Strains of the influenza virus form coherent global populations, yet exist at the level of single infections in individual hosts. The relationship between these scales is a critical topic for understanding viral evolution. Here we investigate the within-host relationship between selection and the stochastic effects of genetic drift, estimating an effective population size of infection Ne for influenza infection. Examining whole-genome sequence data describing a chronic case of influenza B in a severely immunocompromised child we infer an Ne of 2.5 × 107 (95% confidence range 1.0 × 107 to 9.0 × 107) suggesting that genetic drift is of minimal importance during an established influenza infection. Our result, supported by data from influenza A...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
Measuring selective pressures shaping the evolution of viral populations is important for preventing...
We present a method to infer the role of selection acting during the within-host evolution of the in...
Strains of the influenza virus form coherent global populations, yet exist at the level of single in...
The within-host evolution of influenza is a vital component of its epidemiology. A question of parti...
<p>Influenza A virus is a major source of morbidity and mortality, annually resulting in over 9000 d...
We present a method to infer the role of selection acting during the within-host evolution of the in...
We characterise the evolutionary dynamics of influenza infection described by viral sequence data co...
Rapid adaptive evolution significantly contributes to the size and severity of seasonal influenza ep...
Funder: H2020 European Research Council; FundRef: http://dx.doi.org/10.13039/100010663; Grant(s): Na...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
<div><p>The within-host evolution of influenza is a vital component of its epidemiology. A question ...
Abstract Background RNA viruses evolve extremely quic...
Thesis (Ph.D.)--University of Washington, 2019RNA viruses like influenza mutate rapidly to form gene...
The evolution of influenza viruses is fundamentally shaped by within-host processes. However, the wi...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
Measuring selective pressures shaping the evolution of viral populations is important for preventing...
We present a method to infer the role of selection acting during the within-host evolution of the in...
Strains of the influenza virus form coherent global populations, yet exist at the level of single in...
The within-host evolution of influenza is a vital component of its epidemiology. A question of parti...
<p>Influenza A virus is a major source of morbidity and mortality, annually resulting in over 9000 d...
We present a method to infer the role of selection acting during the within-host evolution of the in...
We characterise the evolutionary dynamics of influenza infection described by viral sequence data co...
Rapid adaptive evolution significantly contributes to the size and severity of seasonal influenza ep...
Funder: H2020 European Research Council; FundRef: http://dx.doi.org/10.13039/100010663; Grant(s): Na...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
<div><p>The within-host evolution of influenza is a vital component of its epidemiology. A question ...
Abstract Background RNA viruses evolve extremely quic...
Thesis (Ph.D.)--University of Washington, 2019RNA viruses like influenza mutate rapidly to form gene...
The evolution of influenza viruses is fundamentally shaped by within-host processes. However, the wi...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
Measuring selective pressures shaping the evolution of viral populations is important for preventing...
We present a method to infer the role of selection acting during the within-host evolution of the in...