated by Arthrobacter and Sordariomycetes under long-term high-volume swine manure application in a wheat-rice rotation system.

IF 4 2区 生物学 Q2 MICROBIOLOGY
Frontiers in Microbiology Pub Date : 2025-05-13 eCollection Date: 2025-01-01 DOI:10.3389/fmicb.2025.1540267
Chunlong Zhang, Shuang Zhang, Xiaoyan Tang, Bin Zhang, Dejun Liu, Zepeng Yang, Rong Huang, Yingjie Wu, Qi Tao, Youlin Luo, Changquan Wang, Bing Li
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引用次数: 0

Abstract

Introduction: Understanding the impacts of sustained high-input swine manure on soil phosphorus (P), along with identifying and functionally characterizing P-associated microorganisms, can provide a scientific foundation for effective management of soil P in relation to swine manure application. This study provides novel insights into the functional roles of P-associated microorganisms in mediating phosphorus dynamics under long-term excessive swine manure application.

Methods: The study investigated the prolonged impact of high-volume swine manure application on soil P fractions over an 8-year continuous, randomized field trial involving rotating wheat (wet conditions) and rice (flooded conditions) crops. And the soil treated with the prolonged high- volume swine manure application was selected to isolate and identify specific microorganisms, which were subsequently inoculated into soil previously treated with long-term NPK fertilizer (F) and swine manure application (M) for indoor cultivation and functional characterization verification.

Results: The sustained high input of swine manure markedly enhanced soil P activity and microbial P content (P < 0.05), specifically extracting P-associated microorganisms, namely Arthrobacter sp. M4 bacteria and Sordariomycetes 2 MS-M4 fungi. Upon separate inoculation of these microorganisms into high-Carbon (C) and high-P soils (M soil, Olsen P > 70 mg kg-1, ROC > 150 mg kg-1), it was observed that both microorganisms effectively converted available P sources (Ca2-P, Ca8-P) into organic P reserves through biological immobilization. Conversely, under conditions of low C and low P (F soil, Olsen P < 10 mg kg-1, ROC < 75 mg kg-1), there was an enhancement in the decomposition and utilization of soil organic C which resulted in increased effective P content via the breakdown of organic phosphates-demonstrating a robust capacity for P transformation. Furthermore, when these phosphate-related microorganisms were introduced to long-term fertilized soils enriched with NPK fertilizer (F), they exhibited a significantly greater enhancement in soil P availability compared to those inoculated into soils subjected to prolonged high inputs of swine manure.

Discussion: The P-related microorganisms Arthrobacter sp. M4 and Sordariomycetes 2 MS-M4 extracted from soils with high P availability were confirmed to have the key functions of enhancing the fixation of inorganic P into organic P (high-C and high-P condition) or promoting the activation of organic P into rapidly available P (low C and low P level). Which may plays an important role in the management of agricultural P nutrients.

麦-稻轮作中长期大量施用猪粪中节肢菌和sordariomyetes介导的磷转化机理
导读:了解持续高投入猪粪对土壤磷的影响,以及鉴定和功能表征与磷相关的微生物,可以为猪粪施用中土壤磷的有效管理提供科学依据。本研究为长期过量施用猪粪条件下磷相关微生物在调节磷动态中的功能作用提供了新的见解。方法:在一项为期8年的连续随机田间试验中,研究了大量猪粪施用对土壤P组分的长期影响,试验涉及轮作小麦(湿润条件)和水稻(淹水条件)作物。选择长期大量施用猪粪处理的土壤分离和鉴定特定微生物,随后将其接种到长期施用氮磷钾(F)和猪粪(M)的土壤中,进行室内培养和功能表征验证。结果:持续高投入猪粪显著提高了土壤磷活性和微生物磷含量(P < 0.05),特别是对磷相关微生物,即节肢杆菌sp. M4细菌和Sordariomycetes 2 MS-M4真菌的提取。将这些微生物分别接种到高碳(C)和高磷土壤(M土壤,Olsen P > 70 mg kg-1, ROC > 150 mg kg-1)中,观察到这两种微生物通过生物固定化有效地将有效磷源(Ca2-P, Ca8-P)转化为有机磷储量。相反,在低碳低磷条件下(F土壤,Olsen P < 10 mg kg-1, ROC < 75 mg kg-1),土壤有机C的分解和利用增强,通过有机磷的分解导致有效磷含量增加,显示出强大的P转化能力。此外,当这些与磷酸盐相关的微生物被引入到长期施肥的富含NPK肥料的土壤中时,与那些接种到长期高投入猪粪的土壤中的微生物相比,它们表现出更大的土壤磷有效性增强。讨论:从高磷有效度土壤中提取的与磷相关的微生物Arthrobacter sp. M4和sordariomyetes 2ms -M4被证实具有促进无机磷向有机磷(高C和高P条件)的固定或促进有机磷向速效磷(低C和低P水平)的活化的关键功能。这可能在农业磷养分管理中起重要作用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
7.70
自引率
9.60%
发文量
4837
审稿时长
14 weeks
期刊介绍: Frontiers in Microbiology is a leading journal in its field, publishing rigorously peer-reviewed research across the entire spectrum of microbiology. Field Chief Editor Martin G. Klotz at Washington State University is supported by an outstanding Editorial Board of international researchers. This multidisciplinary open-access journal is at the forefront of disseminating and communicating scientific knowledge and impactful discoveries to researchers, academics, clinicians and the public worldwide.
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