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Isolation Characterization and Genomic Analysis ofPseudomonas sp. Strain SMT-1 an EfficientFluorene-Degrading Bacterium

机译:的分离表征和基因组分析假单胞菌应变SMT-1高效芴降解细菌

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摘要

Comprehensive study of novel microbial organisms capable of degrading fluorene is crucial to develop essential strategies for further application on enhanced bioremediation technologies. Many fluorene-degrading bacteria have been studied; however, little information about the genome sequences of these organisms, which would facilitate investigation of the molecular mechanisms of fluorene degradation, is available. In this study, a bacterial strain designated SMT-1, which uses fluorene as its sole carbon source, was isolated from Laogang landfill in Shanghai, People’s Republic of China, and identified as a Pseudomonas sp., based on 16S rRNA gene sequence analysis. Maximum growth and degrading activity of strain SMT-1 were observed at 30°C, pH 7.0 and 200 r/min in mineral salt medium containing 0.4 mm fluorene. We obtained a draft genome sequence of strain SMT-1 to gain insight into the genetic mechanisms for the degradation of aromatic compounds. Sequences greater than 1 kb in length were obtained by Illumina sequencing; strain SMT-1 was found to contain 5542 predicted genes. This working draft genome comprises 68 contigs and DNA scaffolds and has a total size of 6 108 237 bp and a calculated G + C content of 61.59%. Amino acid metabolism clusters were enriched inSMT-1 genes annotation, with the highest abundant observedfor the “ABC transporters” subcategories, followed by transcription, energyproduction and conversion, and inorganic ion transport and metabolism. Thegenomic information for SMT-1 provides a useful resource for elucidating themolecular mechanism of fluorene catabolism.
机译:全面研究能够降解芴的新型微生物对于开发进一步应用在增强生物修复技术中的基本策略至关重要。已经研究了许多降解芴的细菌。但是,关于这些生物的基因组序列的信息很少,这将有助于研究芴降解的分子机制。在这项研究中,从中国上海的老港垃圾填埋场中分离出了一种名为SMT-1的细菌菌株,该菌株使用芴作为唯一碳源,并根据16S rRNA基因序列分析将其鉴定为假单胞菌属。在含有0.4μm芴的无机盐培养基中,在30°C,pH 7.0和200μr/ min的条件下,观察到了SMT-1菌株的最大生长和降解活性。我们获得了菌株SMT-1的基因组序列草案,以深入了解降解芳族化合物的遗传机制。通过Illumina测序获得了长度大于1 kb的序列。发现SMT-1菌株含有5542个预测基因。该基因组工作草图包含68个重叠群和DNA支架,总大小为6 108 237 bp,计算的G + C含量为61.59%。氨基酸代谢簇富集SMT-1基因注释,观察到的最高丰度对于“ ABC转运蛋白”子类别,其次是转录,能量生产和转化,以及无机离子的运输和代谢。的SMT-1的基因组信息为阐明芴分解代谢的分子机理。

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