乌克兰分离的一些 SARS-COV-2 病毒的全基因组测序及其遗传变异分析

IF 0.4 Q4 AGRICULTURE, MULTIDISCIPLINARY Agricultural Science and Practice Pub Date : 2024-02-28 DOI:10.15407/agrisp10.03.003
S. Nychyk, M. S. Mandygra, M. V. Bezymennyi, N. Hudz, A. Molozhanova, O. Tarasov
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The Ion Torrent S5 instrument (Ox- ford Nanopore, the USA) was used to sequence the mentioned SARS-CoV-2 isolates, originating from Ukraine. TorrentSuite 5.16.1 was used for data processing and analysis. Nextclade 2.3.0 was used for phylogenetic analysis to locate the 6 sequenced samples on the global phylogenetic tree. It was determined phylogenetic relations be- tween tested 6 sequences and 495 verified sequences of high quality, reported in Ukraine and deposited in the GI- SAID EpiCoVTM database, (https://gisaid.org/) for the period of January 2020 – December 2022. In the compari- son of sequences obtained, the sequence of SARS-CoV-2 virus isolate Wuhan-Hu-1 (GenBank NC_045512.2) was used as a reference sequence, according to which the sequences were aligned. All studies were carried out in the laboratory of the Research Training Center for Animal Disease Diagnostics at the Institute of Veterinary Medicine of the National Academy of Sciences of Ukraine. Results. 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引用次数: 0

摘要

目的目的是获得乌克兰动物卫生部门利用全基因组测序方法检测和正确识别 SARS-CoV-2 病毒及其基因变异性的经验,以应对未来该病毒可能在动物中传播的情况。方法。乌克兰卫生部公共卫生中心提供了 16 份 SARS-CoV-2 阳性样本,这些样本以前未进行过测序。这些样本来自 2021 年 10 月初至 11 月中旬的住院病人。病毒 RNA 从 SARS-CoV-2 qPCR 阳性(Ct 21-28)的中度和重度症状住院患者(男性和女性)的鼻咽拭子样本中分离出来。样本完全匿名。使用 Ion Torrent S5 仪器(美国 Ox- ford Nanopore 公司)对上述来自乌克兰的 SARS-CoV-2 分离物进行测序。数据处理和分析使用了 TorrentSuite 5.16.1。Nextclade 2.3.0 用于系统发育分析,在全球系统发育树上定位 6 个测序样本。该分析确定了 6 个测试序列与 495 个经过验证的高质量序列之间的系统发育关系,这些序列在 2020 年 1 月至 2022 年 12 月期间在乌克兰报告并存入 GI- SAID EpiCoVTM 数据库(https://gisaid.org/)。在对获得的序列进行比较时,以 SARS-CoV-2 病毒分离株武汉-胡-1 的序列(GenBank NC_045512.2)为参考序列,并根据该序列对序列进行比对。所有研究均在乌克兰国家科学院兽医研究所动物疾病诊断研究培训中心实验室进行。研究结果在检测的 16 个分离株中,所有分离株都被证实含有 SARS-CoV-2 RNA,其中只有 6 个分离株的测序质量足够高,可以进行分类,其中 5 个属于 Delta 变异株(2 个属于 AY.126 系)。(B.1.617.2.33),两个属于 AY.122(B.1.617.2.122),一个属于 AY.4.2.3(B.1.617.2.4.2)),一个属于 Omicron 变异株 (BA.1.18)。在我们的分离株中检测到的重要变异是病毒包膜尖峰蛋白基因中的 S:N501Y 替换和 S:H69 缺失。在所检测的分离株中,奥米克隆变异株(BA.1.18)的基因变异性更大,与之前的变异株相比,有 60 多个变异。在我们的调查中,我们在已测序的德尔塔变异株中也发现了突变,与参考的武汉-胡-1(MN908947)变异株相比,AY.122(B.1.617.2.122)基因组中有 35 个突变,AY.126(B.1.617.2.33)基因组中有 41 个突变。在感染性方面发现的重要变异有:1)Delta 变种:RBD区的T478K、L452R突变,以及2)Omicron变体:S371L、G339D、S375F、S373P、K417N、N440K、S477N、G446S、E484A、T478K、Q493R、Q498R、G496S、N501Y 和 Y505H 突变。结论对 6 株 SARS-CoV-2 病毒分离株进行了全基因组测序,发现了 3 个 Delta 变异亚系:AY.126(B.1.617.2.33)、AY.122(B.1.617.2.122)、AY.4.2.3(B.1.617.2.4.2)和一个Omicron变异株亚系(BA.1.18),它们都以EPI_SET_230516yp的形式存入国际数据库GISAID。本研究获得的数据是对乌克兰卫生部提供的现有数据的补充,可用于实验室(包括兽医实验室)检测危险动物群体中的 SARS-CoV-2 病毒,以防止该疾病向人类和动物传播,并检测病原体基因组中可能影响感染性和致病性的突变。
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Whole-genome sequencing of some Ukrainian isolates of SARS-COV-2 virus and analysis of its genetic variability
Aim. The aim was to gain experience of the animal health services to detect and properly identify SARS-CoV-2 virus with whole-genome sequencing method and its genetic variability in Ukraine in relation to possible future spread of the virus in animals. Methods. Sixteen SARS-CoV-2 positive samples, not sequenced before, were pro- vided by the Center for Public Health of the Ministry of Health of Ukraine. These samples were obtained from hos- pitalized patients from early October to mid-November of 2021. The viral RNA was isolated from nasopharyngeal swab samples of SARS-CoV-2 qPCR positive (Ct 21-28) patients (males and females) with moderate and severe symptoms who were being hospitalized. The samples were fully anonymized. The Ion Torrent S5 instrument (Ox- ford Nanopore, the USA) was used to sequence the mentioned SARS-CoV-2 isolates, originating from Ukraine. TorrentSuite 5.16.1 was used for data processing and analysis. Nextclade 2.3.0 was used for phylogenetic analysis to locate the 6 sequenced samples on the global phylogenetic tree. It was determined phylogenetic relations be- tween tested 6 sequences and 495 verified sequences of high quality, reported in Ukraine and deposited in the GI- SAID EpiCoVTM database, (https://gisaid.org/) for the period of January 2020 – December 2022. In the compari- son of sequences obtained, the sequence of SARS-CoV-2 virus isolate Wuhan-Hu-1 (GenBank NC_045512.2) was used as a reference sequence, according to which the sequences were aligned. All studies were carried out in the laboratory of the Research Training Center for Animal Disease Diagnostics at the Institute of Veterinary Medicine of the National Academy of Sciences of Ukraine. Results. Among the 16 isolates tested, all were confirmed to con- tain SARS-CoV-2 RNA, of which only six isolates were sequenced with sufficient quality and could be classified, five of them as Delta variants (two belong to lineage AY.126 (B.1.617.2.33), two to AY.122 (B.1.617.2.122), and one to AY.4.2.3 (B.1.617.2.4.2)), and one isolate as an Omicron variant (BA.1.18). Important mutations detected in our isolates were a S:N501Y substitution and S:H69 deletion in the gene of the virus envelope spike protein. Among the examined isolates, the Omicron variant (BA.1.18) was found to exhibit greater genetic variability, with over 60 mutations compared to previous variants. In our investigation, we identified mutations in the sequenced Delta variants too, ranging from 35 mutations in AY.122 (B.1.617.2.122) to 41 mutations in AY.126 (B.1.617.2.33) in the genome compared to the reference Wuhan-Hu-1 (MN908947) variant. Important mutations found regarding infectivity were 1) for the Delta variants: T478K, L452R mutations in the RBD region, and 2) for the Omicron variant: S371L, G339D, S375F, S373P, K417N, N440K, S477N, G446S, E484A, T478K, Q493R, Q498R, G496S, N501Y, and Y505H mutations in the RBD region. Conclusions. The whole-genome sequencing of 6 isolates of SARS-CoV-2 virus was performed, and three sublines of the Delta variant were found: AY.126 (B.1.617.2.33), AY.122 (B.1.617.2.122), AY.4.2.3 (B.1.617.2.4.2) and one subline for the Omicron variant (BA.1.18), all of which were deposited in the international database GISAID as EPI_SET_230516yp. The data obtained in this study add to the existing ones delivered by the Ministry of Health in Ukraine and can be used in laboratories, (including veterinary ones), detecting the SARS-CoV-2 virus in risk animal populations, in order to prevent the spread of the disease to humans and animals, as well as to detect possible mutational changes in the pathogen genome that may affect infectivity and pathogenicity.
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Agricultural Science and Practice
Agricultural Science and Practice AGRICULTURE, MULTIDISCIPLINARY-
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