GAC06 said:
https://www.thelancet.com/journals/lanmic/article/PIIS2666-5247(20)30114-2/fulltext
" These findings show that one respiratory virus can block infection with another through stimulation of antiviral defences in the airway mucosa, supporting the idea that interference from rhinovirus disrupted the 2009 IAV pandemic in Europe. These results indicate that viral interference can potentially affect the course of an epidemic, and this possibility should be considered when designing interventions for seasonal influenza epidemics and the ongoing COVID-19 pandemic."
It would be quite difficult to write a kinetic rate law for flu infections by merely removing Covid-infected persons from the equation. However, I do think it could be possible to write a rate law based on the principles of gas diffusion.
If we model the population as two types of gas molecules in an enclosed space, with one molecule representing infected persons and the other clean, we could say that their collision rate is based on the total number of molecules present and the average velocity of the molecules. If any collision between an I(infected) and C(clean) molecule occurs, a probability of the C turning into an I could be assigned. Finally, a period of infectiousness could be assigned to the I molecules, and then they would revert to C. The average velocity of the molecules would model travel, and the number of molecules would model social distancing. The probability of transmission would of course relate to the Ro value.
Cell phone data, typical Ro values for flu, behavioral data (sketchy, but that's what social scientists have to deal with)... there's an amazing opportunity to study this question of why the flu has been so diminished. I've made my living by asking the right questions. Figuring this out could save the world a lot of suffering.
94chem,
That, sir, was the greatest post in the history of TexAgs. I salute you. -- Dough