The unprecedented scientific mobilization that has produced several viable COVID-19 vaccinations in just a year since the virus’ emergence has been more than a decade in the making. And even after widespread COVID vaccination occurs, the train that created these treatments isn't slowing down anytime soon.
Researchers at The University of Texas at Austin have long been at the forefront of vaccine development, and they played an important role in several COVID vaccines. Their ultimate goal: To develop a vaccine that can protect people against all coronaviruses, a wide variety of illnesses that includes everything from deadly conditions such as MERS and SARS to the common cold.
"If there is a silver lining from 2020, it's how it pushed biotechnology forward," Jennifer Maynard, professor in the ラーメンベット 禁止ゲーム of ラーメンベット 入金不要ボーナス 出金条件's McKetta Department of Chemical ラーメンベット 入金不要ボーナス 出金条件, said during a virtual event in December. "Vaccines have never been produced as quickly as this. We have totally new technologies that can help us fight this virus and come up with solutions to treat other coronaviruses as well."
Next week, Maynard will join fellow UT Austin experts for a discussion on vaccines. Hosted by the ラーメンベット 禁止ゲーム, the panel, titled “Understanding Biologics and the COVID-19 Vaccine,” will detail the basics of biologic drugs, offer insight into how the COVID-19 vaccines were created and share exciting plans ラーメンベット 入金不要ボーナス 出金条件 UT Austin’s future in disease prevention and treatment. Joining Maynard on the panel are Jason McClellan, an associate professor of molecular biosciences in the College of Natural Sciences whose ラーメンベット 入金不要ボーナス 出金条件 played a major role in the development of multiple vaccines, and George Georgiou, professor of chemical ラーメンベット 入金不要ボーナス 出金条件 and molecular biosciences whose Institute for Human Immunology and Protein Therapeutics contributed to ラーメンベット 入金不要ボーナス 出金条件 on COVID-19 convalescent plasma therapy.
The Feb. 9 virtual event is open to the public.
The key to understanding COVID-19 was discovered a year ago by McClellan and his ラーメンベット 入金不要ボーナス 出金条件 team, along with colleagues from the National Institutes of Health. The researchers created the first high resolution 3D map of the spike protein, the part of the virus that attaches itself to cell receptors, infecting them and allowing the virus to replicate. This map is helping scientists around the world develop a range of weapons treatments for the virus, including vaccines, antibody therapies and antiviral drugs. The UT Austin and NIH researchers also created a stabilized version of the spike protein that is a key element in four of the leading COVID vaccines – the ones made by Moderna, Pfizer/BioNTech, Johnson & Johnson and Novavax.
McClellan and his team had long studied other coronaviruses such as SARS and MERS to better understand them and prepare for the potential emergence of new viruses, so the foundation had already been laid for understanding COVID-19.
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Maynard noted their group is looking into several promising families of antibodies that have shown the ability to bind with ラーメンベット 入金不要ボーナス 出金条件 found in COVID-19, SARS and MERS.
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