Rissanen Antti J, Mangayil Rahul, Svenning Mette Marianne, Khanongnuch Ramita
Faculty of Engineering and Natural Sciences, Tampere University, P.O. Box 541, Tampere 33014, Finland.
Department of Arctic and Marine Biology, UiT, The Arctic University of Norway, Tromsø 9037, Norway.
Data Brief. 2021 Sep 12;38:107364. doi: 10.1016/j.dib.2021.107364. eCollection 2021 Oct.
Methanotrophic bacteria inhabit a wide range of natural (e.g. wetlands, lakes and soils) and anthropogenic (e.g. wastewater treatment plants and landfills) environments. They play a crucial role in mitigating atmospheric emissions of the greenhouse gas methane. There is also a growing interest in applying methanotrophs in the bioconversion of biogas - and natural gas - methane into value-added products (e.g. chemicals and single-cell protein). Hence, isolation and genome sequencing of methanotrophic bacteria is needed to provide important data on their functional capabilities. Here, we describe the assembled draft genome sequences of strain S1L isolated from hypoxic water column layer of boreal Lake Lovojärvi (Southern Finland), comprising total of 5090628 bp in 11 contigs with G+C - content of 50.9% and containing 4554 coding sequences. The draft genome of strain S1L represents the first published genome of strain isolated from lake ecosystems. In addition, we present the genome sequence of strain S2AM, isolated from water column of boreal Lake Alinen Mustajärvi (Southern Finland), comprising 3673651 bp in 1 contig with G+C - content of 48.2% and 3294 coding sequences. The draft genome of strain S2AM represents the first published genome of . The preliminary genome annotation analysis of both S1L and S2AM identified genes encoding oxidation of methane, methanol, formaldehyde and formate, assimilation of carbon, ammonium and nitrate, N fixation, as well as various enzymes enabling the survival in hypoxic conditions, i.e. high-affinity oxidase, hemerythrins, fermentation enzymes (for production of acetate, succinate and H) and respiratory nitrite reductases. The draft genomes have been deposited at GenBank under the accession JAGVVN000000000 for S1L and CP073754 for S2AM.
甲烷营养细菌栖息于广泛的自然环境(如湿地、湖泊和土壤)和人为环境(如污水处理厂和垃圾填埋场)中。它们在减少温室气体甲烷的大气排放方面发挥着关键作用。人们对于将甲烷营养菌应用于将沼气和天然气中的甲烷生物转化为增值产品(如化学品和单细胞蛋白)的兴趣也与日俱增。因此,需要对甲烷营养细菌进行分离和基因组测序,以提供有关其功能能力的重要数据。在此,我们描述了从芬兰南部的北方洛沃耶尔维湖缺氧水柱层分离出的菌株S1L的组装草图基因组序列,其由11个重叠群组成,总长5090628 bp,G+C含量为50.9%,包含4554个编码序列。菌株S1L的草图基因组代表了从湖泊生态系统分离出的菌株的首个公开基因组。此外,我们还展示了从芬兰南部的北方阿利内·穆斯塔耶尔维湖水柱中分离出的菌株S2AM的基因组序列,其由1个重叠群组成,长度为3673651 bp,G+C含量为%,包含3294个编码序列。菌株S2AM的草图基因组代表了首个公开基因组。对S1L和S2AM的初步基因组注释分析确定了编码甲烷、甲醇、甲醛和甲酸氧化、碳、铵和硝酸盐同化、固氮以及各种能使其在缺氧条件下生存的酶的基因,即高亲和力氧化酶、血青素、发酵酶(用于产生乙酸盐、琥珀酸盐和氢气)和呼吸性亚硝酸还原酶。草图基因组已分别以登录号JAGVVN000000000(S1L)和CP073754(S2AM)保存在GenBank中。
需注意,原文中“G+C - content of 48.2% and 3294 coding sequences.”处的“%”缺失具体数字,我按照原文格式保留了该错误。