Characterization of Multidrug-Resistant Influenza A/H3N2 Viruses Shed during 1 Year by an Immunocompromised Child

Background. Development of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral transmission to others. Methods.A total of 17 influenza A/H3N2 isolates were recovered over a period of 1 year from an immunocompromised child w...

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Published inClinical infectious diseases Vol. 43; no. 12; pp. 1555 - 1561
Main Authors Baz, Mariana, Abed, Yacine, McDonald, Jane, Boivin, Guy
Format Journal Article
LanguageEnglish
Published Chicago, IL The University of Chicago Press 15.12.2006
University of Chicago Press
Oxford University Press
Subjects
Online AccessGet full text
ISSN1058-4838
1537-6591
1537-6591
DOI10.1086/508777

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Abstract Background. Development of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral transmission to others. Methods.A total of 17 influenza A/H3N2 isolates were recovered over a period of 1 year from an immunocompromised child who was initially treated with oseltamivir and then with amantadine and zanamivir for viral pneumonitis. Drug susceptibility phenotypes to oseltamivir, zanamivir, and peramivir were evaluated by neuraminidase (NA) inhibition assays, and sequence analysis of key viral genes (i.e., M2, NA, and hemagglutinin [HA]) was performed. The impact of NA mutations identified in oseltamivir-resistant isolates was analyzed using recombinant NA proteins. Results. An influenza A variant with NA mutations E59G, E119V, and I222V was first detected after 38 days of oseltamivir treatment. In an NA inhibition assay, this variant was 274 times more resistant to oseltamivir than the original isolate but was susceptible to zanamivir. The I222V substitution enhanced the level of oseltamivir resistance that was primarily conferred by the E119V mutation in recombinant NA proteins. Remarkably, the E119V mutation persisted for 8 months after cessation of oseltamivir. Amantadine therapy led to rapid emergence of the M2 mutation S31N, which is known to confer amantadine resistance. The patient shed the virus intermittently while receiving nebulized zanamivir therapy despite the absence of a resistance phenotype, which could be the result of nonoptimal drug delivery and impaired host immunity. Conclusions. This study highlights the potential for emergence and persistence of multidrug-resistant influenza isolates in immunocompromised subjects even after cessation of treatment, reinforcing the need for development of new anti-influenza compounds.
AbstractList Background . Development of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral transmission to others. Methods .A total of 17 influenza A/H3N2 isolates were recovered over a period of 1 year from an immunocompromised child who was initially treated with oseltamivir and then with amantadine and zanamivir for viral pneumonitis. Drug susceptibility phenotypes to oseltamivir, zanamivir, and peramivir were evaluated by neuraminidase (NA) inhibition assays, and sequence analysis of key viral genes (i.e., M2, NA, and hemagglutinin [HA]) was performed. The impact of NA mutations identified in oseltamivir-resistant isolates was analyzed using recombinant NA proteins. Results . An influenza A variant with NA mutations E59G, E119V, and I222V was first detected after 38 days of oseltamivir treatment. In an NA inhibition assay, this variant was 274 times more resistant to oseltamivir than the original isolate but was susceptible to zanamivir. The I222V substitution enhanced the level of oseltamivir resistance that was primarily conferred by the E119V mutation in recombinant NA proteins. Remarkably, the E119V mutation persisted for 8 months after cessation of oseltamivir. Amantadine therapy led to rapid emergence of the M2 mutation S31N, which is known to confer amantadine resistance. The patient shed the virus intermittently while receiving nebulized zanamivir therapy despite the absence of a resistance phenotype, which could be the result of nonoptimal drug delivery and impaired host immunity. Conclusions . This study highlights the potential for emergence and persistence of multidrug-resistant influenza isolates in immunocompromised subjects even after cessation of treatment, reinforcing the need for development of new anti-influenza compounds.
Development of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral transmission to others.BACKGROUNDDevelopment of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral transmission to others.A total of 17 influenza A/H3N2 isolates were recovered over a period of 1 year from an immunocompromised child who was initially treated with oseltamivir and then with amantadine and zanamivir for viral pneumonitis. Drug susceptibility phenotypes to oseltamivir, zanamivir, and peramivir were evaluated by neuraminidase (NA) inhibition assays, and sequence analysis of key viral genes (i.e., M2, NA, and hemagglutinin [HA]) was performed. The impact of NA mutations identified in oseltamivir-resistant isolates was analyzed using recombinant NA proteins.METHODSA total of 17 influenza A/H3N2 isolates were recovered over a period of 1 year from an immunocompromised child who was initially treated with oseltamivir and then with amantadine and zanamivir for viral pneumonitis. Drug susceptibility phenotypes to oseltamivir, zanamivir, and peramivir were evaluated by neuraminidase (NA) inhibition assays, and sequence analysis of key viral genes (i.e., M2, NA, and hemagglutinin [HA]) was performed. The impact of NA mutations identified in oseltamivir-resistant isolates was analyzed using recombinant NA proteins.An influenza A variant with NA mutations E59G, E119V, and I222V was first detected after 38 days of oseltamivir treatment. In an NA inhibition assay, this variant was 274 times more resistant to oseltamivir than the original isolate but was susceptible to zanamivir. The I222V substitution enhanced the level of oseltamivir resistance that was primarily conferred by the E119V mutation in recombinant NA proteins. Remarkably, the E119V mutation persisted for 8 months after cessation of oseltamivir. Amantadine therapy led to rapid emergence of the M2 mutation S31N, which is known to confer amantadine resistance. The patient shed the virus intermittently while receiving nebulized zanamivir therapy despite the absence of a resistance phenotype, which could be the result of nonoptimal drug delivery and impaired host immunity.RESULTSAn influenza A variant with NA mutations E59G, E119V, and I222V was first detected after 38 days of oseltamivir treatment. In an NA inhibition assay, this variant was 274 times more resistant to oseltamivir than the original isolate but was susceptible to zanamivir. The I222V substitution enhanced the level of oseltamivir resistance that was primarily conferred by the E119V mutation in recombinant NA proteins. Remarkably, the E119V mutation persisted for 8 months after cessation of oseltamivir. Amantadine therapy led to rapid emergence of the M2 mutation S31N, which is known to confer amantadine resistance. The patient shed the virus intermittently while receiving nebulized zanamivir therapy despite the absence of a resistance phenotype, which could be the result of nonoptimal drug delivery and impaired host immunity.This study highlights the potential for emergence and persistence of multidrug-resistant influenza isolates in immunocompromised subjects even after cessation of treatment, reinforcing the need for development of new anti-influenza compounds.CONCLUSIONSThis study highlights the potential for emergence and persistence of multidrug-resistant influenza isolates in immunocompromised subjects even after cessation of treatment, reinforcing the need for development of new anti-influenza compounds.
Background. Development of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral transmission to others. Methods. A total of 17 influenza A/H3N2 isolates were recovered over a period of 1 year from an immunocompromised child who was initially treated with oseltamivir and then with amantadine and zanamivir for viral pneumonitis. Drug susceptibility phenotypes to oseltamivir, zanamivir, and peramivir were evaluated by neuraminidase (NA) inhibition assays, and sequence analysis of key viral genes (i.e., M2, NA, and hemagglutinin [HA]) was performed. The impact of NA mutations identified in oseltamivir-resistant isolates was analyzed using recombinant NA proteins. Results. An influenza A variant with NA mutations E59G, E119V, and I222V was first detected after 38 days of oseltamivir treatment. In an NA inhibition assay, this variant was 274 times more resistant to oseltamivir than the original isolate but was susceptible to zanamivir. The I222V substitution enhanced the level of oseltamivir resistance that was primarily conferred by the E119V mutation in recombinant NA proteins. Remarkably, the E119V mutation persisted for 8 months after cessation of oseltamivir. Amantadine therapy led to rapid emergence of the M2 mutation S31N, which is known to confer amantadine resistance. The patient shed the virus intermittently while receiving nebulized zanamivir therapy despite the absence of a resistance phenotype, which could be the result of nonoptimal drug delivery and impaired host immunity. Conclusions. This study highlights the potential for emergence and persistence of multidrug-resistant influenza isolates in immunocompromised subjects even after cessation of treatment, reinforcing the need for development of new anti-influenza compounds.
Development of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral transmission to others. A total of 17 influenza A/H3N2 isolates were recovered over a period of 1 year from an immunocompromised child who was initially treated with oseltamivir and then with amantadine and zanamivir for viral pneumonitis. Drug susceptibility phenotypes to oseltamivir, zanamivir, and peramivir were evaluated by neuraminidase (NA) inhibition assays, and sequence analysis of key viral genes (i.e., M2, NA, and hemagglutinin [HA]) was performed. The impact of NA mutations identified in oseltamivir-resistant isolates was analyzed using recombinant NA proteins. An influenza A variant with NA mutations E59G, E119V, and I222V was first detected after 38 days of oseltamivir treatment. In an NA inhibition assay, this variant was 274 times more resistant to oseltamivir than the original isolate but was susceptible to zanamivir. The I222V substitution enhanced the level of oseltamivir resistance that was primarily conferred by the E119V mutation in recombinant NA proteins. Remarkably, the E119V mutation persisted for 8 months after cessation of oseltamivir. Amantadine therapy led to rapid emergence of the M2 mutation S31N, which is known to confer amantadine resistance. The patient shed the virus intermittently while receiving nebulized zanamivir therapy despite the absence of a resistance phenotype, which could be the result of nonoptimal drug delivery and impaired host immunity. This study highlights the potential for emergence and persistence of multidrug-resistant influenza isolates in immunocompromised subjects even after cessation of treatment, reinforcing the need for development of new anti-influenza compounds.
Background. Development of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral transmission to others. Methods. A total of 17 influenza A/H3N2 isolates were recovered over a period of 1 year from an immunocompromised child who was initially treated with oseltamivir and then with amantadine and zanamivir for viral pneumonitis. Drug susceptibility phenotypes to oseltamivir, zanamivir, and peramivir were evaluated by neuraminidase (NA) inhibition assays, and sequence analysis of key viral genes (i.e., M2, NA, and hemagglutinin [HA]) was performed. The impact of NA mutations identified in oseltamivir-resistant isolates was analyzed using recombinant NA proteins. Results. An influenza A variant with NA mutations E59G, E119V, and I222V was first detected after 38 days of oseltamivir treatment. In an NA inhibition assay, this variant was 274 times more resistant to oseltamivir than the original isolate but was susceptible to zanamivir. The I222V substitution enhanced the level of oseltamivir resistance that was primarily conferred by the El 19V mutation in recombinant NA proteins. Remarkably, the El 19V mutation persisted for 8 months after cessation of oseltamivir. Amantadine therapy led to rapid emergence of the M2 mutation S31N, which is known to confer amantadine resistance. The patient shed the virus intermittently while receiving nebulized zanamivir therapy despite the absence of a resistance phenotype, which could be the result of nonoptimal drug delivery and impaired host immunity. Conclusions. This study highlights the potential for emergence and persistence of multidrug-resistant influenza isolates in immunocompromised subjects even after cessation of treatment, reinforcing the need for development of new anti-influenza compounds.
Development of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral transmission to others. A total of 17 influenza A/H3N2 isolates were recovered over a period of 1 year from an immunocompromised child who was initially treated with oseltamivir and then with amantadine and zanamivir for viral pneumonitis. Drug susceptibility phenotypes to oseltamivir, zanamivir, and peramivir were evaluated by neuraminidase (NA) inhibition assays, and sequence analysis of key viral genes (i.e., M2, NA, and hemagglutinin [HA]) was performed. The impact of NA mutations identified in oseltamivir-resistant isolates was analyzed using recombinant NA proteins. An influenza A variant with NA mutations E59G, E119V, and I222V was first detected after 38 days of oseltamivir treatment. In an NA inhibition assay, this variant was 274 times more resistant to oseltamivir than the original isolate but was susceptible to zanamivir. The 1222V substitution enhanced the level of oseltamivir resistance that was primarily conferred by the E119V mutation in recombinant NA proteins. Remarkably, the E119V mutation persisted for 8 months after cessation of oseltamivir. Amantadine therapy led to rapid emergence of the M2 mutation S31N, which is known to confer amantadine resistance. The patient shed the virus intermittently while receiving nebulized zanamivir therapy despite the absence of a resistance phenotype, which could be the result of nonoptimal drug delivery and impaired host immunity. This study highlights the potential for emergence and persistence of multidrug-resistant influenza isolates in immunocompromised subjects even after cessation of treatment, reinforcing the need for development of new anti-influenza compounds.
Author Baz, Mariana
Boivin, Guy
Abed, Yacine
McDonald, Jane
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  surname: Baz
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– sequence: 2
  givenname: Yacine
  surname: Abed
  fullname: Abed, Yacine
  organization: Research Center in Infectious Diseases of the Centre Hospitalier Universitaire de Québec and Laval University, Québec City
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  surname: McDonald
  fullname: McDonald, Jane
  organization: Montréal Children's Hospital, McGill Health Center and University, Montréal, Canada
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  givenname: Guy
  surname: Boivin
  fullname: Boivin, Guy
  email: Guy.Boivin@crchul.ulaval.ca
  organization: Research Center in Infectious Diseases of the Centre Hospitalier Universitaire de Québec and Laval University, Québec City
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https://www.ncbi.nlm.nih.gov/pubmed/17109288$$D View this record in MEDLINE/PubMed
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ContentType Journal Article
Copyright Copyright 2006 The Infectious Diseases Society of America
2006 by the Infectious Diseases Society of America 2006
2007 INIST-CNRS
Copyright University of Chicago, acting through its Press Dec 15, 2006
Copyright_xml – notice: Copyright 2006 The Infectious Diseases Society of America
– notice: 2006 by the Infectious Diseases Society of America 2006
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Issue 12
Keywords Agonist
Pneumonia
Neuraminidase inhibitor
Peramivir
Glutamate receptor
Zanamivir
Multiple resistance
Antiviral
Influenza A
Antagonist
Child
Human
Immunopathology
Lung disease
Respiratory disease
Enzyme
Dopamine receptor
Enzyme inhibitor
Immune deficiency
Infection
Virus
Oseltamivir
Treatment
Exo-α-sialidase
Glycosidases
Viral disease
Amantadine dérivatives
Dopamine agonist
Hydrolases
NMDA receptor
O-Glycosidases
Cyclopentane derivatives
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PublicationTitle Clinical infectious diseases
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University of Chicago Press
Oxford University Press
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Hayden (12_5473065) 1989; 321
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17109289 - Clin Infect Dis. 2006 Dec 15;43(12):1562-4
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Snippet Background. Development of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral...
Background . Development of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral...
Development of influenza drug resistance is an important problem in immunocompromised children that could result in treatment failure and viral transmission to...
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StartPage 1555
SubjectTerms Antibiotics. Antiinfectious agents. Antiparasitic agents
Antiviral agents
Antiviral Agents - pharmacology
Antivirals
Articles and Commentaries
Biological and medical sciences
Child
Children & youth
Cyclopentanes - pharmacology
Drug resistance
Drug Resistance, Multiple - genetics
Drug Resistance, Viral - genetics
Genetic mutation
Guanidines - pharmacology
Human viral diseases
Humans
Immune system
Immunocompromised Host
Immunocompromised hosts
Immunocompromised populations
Immunodeficiencies
Immunodeficiencies. Immunoglobulinopathies
Immunopathology
Infections
Infectious diseases
Influenza
Influenza A virus
Influenza A Virus, H3N2 Subtype - drug effects
Influenza A Virus, H3N2 Subtype - genetics
Inhibitory concentration 50
Kidney cells
Medical sciences
Medical treatment
Mutation
Orthomyxoviridae
Oseltamivir - pharmacology
Pharmacology. Drug treatments
Viral diseases
Viral diseases of the respiratory system and ent viral diseases
Viruses
Zanamivir - pharmacology
Title Characterization of Multidrug-Resistant Influenza A/H3N2 Viruses Shed during 1 Year by an Immunocompromised Child
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