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Which mRNA vaccines are researchers working on that aren't for COVID-19 ?

Which mRNA vaccines are researchers working on that aren't for COVID-19 ? | healthcare technology | Scoop.it

mRNA is a type of genetic material that tells your body how to make proteins. The two mRNA vaccines for SARS-CoV-2, the coronavirus that causes COVID-19, deliver fragments of this mRNA into your cells.

 

The world’s first mRNA vaccines — the COVID-19 vaccines from Pfizer/BioNTech and Moderna — have made it in record time from the laboratory, through successful clinical trials, regulatory approval and into people’s arms.

 

The high efficiency of protection against severe disease, the safety seen in clinical trials and the speed with which the vaccines were designed are set to transform how we develop vaccines in the future.

 

We have two mRNA COVID-19 vaccines so far. But what else can this technology do?

 

Once researchers have set up the mRNA manufacturing technology, they can potentially produce mRNA against any target. Manufacturing mRNA vaccines also does not need living cells, making them easier to produce than some other vaccines.

 

So mRNA vaccines could potentially be used to prevent a range of diseases, not just COVID-19.

 

Flu vaccine

Moderna is already turning its attention to an mRNA vaccine against seasonal influenza. This would target the four seasonal strains of the virus the WHO predicts will be circulating.

 

But the holy grail is a universal flu vaccine. This would protect against all strains of the virus (not just what the WHO predicts) and so wouldn’t need to be updated each year.

 

The same researchers who pioneered mRNA vaccines are also working on a universal flu vaccine.

 

Malaria vaccine

There is no vaccine for Malaria. However, US researchers working with pharmaceutical company GSK have filed a patent for an mRNA vaccine against malaria.

 

The mRNA in the vaccine codes for a parasite protein called PMIF. By teaching our bodies to target this protein, the aim is to train the immune system to eradicate the parasite.

 

This malaria mRNA vaccine is an example of a self-amplifying mRNA vaccine. This means very small amounts of mRNA need to be made, packaged and delivered, as the mRNA will make more copies of itself once inside our cells. This is the next generation of mRNA vaccines after the “standard” mRNA vaccines seen so far against COVID-19.

 

Cancer vaccines

We already have vaccines that prevent infection with viruses that cause cancer. For example, hepatitis B vaccine prevents some types of liver cancer and the human papillomavirus (HPV) vaccine prevents cervical cancer.

 

But the flexibility of mRNA vaccines lets us think more broadly about tackling cancers not caused by viruses.

 

Some types of tumours have antigens or proteins not found in normal cells. If we could train our immune systems to identify these tumour-associated antigens then our immune cells could kill the cancer.

 

Cancer vaccines can be targeted to specific combinations of these antigens. BioNTech is developing one such mRNA vaccine that shows promise for people with advanced melanoma. CureVac has developed one for a specific type of lung cancer, with results from early clinical trials.

Then there’s the promise of personalised anti-cancer mRNA vaccines. If we could design an individualised vaccine specific to each patient’s tumour then we could train their immune system to fight their own individual cancer. Several research groups and companies are working on this.

 

read the unedited original article at https://theconversation.com/3-mrna-vaccines-researchers-are-working-on-that-arent-covid-157858

 

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Social Media Can Boost Disease Outbreak Monitoring, Study Finds

Social Media Can Boost Disease Outbreak Monitoring, Study Finds | healthcare technology | Scoop.it

Monitoring social media websites like Twitter could help health officials and providers identify in real time severe medical outbreaks, allowing them to more efficiently direct resources and curb the spread of disease, according to a San Diego State University studypublished last month in the Journal of Medical Internet Research,Medical News Today reports.


Study Details


For the study, lead researcher and San Diego State University geography professor Ming-Hsiang Tsou and his team used a program to monitor tweets that originated within a 17-mile radius of 11 cities. The program recorded details of tweets containing the words "flu" or "influenza," including:


  • Origin;
  • Username;
  • Whether the tweet was an original or a retweet; and
  • Any links to websites in the tweet.


Researchers then compared their findings with regional data based on CDC's definition of influenza-like illness.

The program recorded data on 161,821 tweets that included the word "flu" and 6,174 tweets that included the word "influenza" between June 2012 and the beginning of December 2012.


According to the study, nine of the 11 cities exhibited a statistically significant correlation between an uptick in the number of tweets mentioning the keywords and regional outbreak reports. In five of the cities -- Denver, Fort Worth, Jacksonville, San Diego and Seattle -- the algorithm noted the outbreaks sooner than regional reports.

Drew Hodges's curator insight, February 19, 2015 5:50 PM

This is a cool article to show the real life change that social media is creating. Before it was stated that it would take up to two weeks to detect an outbreak of a disease but now with social media it can be done in a day. 

This article really shows how social media is becoming a part of our everyday life and is taking on roles that we probably didn't expect it to. 

However with the number of users increasing it is important to have tools that help us monitor the large amount of data that is present. 

Its no good having all this information if we cannot harness it's true potential, like the one illustrated in this article for disease break out.