Current status and future development of infectious cell-culture models for the major genotypes of hepatitis C virus: Essential tools in testing of antivirals and emerging vaccine strategies

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Current status and future development of infectious cell-culture models for the major genotypes of hepatitis C virus : Essential tools in testing of antivirals and emerging vaccine strategies. / Ramirez, Santseharay; Bukh, Jens.

In: Antiviral Research, Vol. 158, 2018, p. 264-287.

Research output: Contribution to journalReviewResearchpeer-review

Harvard

Ramirez, S & Bukh, J 2018, 'Current status and future development of infectious cell-culture models for the major genotypes of hepatitis C virus: Essential tools in testing of antivirals and emerging vaccine strategies', Antiviral Research, vol. 158, pp. 264-287. https://doi.org/10.1016/j.antiviral.2018.07.014

APA

Ramirez, S., & Bukh, J. (2018). Current status and future development of infectious cell-culture models for the major genotypes of hepatitis C virus: Essential tools in testing of antivirals and emerging vaccine strategies. Antiviral Research, 158, 264-287. https://doi.org/10.1016/j.antiviral.2018.07.014

Vancouver

Ramirez S, Bukh J. Current status and future development of infectious cell-culture models for the major genotypes of hepatitis C virus: Essential tools in testing of antivirals and emerging vaccine strategies. Antiviral Research. 2018;158:264-287. https://doi.org/10.1016/j.antiviral.2018.07.014

Author

Ramirez, Santseharay ; Bukh, Jens. / Current status and future development of infectious cell-culture models for the major genotypes of hepatitis C virus : Essential tools in testing of antivirals and emerging vaccine strategies. In: Antiviral Research. 2018 ; Vol. 158. pp. 264-287.

Bibtex

@article{a12295f0171f445484e2f1d258e18707,
title = "Current status and future development of infectious cell-culture models for the major genotypes of hepatitis C virus: Essential tools in testing of antivirals and emerging vaccine strategies",
abstract = "In this review, we summarize the relevant scientific advances that led to the development of infectious cell culture systems for hepatitis C virus (HCV) with the corresponding challenges and successes. We also provide an overview of how these systems have contributed to the study of antiviral compounds and their relevance for the development of a much-needed vaccine against this major human pathogen. An efficient infectious system to study HCV in vitro, using human hepatoma derived cells, has only been available since 2005, and was limited to a single isolate, named JFH1, until 2012. Successive developments have been slow and cumbersome, as each available system has been the result of a systematic effort for discovering adaptive mutations conferring culture replication and propagation to patient consensus clones that are inherently non-viable in vitro. High genetic heterogeneity is a paramount characteristic of this virus, and as such, it should preferably be reflected in basic, translational, and clinical studies. The limited number of efficient viral culture systems, in the context of the vast genetic diversity of HCV, continues to represent a major hindrance for the study of this virus, posing a significant barrier towards studies of antivirals (particularly of resistance) and for advancing vaccine development. Intensive research efforts, driven by isolate-specific culture adaptation, have only led to efficient full-length infectious culture systems for a few strains of HCV genotypes 1, 2, 3, and 6. Hence research aimed at identifying novel strategies that will permit universal culture of HCV will be needed to further our understanding of this unique virus causing 400 thousand deaths annually.",
keywords = "Cell culture, Chimeric HCV, DAA, Direct acting antivirals, Full-length HCV, HCV, HCV treatment in vitro, HCV vaccine, HCVcc, Hepatitis C virus, In vitro, Neutralizing antibodies, Pseudo-particle, Replicon",
author = "Santseharay Ramirez and Jens Bukh",
year = "2018",
doi = "10.1016/j.antiviral.2018.07.014",
language = "English",
volume = "158",
pages = "264--287",
journal = "Antiviral Research",
issn = "0166-3542",
publisher = "Elsevier",

}

RIS

TY - JOUR

T1 - Current status and future development of infectious cell-culture models for the major genotypes of hepatitis C virus

T2 - Essential tools in testing of antivirals and emerging vaccine strategies

AU - Ramirez, Santseharay

AU - Bukh, Jens

PY - 2018

Y1 - 2018

N2 - In this review, we summarize the relevant scientific advances that led to the development of infectious cell culture systems for hepatitis C virus (HCV) with the corresponding challenges and successes. We also provide an overview of how these systems have contributed to the study of antiviral compounds and their relevance for the development of a much-needed vaccine against this major human pathogen. An efficient infectious system to study HCV in vitro, using human hepatoma derived cells, has only been available since 2005, and was limited to a single isolate, named JFH1, until 2012. Successive developments have been slow and cumbersome, as each available system has been the result of a systematic effort for discovering adaptive mutations conferring culture replication and propagation to patient consensus clones that are inherently non-viable in vitro. High genetic heterogeneity is a paramount characteristic of this virus, and as such, it should preferably be reflected in basic, translational, and clinical studies. The limited number of efficient viral culture systems, in the context of the vast genetic diversity of HCV, continues to represent a major hindrance for the study of this virus, posing a significant barrier towards studies of antivirals (particularly of resistance) and for advancing vaccine development. Intensive research efforts, driven by isolate-specific culture adaptation, have only led to efficient full-length infectious culture systems for a few strains of HCV genotypes 1, 2, 3, and 6. Hence research aimed at identifying novel strategies that will permit universal culture of HCV will be needed to further our understanding of this unique virus causing 400 thousand deaths annually.

AB - In this review, we summarize the relevant scientific advances that led to the development of infectious cell culture systems for hepatitis C virus (HCV) with the corresponding challenges and successes. We also provide an overview of how these systems have contributed to the study of antiviral compounds and their relevance for the development of a much-needed vaccine against this major human pathogen. An efficient infectious system to study HCV in vitro, using human hepatoma derived cells, has only been available since 2005, and was limited to a single isolate, named JFH1, until 2012. Successive developments have been slow and cumbersome, as each available system has been the result of a systematic effort for discovering adaptive mutations conferring culture replication and propagation to patient consensus clones that are inherently non-viable in vitro. High genetic heterogeneity is a paramount characteristic of this virus, and as such, it should preferably be reflected in basic, translational, and clinical studies. The limited number of efficient viral culture systems, in the context of the vast genetic diversity of HCV, continues to represent a major hindrance for the study of this virus, posing a significant barrier towards studies of antivirals (particularly of resistance) and for advancing vaccine development. Intensive research efforts, driven by isolate-specific culture adaptation, have only led to efficient full-length infectious culture systems for a few strains of HCV genotypes 1, 2, 3, and 6. Hence research aimed at identifying novel strategies that will permit universal culture of HCV will be needed to further our understanding of this unique virus causing 400 thousand deaths annually.

KW - Cell culture

KW - Chimeric HCV

KW - DAA

KW - Direct acting antivirals

KW - Full-length HCV

KW - HCV

KW - HCV treatment in vitro

KW - HCV vaccine

KW - HCVcc

KW - Hepatitis C virus

KW - In vitro

KW - Neutralizing antibodies

KW - Pseudo-particle

KW - Replicon

U2 - 10.1016/j.antiviral.2018.07.014

DO - 10.1016/j.antiviral.2018.07.014

M3 - Review

C2 - 30059723

AN - SCOPUS:85052852621

VL - 158

SP - 264

EP - 287

JO - Antiviral Research

JF - Antiviral Research

SN - 0166-3542

ER -

ID: 203869360