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. 2022 Jul 13;11(8):e00529-22. doi: 10.1128/mra.00529-22

Nearly Complete Genome Sequences of 12 Types of Human Rhinoviruses Isolated from Pediatric Inpatients in Fukushima, Japan

Kazutaka Egawa a, Masatoshi Kakizaki a, Yohei Kume b, Reiko Suwa a, Miyuki Kawase a, Takashi Ono b, Mina Chishiki b, Hisao Okabe b, Sakurako Norito b, Masatoki Sato b, Hiroko Sakuma c, Shigeo Suzuki d, Mitsuaki Hosoya b, Makoto Takeda a, Koichi Hashimoto b, Kazuya Shirato a,
Editor: Kenneth M Stedmane
PMCID: PMC9387279  PMID: 35862917

ABSTRACT

We reported nearly complete genomic sequences of 12 serotypes of human rhinoviruses (HRVs) isolated from pediatric inpatients in Fukushima, Japan using an air-liquid interface culture of human bronchial tracheal epithelial cells. We found that various serotypes of HRV circulated locally and simultaneously from 2018 to 2021.

ANNOUNCEMENT

Human rhinoviruses (HRVs) belong to the family Picornaviridae and have a genome that consists of approximately 7.2 kb of positive-sense single-stranded RNA. There are three main species of HRVs (A, B, C) and more than 160 (sero)types (1, 2). Once the HRV types were distinguished by serological assays. Currently, they are distinguished by genetic methods due to the difficulty of virus propagation in cell cultures (3). The HRV genome comprises a 5′ untranslated region that contains an internal ribosome entry site, a single open reading frame, and a 3′ untranslated region (4). HRVs are a major cause of pediatric pneumonia following respiratory syncytial virus infection and sometimes cause severe acute respiratory infections in children (58). HRVs have also been detected in coinfections with acute respiratory pathogens (79), and coinfection with coronaviruses has recently been reported to affect the outcome of diseases by exacerbating or reducing virus infections (10, 11).

In this study, 12 HRVs were successfully isolated from specimens obtained from pediatric patients with severe acute respiratory infections in Fukushima, Japan, and their nearly complete genomic sequences were obtained (Table 1). Nasopharyngeal swabs were collected from 2018 to 2021, and those that were HRV positive by multiplex real-time PCR for respiratory viruses (1214) were used for virus isolation. The air-liquid interface culture of human bronchial/tracheal epithelial cells (HBTEC-ALI) was prepared as described previously (1517). At 7 or 11 days after inoculation onto HBTEC-ALI culture with specimens, cells were washed with a culture medium, and the presence of virus in cell wash was confirmed by real-time RT-PCR. The cell wash showed that HRV positive was stored as virus stock. Nucleic acids were extracted from virus stock using a QIAamp Viral RNA Mini kit (Qiagen, Hilden, Germany). Libraries for next-generation sequencing were prepared using a NEBNext Ultra II RNA Library Prep Kit for Illumina (New England Biolabs, Ipswich, MA, USA) following the manufacturer’s instructions. The indexed libraries were analyzed for 2 × 150 cycles on a DNBSEQ-G400 sequencer at Genewiz (South Plainfield, NJ, USA). Reads were trimmed and then de novo assembled using the CLC Genomics Workbench (v21.0.4, Qiagen) with default settings. The assembled sequences were analyzed on BLASTn (https://blast.ncbi.nlm.nih.gov/Blast.cgi?PROGRAM=blastn&BLAST_SPEC=GeoBlast&PAGE_TYPE=BlastSearch) and the sequence that showed the highest similarity was considered the HRV type of the assembled sequence. The coverage was calculated by mapping of reads to the assembled sequence.

TABLE 1.

Details of the 12 human retroviruses (HRVs) isolated in this study

Name Accession no. Run data accession no. Total reads Total mapped read Average of coverage Length GC% Species and type No. of registered complete genomic sequencesa Coinfectionb Cp value of specimen
Fukushima_H260_2018 LC699414 DRR374977 20,955,278 570,481 10,849.94 7,180 38.05 A78 40 PIV3, HBoV 38.13
Fukushima_H287_2018 LC699415 DRR374978 12,042,228 348,159 6,925.07 7,185 37.63 A24 20 RSVB, PIV3, HBoV 37.98
Fukushima_H504_2019 LC699416 DRR374979 19,252,620 542,834 10,822.21 7,122 38.92 A54 4 ADV2, hMPV 33.87
Fukushima_H555_2019 LC699417 DRR374980 23,129,996 608,521 12,230.00 7,150 38.83 A81 3 RSVB, ADV2, ADV4, hMPV 32.8
Fukushima_H561_2019 LC699418 DRR374981 12,473,136 830,017 15,718.68 7,150 38.39 A16 2 RSVB, PIV3, ADV4, HBoV 31.39
Fukushima_H581_2019 LC699419 DRR374982 17,532,206 1,938,266 37,427.98 7,189 39.07 A88 1 RSVA, PIV3, ADV2, HBoV 34.66
Fukushima_H681_2019 LC699420 DRR374983 17,366,078 526,938 10,336.42 7,143 38.83 A58 7 25.58
Fukushima_HR13_2020 LC699421 DRR374984 9,147,658 474,174 9,396.38 7,146 37.59 A21 4 24.21
Fukushima_OR4-2_2020 LC699422 DRR374985 18,567,126 1,032,272 20,467.83 7,142 38.46 A60 4 24.86
Fukushima_OR65_2020 LC699423 DRR374986 13,280,800 99,660 1,994.51 7,094 39.02 A80 10 HBoV 29.57
Fukushima_OR274_2021 LC699424 DRR374987 20,955,278 570,481 10,849.94 7,067 38.05 A1 207 RSVA, ADV2, HBoV 34.95
Fukushima_H399_2018 LC699425 DRR374988 15,474,968 6,254 127.50 7,041 43.15 C3 36 RSVB 27.78
a

Number of nearly complete HRV genomic sequences in GenBank other than those obtained in this study.

b

Coinfection was determined by multiplex real-time PCR assays for respiratory viruses. PIV, parainfluenzavirus; HBoV, human bocavirus; RSV, respiratory syncytial virus; ADV, adenovirus; hMPV, human metapneumovirus.

Among the 12 HRV isolates, three were mono-infections and nine were coinfections with other viruses (Table 1). Using real-time RT-PCR tests to detect HRVs, the Cp values ranged from 24.21 to 38.13. The Cp values in the coinfection samples were high. The type of each isolate was different. Among them, the number of registered complete sequences was very small for several types (Table 1). The 12 isolates and their genomic sequence information will be helpful to study virus characteristics, such as serological responses, in rare types.

Data availability.

The 12 nearly complete HRV genome sequences have been deposited in GenBank under accession numbers LC699414, LC699415, LC699416, LC699417, LC699418, LC699419, LC699420, LC699421, LC699422, LC699423, LC699424, and LC699425 (Table 1). The raw reads have been deposited under BioProject number PRJDB13572. Each run data set has been deposited in DDBJ under accession number DRR374977, DRR374978, DRR374979, DRR374980, DRR374981, DRR374982, DRR374983, DRR374984, DRR374985, DRR374986, DRR374987, and DRR374988.

ACKNOWLEDGMENTS

This work was supported by Grants-in-Aid from the Japan Agency for Medical Research and Development (grant numbers 20fk0108119h0601 and 21fk0108119j0602). Human subjects were enrolled after approval from the Ethics Committee of the National Institute of Infectious Diseases (approval numbers 1001, 1087).

We declare no conflict of interest.

Contributor Information

Kazuya Shirato, Email: shirato@niid.go.jp.

Kenneth M. Stedman, Portland State University

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Data Availability Statement

The 12 nearly complete HRV genome sequences have been deposited in GenBank under accession numbers LC699414, LC699415, LC699416, LC699417, LC699418, LC699419, LC699420, LC699421, LC699422, LC699423, LC699424, and LC699425 (Table 1). The raw reads have been deposited under BioProject number PRJDB13572. Each run data set has been deposited in DDBJ under accession number DRR374977, DRR374978, DRR374979, DRR374980, DRR374981, DRR374982, DRR374983, DRR374984, DRR374985, DRR374986, DRR374987, and DRR374988.


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