Evaluation of multiplex nanopore sequencing for Salmonella serotype prediction and antimicrobial resistance gene and virulence gene detection

In a previous study, Multiplex-nanopore-sequencing based whole genome sequencing (WGS) allowed for accurate in silico serotype prediction of Salmonella within one day for five multiplexed isolates, using both SISTR and SeqSero2. Since only ten serotypes were tested in our previous study, the conclus...

Full description

Bibliographic Details
Main Authors: Xingwen Wu, Hao Luo, Chongtao Ge, Feng Xu, Xiangyu Deng, Martin Wiedmann, Robert C. Baker, Abigail E. Stevenson, Guangtao Zhang, Silin Tang
Format: Article
Language:English
Published: Frontiers Media S.A. 2023-02-01
Series:Frontiers in Microbiology
Subjects:
Online Access:https://www.frontiersin.org/articles/10.3389/fmicb.2022.1073057/full
_version_ 1797937177792872448
author Xingwen Wu
Hao Luo
Chongtao Ge
Feng Xu
Xiangyu Deng
Martin Wiedmann
Robert C. Baker
Abigail E. Stevenson
Guangtao Zhang
Silin Tang
author_facet Xingwen Wu
Hao Luo
Chongtao Ge
Feng Xu
Xiangyu Deng
Martin Wiedmann
Robert C. Baker
Abigail E. Stevenson
Guangtao Zhang
Silin Tang
author_sort Xingwen Wu
collection DOAJ
description In a previous study, Multiplex-nanopore-sequencing based whole genome sequencing (WGS) allowed for accurate in silico serotype prediction of Salmonella within one day for five multiplexed isolates, using both SISTR and SeqSero2. Since only ten serotypes were tested in our previous study, the conclusions above were yet to be evaluated in a larger scale test. In the current study we evaluated this workflow with 69 Salmonella serotypes and also explored the feasibility of using multiplex-nanopore-sequencing based WGS for antimicrobial resistance gene (AMR) and virulence gene detection. We found that accurate in silico serotype prediction with nanopore-WGS data was achieved within about five hours of sequencing at a minimum of 30× Salmonella genome coverage, with SeqSero2 as the serotype prediction tool. For each tested isolate, small variations were observed between the AMR/virulence gene profiles from the Illumina and Nanopore sequencing platforms. Taking results generated using Illumina data as the benchmark, the average precision value per isolate was 0.99 for both AMR and virulence gene detection. We found that the resistance gene identifier – RGI identified AMR genes with nanopore data at a much lower accuracy compared to Abricate, possibly due to RGI’s less stringent minimum similarity and coverage by default for database matching. This study is an evaluation of multiplex-nanopore-sequencing based WGS as a cost-efficient and rapid Salmonella classification method, and a starting point for future validation and verification of using it as a AMR/virulence gene profiling tool for the food industry. This study paves the way for the application of nanopore sequencing in surveillance, tracking, and risk assessment of Salmonella across the food supply chain.
first_indexed 2024-04-10T18:40:37Z
format Article
id doaj.art-56361d956c62443c907d2ef14ceb4f91
institution Directory Open Access Journal
issn 1664-302X
language English
last_indexed 2024-04-10T18:40:37Z
publishDate 2023-02-01
publisher Frontiers Media S.A.
record_format Article
series Frontiers in Microbiology
spelling doaj.art-56361d956c62443c907d2ef14ceb4f912023-02-01T14:23:46ZengFrontiers Media S.A.Frontiers in Microbiology1664-302X2023-02-011310.3389/fmicb.2022.10730571073057Evaluation of multiplex nanopore sequencing for Salmonella serotype prediction and antimicrobial resistance gene and virulence gene detectionXingwen Wu0Hao Luo1Chongtao Ge2Feng Xu3Xiangyu Deng4Martin Wiedmann5Robert C. Baker6Abigail E. Stevenson7Guangtao Zhang8Silin Tang9Mars Global Food Safety Center, Beijing, ChinaMars Global Food Safety Center, Beijing, ChinaMars Global Food Safety Center, Beijing, ChinaMars Global Food Safety Center, Beijing, ChinaCenter for Food Safety, University of Georgia, Griffin, GA, United StatesDepartment of Food Science, Cornell University, Ithaca, NY, United StatesMars Global Food Safety Center, Beijing, ChinaMars Global Food Safety Center, Beijing, ChinaMars Global Food Safety Center, Beijing, ChinaMars Global Food Safety Center, Beijing, ChinaIn a previous study, Multiplex-nanopore-sequencing based whole genome sequencing (WGS) allowed for accurate in silico serotype prediction of Salmonella within one day for five multiplexed isolates, using both SISTR and SeqSero2. Since only ten serotypes were tested in our previous study, the conclusions above were yet to be evaluated in a larger scale test. In the current study we evaluated this workflow with 69 Salmonella serotypes and also explored the feasibility of using multiplex-nanopore-sequencing based WGS for antimicrobial resistance gene (AMR) and virulence gene detection. We found that accurate in silico serotype prediction with nanopore-WGS data was achieved within about five hours of sequencing at a minimum of 30× Salmonella genome coverage, with SeqSero2 as the serotype prediction tool. For each tested isolate, small variations were observed between the AMR/virulence gene profiles from the Illumina and Nanopore sequencing platforms. Taking results generated using Illumina data as the benchmark, the average precision value per isolate was 0.99 for both AMR and virulence gene detection. We found that the resistance gene identifier – RGI identified AMR genes with nanopore data at a much lower accuracy compared to Abricate, possibly due to RGI’s less stringent minimum similarity and coverage by default for database matching. This study is an evaluation of multiplex-nanopore-sequencing based WGS as a cost-efficient and rapid Salmonella classification method, and a starting point for future validation and verification of using it as a AMR/virulence gene profiling tool for the food industry. This study paves the way for the application of nanopore sequencing in surveillance, tracking, and risk assessment of Salmonella across the food supply chain.https://www.frontiersin.org/articles/10.3389/fmicb.2022.1073057/fullwhole genome sequencingOxford Nanopore TechnologiesSalmonellaserotype predictionfoodborne pathogensfood safety
spellingShingle Xingwen Wu
Hao Luo
Chongtao Ge
Feng Xu
Xiangyu Deng
Martin Wiedmann
Robert C. Baker
Abigail E. Stevenson
Guangtao Zhang
Silin Tang
Evaluation of multiplex nanopore sequencing for Salmonella serotype prediction and antimicrobial resistance gene and virulence gene detection
Frontiers in Microbiology
whole genome sequencing
Oxford Nanopore Technologies
Salmonella
serotype prediction
foodborne pathogens
food safety
title Evaluation of multiplex nanopore sequencing for Salmonella serotype prediction and antimicrobial resistance gene and virulence gene detection
title_full Evaluation of multiplex nanopore sequencing for Salmonella serotype prediction and antimicrobial resistance gene and virulence gene detection
title_fullStr Evaluation of multiplex nanopore sequencing for Salmonella serotype prediction and antimicrobial resistance gene and virulence gene detection
title_full_unstemmed Evaluation of multiplex nanopore sequencing for Salmonella serotype prediction and antimicrobial resistance gene and virulence gene detection
title_short Evaluation of multiplex nanopore sequencing for Salmonella serotype prediction and antimicrobial resistance gene and virulence gene detection
title_sort evaluation of multiplex nanopore sequencing for salmonella serotype prediction and antimicrobial resistance gene and virulence gene detection
topic whole genome sequencing
Oxford Nanopore Technologies
Salmonella
serotype prediction
foodborne pathogens
food safety
url https://www.frontiersin.org/articles/10.3389/fmicb.2022.1073057/full
work_keys_str_mv AT xingwenwu evaluationofmultiplexnanoporesequencingforsalmonellaserotypepredictionandantimicrobialresistancegeneandvirulencegenedetection
AT haoluo evaluationofmultiplexnanoporesequencingforsalmonellaserotypepredictionandantimicrobialresistancegeneandvirulencegenedetection
AT chongtaoge evaluationofmultiplexnanoporesequencingforsalmonellaserotypepredictionandantimicrobialresistancegeneandvirulencegenedetection
AT fengxu evaluationofmultiplexnanoporesequencingforsalmonellaserotypepredictionandantimicrobialresistancegeneandvirulencegenedetection
AT xiangyudeng evaluationofmultiplexnanoporesequencingforsalmonellaserotypepredictionandantimicrobialresistancegeneandvirulencegenedetection
AT martinwiedmann evaluationofmultiplexnanoporesequencingforsalmonellaserotypepredictionandantimicrobialresistancegeneandvirulencegenedetection
AT robertcbaker evaluationofmultiplexnanoporesequencingforsalmonellaserotypepredictionandantimicrobialresistancegeneandvirulencegenedetection
AT abigailestevenson evaluationofmultiplexnanoporesequencingforsalmonellaserotypepredictionandantimicrobialresistancegeneandvirulencegenedetection
AT guangtaozhang evaluationofmultiplexnanoporesequencingforsalmonellaserotypepredictionandantimicrobialresistancegeneandvirulencegenedetection
AT silintang evaluationofmultiplexnanoporesequencingforsalmonellaserotypepredictionandantimicrobialresistancegeneandvirulencegenedetection