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根际细菌对芳香族磺酸盐的脱硫作用:asfA基因的高度多样性

Desulfurization of aromatic sulfonates by rhizosphere bacteria: high diversity of the asfA gene.

作者信息

Schmalenberger Achim, Kertesz Michael A

机构信息

Faculty of Life Sciences, University of Manchester, Oxford Road, Manchester M13 9PT, UK.

出版信息

Environ Microbiol. 2007 Feb;9(2):535-45. doi: 10.1111/j.1462-2920.2006.01172.x.

DOI:10.1111/j.1462-2920.2006.01172.x
PMID:17222151
Abstract

The plant growth-promoting effect of Pseudomonas putida S-313 is associated with its ability to desulfurize arylsulfonates. To understand this further, other plant-associated bacteria able to desulfurize a range of arylsulfonates were isolated from the rhizospheres of winter and spring barley. The isolates belonged to the beta-proteobacteria, including bacteria from the Variovorax paradoxus group and from the Acidovorax genus. They desulfurized toluenesulfonate to p-cresol, and were found to contain orthologues of the P. putida S-313 asfA gene (> 70% sequence identity to AsfA), which is required for aryldesulfonation in this species. Further putative asfA orthologues were identified in several bacteria and cyanobacteria whose genomes have been sequenced, but of these only Cupriavidus (Ralstonia) metallidurans was able to utilize arylsulfonates as sulfur source. Cultivation of V. paradoxus, C. metallidurans or P. putida S-313 with toluenesulfonate as sulfur source led to a 100-fold increase in expression of the asfA homologues, which was largely repressed when sulfate was added. Polymerase chain reaction with degenerate primers was used to generate asfAB clone libraries from spring- and winter-barley rhizosphere DNA. Cluster analysis of 76 sequenced AsfA fragments revealed a broad diversity, with the majority of the sequences clustered together with AsfA from bacteria that are able to utilize toluenesulfonate as sulfur source. The diversity of asfA in barley rhizosphere underlines the importance of the desulfonation process for bacteria that inhabit the plant rhizosphere.

摘要

恶臭假单胞菌S-313促进植物生长的作用与其对芳基磺酸盐脱硫的能力有关。为了进一步了解这一点,从冬大麦和春大麦的根际中分离出了其他能够对一系列芳基磺酸盐进行脱硫的植物相关细菌。这些分离菌属于β-变形菌纲,包括来自贪铜菌属(Variovorax paradoxus)菌群和嗜酸菌属(Acidovorax)的细菌。它们将甲苯磺酸盐脱硫生成对甲酚,并且被发现含有恶臭假单胞菌S-313 asfA基因的直系同源物(与AsfA的序列同一性>70%),该基因是该物种进行芳基脱硫所必需的。在一些基因组已被测序的细菌和蓝细菌中鉴定出了更多假定的asfA直系同源物,但其中只有嗜金属贪铜菌(Cupriavidus (Ralstonia) metallidurans)能够利用芳基磺酸盐作为硫源。以甲苯磺酸盐作为硫源培养贪铜菌、嗜金属贪铜菌或恶臭假单胞菌S-313会导致asfA同源物的表达增加100倍,而添加硫酸盐时这种表达会受到很大程度的抑制。使用简并引物进行聚合酶链反应,从春大麦和冬大麦根际DNA中生成asfAB克隆文库。对76个测序的AsfA片段进行聚类分析,结果显示其具有广泛的多样性,大多数序列与能够利用甲苯磺酸盐作为硫源的细菌的AsfA聚集在一起。大麦根际中asfA的多样性突显了脱硫过程对栖息在植物根际的细菌的重要性。

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