Literature DB >> 33260903

Assessment of Viral Targeted Sequence Capture Using Nanopore Sequencing Directly from Clinical Samples.

Leonard Schuele1,2, Hayley Cassidy1, Erley Lizarazo1, Katrin Strutzberg-Minder3, Sabine Schuetze4, Sandra Loebert4, Claudia Lambrecht4, Juergen Harlizius4, Alex W Friedrich1, Silke Peter2, Hubert G M Niesters1, John W A Rossen1,5, Natacha Couto1,6.   

Abstract

Shotgun metagenomic sequencing (SMg) enables the simultaneous detection and characterization of viruses in human, animal and environmental samples. However, lack of sensitivity still poses a challenge and may lead to poor detection and data acquisition for detailed analysis. To improve sensitivity, we assessed a broad scope targeted sequence capture (TSC) panel (ViroCap) in both human and animal samples. Moreover, we adjusted TSC for the Oxford Nanopore MinION and compared the performance to an SMg approach. TSC on the Illumina NextSeq served as the gold standard. Overall, TSC increased the viral read count significantly in challenging human samples, with the highest genome coverage achieved using the TSC on the MinION. TSC also improved the genome coverage and sequencing depth in clinically relevant viruses in the animal samples, such as influenza A virus. However, SMg was shown to be adequate for characterizing a highly diverse animal virome. TSC on the MinION was comparable to the NextSeq and can provide a valuable alternative, offering longer reads, portability and lower initial cost. Developing new viral enrichment approaches to detect and characterize significant human and animal viruses is essential for the One Health Initiative.

Entities:  

Keywords:  next-generation sequencing; one health; porcine viruses; shotgun metagenomic sequencing; targeted sequence capture; viral metagenomics; virome

Year:  2020        PMID: 33260903     DOI: 10.3390/v12121358

Source DB:  PubMed          Journal:  Viruses        ISSN: 1999-4915            Impact factor:   5.048


  5 in total

1.  Exploring a prolonged enterovirus C104 infection in a severely ill patient using nanopore sequencing.

Authors:  Hayley Cassidy; Leonard Schuele; Erley Lizarazo-Forero; Natacha Couto; John W A Rossen; Alex W Friedrich; Coretta van Leer-Buter; Hubert G M Niesters
Journal:  Virus Evol       Date:  2022-03-18

2.  Untangling an AGS Outbreak Caused by the Recombinant GII.12[P16] Norovirus With Nanopore Sequencing.

Authors:  Qianling Xiong; Huimin Jiang; Zhe Liu; Jinju Peng; Jing Sun; Ling Fang; Caixia Li; Ming Qiu; Xin Zhang; Jing Lu
Journal:  Front Cell Infect Microbiol       Date:  2022-07-05       Impact factor: 6.073

3.  Rapid PCR-Based Nanopore Adaptive Sequencing Improves Sensitivity and Timeliness of Viral Clinical Detection and Genome Surveillance.

Authors:  Yanfeng Lin; Yan Dai; Yuqi Liu; Zhuli Ren; Hao Guo; Zhenzhong Li; Jinhui Li; Kaiying Wang; Lang Yang; Shuang Zhang; Hongbo Liu; Leili Jia; Ming Ni; Peng Li; Hongbin Song
Journal:  Front Microbiol       Date:  2022-06-16       Impact factor: 6.064

4.  Assessment of Rapid MinION Nanopore DNA Virus Meta-Genomics Using Calves Experimentally Infected with Bovine Herpes Virus-1.

Authors:  Gaelle Esnault; Bernadette Earley; Paul Cormican; Sinead M Waters; Ken Lemon; S Louise Cosby; Paula Lagan; Thomas Barry; Kate Reddington; Matthew S McCabe
Journal:  Viruses       Date:  2022-08-24       Impact factor: 5.818

5.  Application of shotgun metagenomics sequencing and targeted sequence capture to detect circulating porcine viruses in the Dutch-German border region.

Authors:  Leonard Schuele; Erley Lizarazo-Forero; Katrin Strutzberg-Minder; Sabine Schütze; Sandra Löbert; Claudia Lambrecht; Jürgen Harlizius; Alex W Friedrich; Silke Peter; John W A Rossen; Natacha Couto
Journal:  Transbound Emerg Dis       Date:  2021-08-28       Impact factor: 4.521

  5 in total

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