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连作灌溉稻田的微生物群落。

Microbial communities of continuously cropped, irrigated rice fields.

出版信息

Appl Environ Microbiol. 1997 Jan;63(1):233-8. doi: 10.1128/aem.63.1.233-238.1997.

DOI:10.1128/aem.63.1.233-238.1997
PMID:16535489
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1389103/
Abstract

In continuously cropped, irrigated rice fields, soil microbial biomass as measured by total phospholipid fatty acid concentrations declined during the second half of the crop cycle. This decline was also observed in other components of the microbial community assessed by viable counts, including denitrifiers and sporeformers. Simultaneous with total biomass decline was the increase in potential indicators of nutrient stress--such as ratios of cyclopropanol ((Sigma)[cy/(omega)7c]) and trans ((Sigma)[(omega)7t/(omega)7c]) phospholipid fatty acids--in plain crop soil but not in the rhizosphere. Polyhydroxyalkanoate levels were enhanced in the root environment of mature rice. Polyunsaturated eukaryotic biomarkers accounted for only 13 to 16 mol% of the total phospholipids, including 2 mol% of 18:2(omega)6, which is considered a fungal biomarker. Single biomarkers for defined physiological groups of bacteria did not follow the declining trend of total microbial biomass. Signature compounds for gram-positive and gram-negative fermenters (plasmalogen phospholipids), methanogenic bacteria (diether lipids), and methanotrophs (18:1(omega)8c) increased as the crop approached maturity. Methanotrophs were not particularly enriched in the rhizosphere. Methanogenic biomarkers were, however, most abundant in root extracts from mature rice plants. Assuming that soil microbial biomass plays a significant role as a passive nutrient pool, its reduction during the second half of the cropping season suggests a mechanism that may ultimately contribute to declining productivity in irrigated, continuous rice cropping systems.

摘要

在连续耕作、灌溉的稻田中,土壤微生物生物量(通过总磷脂脂肪酸浓度测量)在作物周期的后半段下降。这一下降也在通过可培养计数评估的微生物群落的其他组成部分中观察到,包括反硝化菌和孢子形成菌。总生物量下降的同时,营养胁迫的潜在指标(如环丙烷((Sigma)[cy/(omega)7c])和反式((Sigma)[(omega)7t/(omega)7c])磷脂脂肪酸的比率)在普通作物土壤中增加,但在根际中没有增加。多羟基烷酸酯水平在成熟水稻的根际环境中增强。多不饱和真核生物生物标志物仅占总磷脂的 13%至 16%,包括 2%的 18:2(omega)6,这被认为是真菌生物标志物。用于定义细菌生理群的单一生物标志物并未遵循总微生物生物量的下降趋势。革兰氏阳性和革兰氏阴性发酵菌(质体磷脂)、产甲烷菌(醚脂)和甲烷氧化菌(18:1(omega)8c)的特征化合物随着作物接近成熟而增加。甲烷氧化菌在根际中并没有特别富集。然而,在成熟水稻植株的根提取物中,产甲烷菌生物标志物最为丰富。假设土壤微生物生物量作为被动养分库发挥重要作用,其在作物生长季节后半段的减少表明,这可能是导致灌溉连续水稻种植系统生产力下降的一个机制。

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