<div><p>Influenza A (H3N2) offers a well-studied, yet not fully understood, disease in terms of the interactions between pathogen population dynamics, epidemiology and genetics. A major open question is why the virus population is globally dominated by a single and very recently diverged (2–8 years) lineage. Classically, this has been modeled by limiting the generation of new successful antigenic variants, such that only a small subset of progeny acquire the necessary mutations to evade host immunity. An alternative approach was recently suggested by Recker et al. in which a limited number of antigenic variants are continuously generated, but most of these are suppressed by pre-existing host population immunity. Here we develop a framework ...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
It is commonly believed that influenza epidemics arise through the incremental accumulation of viral...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
Influenza A (H3N2) offers a well-studied, yet not fully understood, disease in terms of the interact...
Influenza A (H3N2) offers a well-studied, yet not fully understood, disease in terms of the interact...
In this paper we explore the consequences of a heterogeneous immune response in individuals on the e...
Abstract Background Since its emergence in 1968, infl...
Influenza viruses undergo continual antigenic evolution allowing mutant viruses to evade host immuni...
Influenza viruses undergo continual antigenic evolution allowing mutant viruses to evade host immuni...
Understanding the evolutionary dynamics of influenza A virus is central to its surveillance and cont...
Seasonal influenza viruses create a persistent global disease burden by evolving to escape immunity ...
Host-pathogen interactions, especially those involving RNA viruses and bacteria, are often character...
ABSTRACT The seasonal influenza A virus undergoes rapid evolution to escape human immune response. A...
The seasonal influenza A virus undergoes rapid evolution to escape human immune response. Adaptive c...
Most studies on seasonal influenza A/H3N2 virus adaptation have focused on the main antigenic gene, ...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
It is commonly believed that influenza epidemics arise through the incremental accumulation of viral...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
Influenza A (H3N2) offers a well-studied, yet not fully understood, disease in terms of the interact...
Influenza A (H3N2) offers a well-studied, yet not fully understood, disease in terms of the interact...
In this paper we explore the consequences of a heterogeneous immune response in individuals on the e...
Abstract Background Since its emergence in 1968, infl...
Influenza viruses undergo continual antigenic evolution allowing mutant viruses to evade host immuni...
Influenza viruses undergo continual antigenic evolution allowing mutant viruses to evade host immuni...
Understanding the evolutionary dynamics of influenza A virus is central to its surveillance and cont...
Seasonal influenza viruses create a persistent global disease burden by evolving to escape immunity ...
Host-pathogen interactions, especially those involving RNA viruses and bacteria, are often character...
ABSTRACT The seasonal influenza A virus undergoes rapid evolution to escape human immune response. A...
The seasonal influenza A virus undergoes rapid evolution to escape human immune response. Adaptive c...
Most studies on seasonal influenza A/H3N2 virus adaptation have focused on the main antigenic gene, ...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
It is commonly believed that influenza epidemics arise through the incremental accumulation of viral...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...