<p>Based on the interaction between the influenza virus and the host cells, three states of host cells (<i>N<sub>C</sub></i>, <i>I<sub>C</sub></i>, and <i>A<sub>C</sub></i>) and two types of viruses (<i>V<sub>E</sub></i> and <i>V<sub>I</sub></i>) were expressed with 13 parameters. For details, see <a href="http://www.plosone.org/article/info:doi/10.1371/journal.pone.0068235#s2" target="_blank">Methods</a> and <a href="http://www.plosone.org/article/info:doi/10.1371/journal.pone.0068235#pone-0068235-t001" target="_blank">Table 1</a>.</p
<p>The bold lines represent dynamical processes captured explicitly in equations S4, S5. In this mod...
<p>(A) The epidemic component, a deterministic, compartmental model capturing a single influenza sea...
<p>Here, uninfected cells are represented by white circles, infected cell by shaded circles, and vir...
<p>(A) Compartment model for single infection with pandemic influenza virus. (B) Compartment model f...
<p>Curves represent model fits to experimental infections of MDCK cells with influenza A/PR/8/34 (H1...
<p>(A) The extracellular level of infection comprises the growth and death of uninfected cells, thei...
<p>We model interactions between and within three compartments: the latent reservoir, productively i...
<p>(A) Schematic representation of the model for continuous influenza A virus infection in the prese...
<p>(A) each cell lives in the “Normal” state until a HIV virus infects it. An “Infected” cell doesn'...
<div><p>Influenza A viruses are respiratory pathogens that cause seasonal epidemics with up to 500,0...
Inroduction Viruses are widely used as live attenuated, killed-virus or vector vaccines. For a bette...
<p>Schematic representation of viral infection models, (a) Model 1 (b) Comparison with simple SIS mo...
<p>Schematics of the dynamic transmission model for influenza (shaded compartments), with vaccine an...
<p>Schematic representation of the passage history and infection experiments with influenza viruses ...
<p>, , and are the variables describing uninfected cells, infected cells, and infectious virus. Uni...
<p>The bold lines represent dynamical processes captured explicitly in equations S4, S5. In this mod...
<p>(A) The epidemic component, a deterministic, compartmental model capturing a single influenza sea...
<p>Here, uninfected cells are represented by white circles, infected cell by shaded circles, and vir...
<p>(A) Compartment model for single infection with pandemic influenza virus. (B) Compartment model f...
<p>Curves represent model fits to experimental infections of MDCK cells with influenza A/PR/8/34 (H1...
<p>(A) The extracellular level of infection comprises the growth and death of uninfected cells, thei...
<p>We model interactions between and within three compartments: the latent reservoir, productively i...
<p>(A) Schematic representation of the model for continuous influenza A virus infection in the prese...
<p>(A) each cell lives in the “Normal” state until a HIV virus infects it. An “Infected” cell doesn'...
<div><p>Influenza A viruses are respiratory pathogens that cause seasonal epidemics with up to 500,0...
Inroduction Viruses are widely used as live attenuated, killed-virus or vector vaccines. For a bette...
<p>Schematic representation of viral infection models, (a) Model 1 (b) Comparison with simple SIS mo...
<p>Schematics of the dynamic transmission model for influenza (shaded compartments), with vaccine an...
<p>Schematic representation of the passage history and infection experiments with influenza viruses ...
<p>, , and are the variables describing uninfected cells, infected cells, and infectious virus. Uni...
<p>The bold lines represent dynamical processes captured explicitly in equations S4, S5. In this mod...
<p>(A) The epidemic component, a deterministic, compartmental model capturing a single influenza sea...
<p>Here, uninfected cells are represented by white circles, infected cell by shaded circles, and vir...