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淹没水稻土微宇宙和水稻植株(Oryza sativa)中甲烷氧化菌的活性和分布。

Activity and Distribution of Methane-Oxidizing Bacteria in Flooded Rice Soil Microcosms and in Rice Plants (Oryza sativa).

出版信息

Appl Environ Microbiol. 1997 Apr;63(4):1199-207. doi: 10.1128/aem.63.4.1199-1207.1997.

DOI:10.1128/aem.63.4.1199-1207.1997
PMID:16535562
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1389540/
Abstract

The activity and distribution of CH(inf4)-oxidizing bacteria (MOB) in flooded rice (Oryza sativa) soil microcosms was investigated. CH(inf4) oxidation was shown to occur in undisturbed microcosms by using (sup14)CH(inf4), and model calculations indicated that almost 90% of the oxidation measured had taken place at a depth where only roots could provide the O(inf2) necessary. Slurry from soil planted with rice had an apparent K(infm) for CH(inf4) of 4 (mu)M and a V(infmax) of 0.1 (mu)mol g (dry weight)(sup-1) h(sup-1). At a depth of 1 to 2 cm, there was no significant difference (P > 0.05) in numbers of MOB between soil from planted and nonplanted microcosms (mean, 7.7 x 10(sup5) g fresh weight). Thus, the densely rooted soil at 1 to 2 cm deep did not represent rhizospheric soil with respect to the number of MOB. A significantly increased number of MOB was found only in soil immediately around the roots (1.2 x 10(sup6) g fresh weight), corresponding to a layer of 0.1 to 0.2 mm. Plant-associated CH(inf4) oxidation was shown in a double chamber with carefully washed intact rice plants. Up to 90% of the CH(inf4) supplied to the root compartment was oxidized in the plants. CH(inf4) oxidation on isolated roots was higher and had a larger variability than that in soil slurries. Roots had an apparent K(infm) for CH(inf4) of 6 (mu)M and a V(infmax) of 5 (mu)mol g (dry weight)(sup-1) h(sup-1). The average number of MOB in homogenized roots was larger than on the rhizoplane and increased with plant age. MOB also were found in surface-sterilized roots and basal culms, indicating the ability of these bacteria to colonize the interior of roots and culms.

摘要

研究了淹水水稻(Oryza sativa)土壤微宇宙中 CH(inf4)-氧化菌(MOB)的活性和分布。通过使用(sup14)CH(inf4),证明了未受干扰的微宇宙中存在 CH(inf4)氧化作用,模型计算表明,测量到的氧化作用几乎有 90%发生在只有根系可以提供所需 O(inf2)的深度。来自种植水稻的土壤的泥浆对 CH(inf4)的表观 Km 为 4(μM),V(infmax)为 0.1(μmol g(干重))(sup-1)h(sup-1)。在 1 至 2 厘米的深度,种植和未种植微宇宙土壤中的 MOB 数量没有显著差异(P>0.05)(平均值,7.7 x 10(sup5) g 新鲜重量)。因此,1 至 2 厘米深的密集根系土壤在 MOB 数量方面并不代表根际土壤。仅在根周围的土壤中发现 MOB 的数量显著增加(1.2 x 10(sup6) g 新鲜重量),对应于 0.1 至 0.2 毫米的层。在仔细清洗完整水稻植物的双室中证明了植物相关的 CH(inf4)氧化作用。供应给根部隔室的 CH(inf4)中有高达 90%被植物氧化。与土壤泥浆相比,分离根上的 CH(inf4)氧化作用更高且变异性更大。根对 CH(inf4)的表观 Km 为 6(μM),V(infmax)为 5(μmol g(干重))(sup-1)h(sup-1)。均质化根中的 MOB 平均数量大于根际平面,并随植物年龄的增加而增加。在表面消毒的根和基部茎中也发现了 MOB,表明这些细菌能够定殖到根和茎的内部。