Examining Influenza
Wolffman writes "University of Wisconsin-Madison scientists have solved a long-standing puzzle about how the influenza virus assembles its genetic contents into infectious particles that enable the virus to spread from cell to cell, scientists have opened a new gateway to a better understanding of one of the world's most virulent diseases."
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The article states that a single RNA strand is responsible for recruiting the other seven, which then work together to produce more virons. I'm curious as to whether it is that RNA strand which has to mutate in order for the virus to jump from species to species (such as from birds to humans). Perhaps this could lead to a new innoculation for birds that would prevent their viral infections from jumping ship to us.
I don't need to be made to look evil. I can do that on my own. - Christopher Walken
This is amazing. Most of the problems that we have with influenza A is that it has a high rate of mutation that allows it to be essentially a different virus every time it whips around the globe. However, a site like that that is crucial for the virus' reproductive cycle would be highly conserved. If we could design/discover drugs that would target that RNA interaction we could really put a damper on Influenza's infection rate. I went looking at PNAS and I couldn't find the paper, so I'm not sure what his experimental procedure was.
When scientists are attempting cures with diseases at a genetic level, there is always a possibility of creating something worse, or a really nasty mutation. Antibiotics, for example, can make a virus more resistant if they don't kill it the first time around.
Still, I am hopeful - since the more we know about such virii, the better we can combat them. The issue is in knowing enough to develop countermeasures but not enough to predict future consequences.
I have a puzzling question (for me at least, with no experience working with diseases, bacteria, etc). If we were to isolate every single person infected with influenza, or HIV, or any other virus that can not live outside of the human body long, and keep their bodily wastes (feces, urine, moisture from their breath, etc) away from everybody else, would these diseases disappear forever? Very unfeasible, I know, but humor me if you will...
this is not a sig.
What the article fails to mention is how strains of influenza can become particularly virulent against humans. Traditionally, as in the 1918 pandemic, this occurs when a strain of swine and avian influenza combine. The likelyhood of this recombination occurring to produce a lethal strain is low (consider that the Spanish Influenza was brought about by a strain of avian influenza believed to originate in China and a swine strain believed to have originated from another area of the world). However, statistics show that this recombination occurs regularly enough to pose a serious risk and that it is only a matter of time...
If one traces outbreaks of influenza worldwide, it becomes clear that every ~20 years, an outbreak occurs due to a recombination of swine and avian viruses that leads to the infection of humans.
Let's hope that scientific strides, such as that made in this recent PNAS article, can be used to nip future viruses in the bud, or be used to make new vaccines.
I had a little bird It's name was enza
I opened the window
And in-flu-enza
If anyone needs a sample of the influenza virus, please contact me. It is running rampant through my system.
Research inquiries only.
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Disclaimer: The above statement probably includes half-truths, because real truth is too complicated.
Save all your snots from every flu/cold/whatever/case of diarehha you get in your whole life in a 'gross jar'. Then spread it on the salad bar at Wendys. Or just take a dump on it