DRACOs may be a cure for all viral diseases
inverse.com
inverse.com
As far as I understand there currently only exist a few animal lab studies that indicate this treatment works. Especially in these preclinical settings many studies turn out to be not reproducible. But even if they are, there's a very long way to a treatment in humans.
There are a lot of promising startups and the vast majority fail.
Science needs to take a lot more risks, not less, and be willing to fail. If science is now unwilling to take risks or fail, science is over as anything other than a cargo cult built around the science of previous generations.
Example: If the grant says that all proposal text must be in 11 point Times New Roman font, and you do 12 point Times New Roman, in the trash you go.
People giving vast sums of money want to make sure every penny is carefully spent.
As for crowdsourcing research, well, go for it. It's just that we already have a method for this. It's called "taxes."
Edit: inevitable tax argument deflection: the vast majority of the US federal budget is, as Thomas L Friedman put it, "an insurance company with a military." Research as a portion is teensy-tiny. Our society could easily fund federal research - "we" just choose not to.
The fact that he explicitly is saying this could treat ALL viral diseases makes me skeptical. Maybe I'm wrong, and most viruses produce dsRNA in some form or another during infection.
http://journals.plos.org/plosone/article?id=10.1371/journal....
If that paper is correct, negative strand RNA viruses (https://en.wikipedia.org/wiki/Negative-sense_single-stranded...) would not be treatable with DRACO. And, according to wikipedia, that category includes Ebola, Rabies, Lassa virus and Hanta virus, which is a little disappointing.
But here's the weird part. That wikipedia page also says that Influenza viruses are negative strand RNA viruses, so shouldn't produce dsRNA. But DRACO was tested against H1N1 influenza, and supposedly worked. We have a contradiction. So either the Journal of Virology paper is wrong, wikipedia is wrong is saying that Influenza is a negative strand RNA virus, or DRACO doesn't work against H1N1.
Anyone care to offer some insight?
They include this comment on the Weber (2006) paper cited above:
> their lack of success might relate to the production of smaller amounts of dsRNA in negative-strand RNA virus infections, the use of the less sensitive J2 MAb, the choice of less than optimum times for p.i. sampling, or, possibly, technical issues.
The major issue is that these are macromolecules, and it is incredibly difficult to deliver these in vivo. Every pharmaceutical encounters this problem, and the fact that it isn't really addressed is probably why no companies are biting.
There is some mouse data in the (single) paper, but it is missing some important controls. 1. He never shows that the protein makes it into the cells of the liver/kidney/lung/etc, just that there is some identifiable protein in the organs, and 2. he doesn't control for general immune activation from the injection of the protein, even though he has a control DRACO in the tissue culture experiments.
Also, though it may be overkill, he never shows IFAs of the actual DRACO protein inside the cells from tissue culture.
and he has exactly one paper, and it's in PlOS One.
Yawn.
Hate for impact factors, while perhaps fully justfied, doesn't remove the fact that people act like they matter, and an impact factor of 3.2 is ten times less than Nature or Cell or Science.
Anyway, if this was as big as he has trumped it up to be, it wouldn't be in PLOS One, there would be more than one pub, and both the defense department and pharmaceutical companies would be falling over themselves to get this tech developed for humans.
It's this kind of false-hope hype ( I CAN CURE EVERYTHING BUT NO ONE WILL GIVE ME MONEY ) makes people sour on science.
https://www.ll.mit.edu/news/DRACO.html
The Wright Brothers were just 2 guys in North Carolina...
Furthermore, this man worked on bio-defense stuff-- very likely a large majority of his work is not published for security reasons, as well as in startups.
There are plenty of people working in science, that don't make their career goals to publish in prestigious journals.
Real discoveries are rarely made at the pace required for securing tenure-track positions in academia.
what it is: they made a poison which will kill a cell when two-parts of the poison touch each other in a certain way (think bubble gum in mission impossible). They've designed the parts of the poison so it should only trigger when a virus is present.
why no big pharma compnay will touch it: the criterion for "virus present, KILL CELL" is potentially highly highly error prone, could easily go haywire killing all the cells.
Contrast to Immunotherapy -- the state of the art in clinically approved cancer treatments which uses the body's own immune system to selectively kill cancer cells (which also faced significant finanical barriers to its development), even if the signal goes haywire, the body's immune system still has fail-safes to not killing all of its own cells.
disclaimer: i am not a biologist, but i took some basic college bio courses
From wikipedia: "Differentiation between infected and healthy cells is made primarily via the length and type of RNA transcription helices present within the cell. Most viruses produce long dsRNA helices during transcription and replication. In contrast, uninfected mammalian cells generally produce dsRNA helices of fewer than 24 base pairs during transcription. Cell death is effected via one of the last steps in the apoptosis pathway in which complexes containing intracellular apoptosis signaling molecules simultaneously bind multiple procaspases. The procaspases transactivate via cleavage, activate additional caspases in the cascade, and cleave a variety of cellular proteins, thereby killing the cell."
From the paper (http://journals.plos.org/plosone/article/asset?id=10.1371%2F...) :
"In its simplest form, a DRACO is a chimeric protein with one domain that binds to viral dsRNA and a second domain (e.g., a procaspase-binding domain or a procaspase) that induces apoptosis when two or more DRACOs crosslink on the same dsRNA. If viral dsRNA is present inside a cell, DRACOs will bind to the dsRNA and induce apoptosis of that cell. If viral dsRNA is not present inside the cell, DRACOs will not crosslink and apoptosis will not occur."
A big problem is certainly funding, but also how the funding is spent. We are seeing researchers paying 3-4x for the exact same item.
http://dx.doi.org/10.1007/s00705-015-2392-4
DRACO, double-stranded RNA activated caspase oligomerizer, is a broadly applicable antiviral technology that has been under development at a slow pace for quite some time now. You might recall some publicity back in 2011, for example, but that marked the results of years of earlier work. DRACO attacks infected cells, not the viruses themselves, following the principle of finding a common vulnerability to target rather than trying to tailor therapies to every different variety of attacker. Despite technology demonstrations to show effectiveness against a broad range of very different types of virus, and the fact that this technology can in principle be applied to near any type of virus, there is next to no ongoing funding for DRACO. It stands as an example of the fact that you can build a better mousetrap and still have the world ignore you. In this case DRACO is languishing despite grave concerns regarding spreading viral resistance to existing drugs, and billions devoted to constructing new drugs that are just more of the same.
Advocacy and philanthropy are often the only ways forward for a new medical technology that is a radical departure from the present status quo. This is a lesson to keep in mind when we talk about the various branches of medical research. It is hard to obtain funding in the life sciences in any meaningful fashion, and the organization of funding for any ongoing serious effort has become a baroque effort involving many players, all of whom are operating with perverse incentives that only serve to slow down progress and make funding less effective on a dollar for dollar basis. For example the large funding bodies are extremely risk-averse, and thus almost never fund the most important early-stage and high-risk projects, the science that is actually science, at the forefront and involving new discoveries. These funding bodies only ever put money into ongoing development wherein which the researchers can already demonstrate proof of concept and an understanding of the mechanisms involved. Getting to that point for any new line of research requires creative accounting and the help of philanthropic donations, and even so there is far too little actual science taking place in major laboratories.
The Nobel price is usually awarded after the technique is thoughtfully tested and applied for many years, so then try to avoid the current fad.
You gained 14 exp.
Plus, acquisition doesn't mean the research will continue. I consulted with a med-tech startup a few years ago whose founders had, in a prior company, developed a novel adjuvant that was extremely promising in a wide variety of pharmaceutical applications. To commercialize the research, they were going to close a funding deal with a top-5 PE company -- on September 11, 2001. Needless to say, the funding fell through. They ended up selling the IP to a major pharma company, but that company wasn't willing to put the research dollars into proving out the science, so it sits on the shelf to this day.
The problem of crowfunding in areas you don't know is that it's very difficult to distinguish between the real research breakthrough and the scams.
PS1: "Never invest more than you can afford to loose."
PS2: What about investing in a company that can make a blood analysis only with a drop of blood?