Anonymous ID: 8012f7 March 26, 2020, 8:06 a.m. No.8571564   🗄️.is 🔗kun   >>1648 >>1665 >>1673

This is interesting published all the way back in 2011, so where is this new drug

 

New drug could cure nearly any viral infection

 

Researchers at MIT’s Lincoln Lab have developed technology that may someday cure the common cold, influenza and other ailments.

 

Anne Trafton, MIT News Office

Most bacterial infections can be treated with antibiotics such as penicillin, discovered decades ago. However, such drugs are useless against viral infections, including influenza, the common cold, and deadly hemorrhagic fevers such as Ebola.

 

Now, in a development that could transform how viral infections are treated, a team of researchers at MIT’s Lincoln Laboratory has designed a drug that can identify cells that have been infected by any type of virus, then kill those cells to terminate the infection.

 

The microscope images above show that DRACO successfully treats viral infections. In the left set of four photos, rhinovirus (the common cold virus) kills untreated human cells (lower left), whereas DRACO has no toxicity in uninfected cells (upper right) and cures an infected cell population (lower right). Similarly, in the right set of four photos, dengue hemorrhagic fever virus kills untreated monkey cells (lower left), whereas DRACO has no toxicity in uninfected cells (upper right) and cures an infected cell population (lower right). | Enlarge image

In a paper published July 27 in the journal PLoS One, the researchers tested their drug against 15 viruses, and found it was effective against all of them — including rhinoviruses that cause the common cold, H1N1 influenza, a stomach virus, a polio virus, dengue fever and several other types of hemorrhagic fever.

 

The drug works by targeting a type of RNA produced only in cells that have been infected by viruses. “In theory, it should work against all viruses,” says Todd Rider, a senior staff scientist in Lincoln Laboratory’s Chemical, Biological, and Nanoscale Technologies Group who invented the new technology.

 

Because the technology is so broad-spectrum, it could potentially also be used to combat outbreaks of new viruses, such as the 2003 SARS (severe acute respiratory syndrome) outbreak, Rider says.

 

Other members of the research team are Lincoln Lab staff members Scott Wick, Christina Zook, Tara Boettcher, Jennifer Pancoast and Benjamin Zusman.

 

Few antivirals available

 

Rider had the idea to try developing a broad-spectrum antiviral therapy about 11 years ago, after inventing CANARY (Cellular Analysis and Notification of Antigen Risks and Yields), a biosensor that can rapidly identify pathogens. “If you detect a pathogenic bacterium in the environment, there is probably an antibiotic that could be used to treat someone exposed to that, but I realized there are very few treatments out there for viruses,” he says.

 

There are a handful of drugs that combat specific viruses, such as the protease inhibitors used to control HIV infection, but these are relatively few in number and susceptible to viral resistance.

 

Rider drew inspiration for his therapeutic agents, dubbed DRACOs (Double-stranded RNA Activated Caspase Oligomerizers), from living cells’ own defense systems.

 

When viruses infect a cell, they take over its cellular machinery for their own purpose — that is, creating more copies of the virus. During this process, the viruses create long strings of double-stranded RNA (dsRNA), which is not found in human or other animal cells.

 

https://news.mit.edu/2011/antiviral-0810

Anonymous ID: 8012f7 March 26, 2020, 8:10 a.m. No.8571603   🗄️.is 🔗kun

>>8571571

==Now compare the MIT article to this headline on Reuter’s Feb. 19, 2020, they couldn’t possibly want us all vaccinated right?

 

Factbox: Global efforts to develop vaccines, drugs to fight the coronavirus

 

Factbox: Global efforts to develop vaccines, drugs to fight the coronavirus

 

CHICAGO (Reuters) - Researchers and drug companies are scrambling to develop vaccines and treatments to fight the new coronavirus that emerged in central China in December and has spread to more than two dozen countries, killing more than 2,000 people.

 

A computer image created by Nexu Science Communication together with Trinity College in Dublin, shows a model structurally representative of a betacoronavirus which is the type of virus linked to COVID-19, better known as the coronavirus linked to the Wuhan outbreak, shared with Reuters on February 18, 2020. NEXU Science Communication/via REUTERS

There are no proven treatments for the virus and experts say it could take a year or more to have a vaccine ready

 

The hope is that strict quarantines in China and elsewhere will contain the virus’ spread long enough for scientists to develop tools to fight it. The following is a list of some of those efforts:

 

VACCINES

 

Vaccines work by training the immune system to recognize and fight specific viruses or germs, providing immunity against them. China’s early release of the genetic sequence of the novel coronavirus has allowed several research groups and companies to get a quick start on vaccine development without needing live virus samples.

 

Several efforts are using various “plug-and-play” vaccine platforms to develop vaccines using genetic material, RNA or DNA, specific to the virus.

 

The U.S. National Institutes of Health has started work using a platform developed by U.S. biotech Moderna Inc (MRNA.O). Scientists at the University of Queensland in Australia and Inovio Pharmaceuticals Inc (INO.O) are using a different platform. The work is backed by grants from global health emergency group the Coalition for Epidemic Preparedness Innovations (CEPI). Novavax Inc (NVAX.O), which said it created a vaccine candidate for Ebola within 90 days of the release of the genetic sequence, has also announced work on a coronavirus vaccine.

 

https://www.reuters.com/article/us-china-health-treatments-factbox-idUSKBN20D2QX