This is absurdly pedantic. Nobody is suggesting vaccinating people against smallpox because the disease was eliminated by vaccines, it has no relevance at all to the conversation (except as a way to demonstrate the benefits of disease elimination).
My point I was making doesn't require them to actually be planning vaccination of anybody (although incidentally the CDC does have a stockpile of vaccinia pox vaccine on hand for terrorists or something:
http://www.bt.cdc.gov/agent/smallpox/vaccination/faq.asp). I was pointing out that at the numbers they cite,
if they were to vaccinate as many people as they want to vaccinate for measles (i.e. everybody), they are already admitting that they would predict hundreds of deaths. And 4 deaths a year ongoing.
This is relevant not because I think it would happen, but because it gives us a number for how much safer the measles vaccine would have to be than the smallpox: about 80x safer, for the death rate to equal the likelihood of saving your life from measles. This lends mathematical perspective that has nothing to do with actually administering smallpox vaccines.
You should actually check how many children there are rather than doing such a lazy calculation
Okay.
Number of actual live births 2012:
3,952,841 http://www.cdc.gov/nchs/fastats/births.htm300 million rough / 78 =
3,846,154 (3.85 deaths at 1 per million)
Whatever.
but that would be a lower death rate than say measles in the UK.
https://www.gov.uk/government/publications/measles-deaths-by-age-group-from-1980-to-2013-ons-data/measles-deaths-by-age-group-from-1980-to-2013-ons-dataAverage deaths from measles in the UK 10 year average = 0.9 per year.
At 64 million people, it'd be around 0.8 deaths per year from a smallpox-complications-level vaccine.
Pretty close to break even point.
UK has a 92% coverage rate.
But also remember a 50% higher basic reproduction ratio infection rate than the United States (requiring higher coverage for the same effect). Which likely explains the United States at roughly the same vaccine coverage experiencing a ~90x lower death rate. Their threshold for safety at the same level of vaccination is thus lower than ours is. I.e. their optimal rate would be higher (than our AVERAGE number. Maybe not that our dense urban area number, etc.)
vaccine all you've shown is that dropping your vaccine rate to 0% would prevent about 3.5 vaccine related deaths in the US per year. However, we know that doing so would also cause hundreds of measles deaths. What you actually have to look at is the number of deaths that would be prevented by lowering the vaccination rate by, say, 10%
Thank you for rewriting the opening post for me again. This is exactly the logic laid out from the very beginning. Comparing a LINEAR per person vaccine risk to a NON-LINEAR per person disease risk as vaccination rates lower. Which is exactly what I've been talking about all along.
[example of weird atmosphere disease]
No. If you apply this situation to the logic I laid out in the opening post, the blue curve in the graph would be astonomically higher than the red line of vaccine risk, all the way to the very right of the graph. As I explained in the opening post, in a situation like this where the red line is completely below the blue curve, the optimal rate of vaccination is 100%.
In no way does this incredibly extreme example invalidate the possibility that in far more normal situations, the red line would sometimes be in the middle of the blue curve, which would mean an optimal rate less than 100%.
I never said that it's ALWAYS going to be less than 100% for every disease. I didn't even say it would be necessarily for ANY disease. You need additional research to know.
Notice how in your example, the population knows precisely the rate of death from vaccination -- i.e. they've already done what i'm suggesting. They've done enough research to know the risk and thus they can calculate the exact optimal rate, which in that case, just so happens to be 100%. Your story PRESUPPOSES exactly what I'm suggesting, which I think says quite a lot.In fact I think this smallpox data kindof finishes off your argument - in order for it to hold you'd have to demonstrate that modern vaccines are somehow well over ten times more deadly than far less sophisticated vaccines that contained relatively dangerous live pathogens.
other way around, dude. They have to be < 1/80th asdeadly in the case of measles in the US. Not > 10x as deadly.