International audienceViruses evolve in the background of host immune systems that exert selective pressure and drive viral evolutionary trajectories. This interaction leads to different evolutionary patterns in antigenic space. Examples observed in nature include the effectively one-dimensional escape characteristic of influenza A and the prolonged coexistence of lineages in influenza B. Here, we use an evolutionary model for viruses in the presence of immune host systems with finite memory to obtain a phase diagram of evolutionary patterns in a two-dimensional antigenic space. We find that, for small effective mutation rates and mutation jump ranges, a single lineage is the only stable solution. Large effective mutation rates combined wit...
The evolution of viruses to escape prevailing host immunity involves selection at multiple integrati...
Abstract Background Since its emergence in 1968, infl...
Influenza viruses undergo continual antigenic evolution allowing mutant viruses to evade host immuni...
International audienceViruses evolve in the background of host immune systems that exert selective p...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
The evolution of many microbes and pathogens, including circulating viruses such as seasonal influen...
The evolution of many microbes and pathogens, including circulating viruses such as seasonal influen...
We use a mathematical model to study the evolution of influenza A during the epidemic dynamics of a ...
The evolutionary dynamics of human Influenza A virus presents a challenging theoretical problem. An ...
Rapidly evolving pathogens like influenza viruses can persist by changing their antigenic properties...
In this paper we explore the consequences of a heterogeneous immune response in individuals on the e...
Influenza viruses undergo continual antigenic evolution allowing mutant viruses to evade host immuni...
Abstract. We theoretically study the antigenic drift of viruses within an infected host, as observed...
The accumulation of cross-immunity in the host population is an important factor driving the antigen...
The evolution of viruses to escape prevailing host immunity involves selection at multiple integrati...
Abstract Background Since its emergence in 1968, infl...
Influenza viruses undergo continual antigenic evolution allowing mutant viruses to evade host immuni...
International audienceViruses evolve in the background of host immune systems that exert selective p...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
To escape immune recognition in previously infected hosts, viruses evolve genetically in immunologic...
The evolution of many microbes and pathogens, including circulating viruses such as seasonal influen...
The evolution of many microbes and pathogens, including circulating viruses such as seasonal influen...
We use a mathematical model to study the evolution of influenza A during the epidemic dynamics of a ...
The evolutionary dynamics of human Influenza A virus presents a challenging theoretical problem. An ...
Rapidly evolving pathogens like influenza viruses can persist by changing their antigenic properties...
In this paper we explore the consequences of a heterogeneous immune response in individuals on the e...
Influenza viruses undergo continual antigenic evolution allowing mutant viruses to evade host immuni...
Abstract. We theoretically study the antigenic drift of viruses within an infected host, as observed...
The accumulation of cross-immunity in the host population is an important factor driving the antigen...
The evolution of viruses to escape prevailing host immunity involves selection at multiple integrati...
Abstract Background Since its emergence in 1968, infl...
Influenza viruses undergo continual antigenic evolution allowing mutant viruses to evade host immuni...