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农田尺度下反硝化微生物的分布模式和 NO 排放通量表明有机土壤中完全反硝化具有很大的潜力。

Field-Scale Pattern of Denitrifying Microorganisms and NO Emission Rates Indicate a High Potential for Complete Denitrification in an Agriculturally Used Organic Soil.

机构信息

Research Unit Comparative Microbiome Analysis, Helmholtz Zentrum München, Ingolstädter Landstr. 1, 85764, Neuherberg, Germany.

Department of Ecology and Ecosystem Management, Technical University of Munich, Emil-Ramann-Straße 2, 85354, Freising, Germany.

出版信息

Microb Ecol. 2017 Nov;74(4):765-770. doi: 10.1007/s00248-017-0991-1. Epub 2017 May 11.

DOI:10.1007/s00248-017-0991-1
PMID:28492990
Abstract

More than 50% of all anthropogenic NO emissions come from the soil. Drained Histosols that are used for agricultural purposes are particularly potent sources of denitrification due to higher stocks of organic matter and fertiliser application. However, conditions that favour denitrification can vary considerably across a field and change significantly throughout the year. Spatial and temporal denitrifier dynamics were assessed in a drained, intensely managed Histosol by focusing on the genetic nitrite and NO reduction potential derived from the abundance of nirK, nirS and nosZ genes. These data were correlated with soil properties at two different points in time in 2013. NO emissions were measured every 2 weeks over three vegetation periods (2012-2014). Very low NO emission rates were measured throughout the entire period of investigation in accordance with the geostatistical data that revealed an abundance of microbes carrying the NO reductase gene nosZ. This, along with neutral soil pH values, is indicative of high microbial denitrification potential. While the distribution of the microbial communities was strongly influenced by total organic carbon and nitrogen pools in March, the spatial distribution pattern was not related to the distribution of soil properties in October, when higher nutrient availability was observed. Different nitrite reducer groups prevailed in spring and autumn. While nirS, followed by nosZ and nirK, was most abundant in March, the latter was the dominant nitrite reductase in October.

摘要

超过 50%的人为氮氧化物排放来自土壤。由于有机物质和肥料的应用较高,用于农业目的的排水潜育土是反硝化作用的特别有力的来源。然而,有利于反硝化的条件在整个领域内可能有很大的变化,并且在一年中会发生显著变化。通过关注从 nirK、nirS 和 nosZ 基因丰度中得出的亚硝酸盐和硝酸盐还原潜力,评估了排水和集约化管理的潜育土中的空间和时间反硝化菌动态。这些数据与 2013 年两个不同时间点的土壤特性相关联。在三个植被期(2012-2014 年)期间,每两周测量一次 NO 排放。根据地质统计学数据,整个研究期间测量到的 NO 排放速率非常低,这表明携带 NO 还原酶基因 nosZ 的微生物丰富。这与中性土壤 pH 值一起表明具有很高的微生物反硝化潜力。尽管微生物群落的分布受总有机碳和氮库的强烈影响,但在 3 月,空间分布模式与 10 月的土壤特性分布没有关系,10 月观察到更高的养分可用性。不同的亚硝酸盐还原菌群在春季和秋季占优势。虽然 nirS,其次是 nosZ 和 nirK,在 3 月最丰富,但在 10 月后者是主要的亚硝酸盐还原酶。

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