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Dr. Kizzmekia Corbett and her team have been studying spike proteins in viruses for the past 10 years. They discovered that controlling the spike protein's shape is crucial for creating effective vaccines. Using their knowledge from previous research on MERS coronavirus, they quickly applied their techniques to develop a vaccine for the current virus in collaboration with Moderna. By January 10th last year, they obtained the virus sequences and produced the vaccine over the weekend. They tested the vaccine on mice and found that it generated antibodies. Dr. Corbett mentions that they are now working on addressing the variants of the virus.

mRNA vaccines have shown the potential of cell and gene therapy. Two years ago, most people would have refused gene or cell therapy, but the pandemic has increased acceptance of innovative treatments.

Our company is embracing cell and gene therapy, which has the potential to make a significant impact. The mRNA vaccines are a prime example of this. Just a couple of years ago, if we had asked the public if they would be willing to undergo gene or cell therapy, the majority would have refused. However, the pandemic has changed people's perspectives and made them more open to innovative solutions.

The FDA is considering simplifying COVID vaccinations to one shot annually, similar to the flu shot. Researchers are also developing an mRNA flu vaccine, leveraging technology used in COVID vaccines. Traditional vaccines introduce weakened germs, while mRNA vaccines teach cells to produce proteins that trigger immune responses. This new flu vaccine could be adjusted more easily for different strains during flu season. Although the mRNA flu vaccine may not be superior to traditional ones, it offers an alternative for those who cannot tolerate existing vaccines. Current studies on mRNA vaccines are also exploring options for Lyme disease, rabies, HIV, and Zika, with results for the flu vaccine expected by March.

In Chicago's manufacturing facility, a new type of vaccine is being developed using a technology called virus like particles. Medicago, the company behind it, uses plants as mini bioreactors. They start by synthesizing the gene sequence of a virus into a biological product. The plants absorb this information through a bath with bacteria, which is then replaced with liquid using a vacuum. After spending at least 4 days in a controlled greenhouse, the plants begin producing virus like particles, the key ingredient for the vaccines.

Chicago's manufacturing facility is using a unique method called virus like particle technology to grow vaccines. Medicago, the company behind this process, starts by synthesizing the gene sequence of a virus into a biological product. They insert this code into bacteria, which then carries it into plant cells. The plants absorb the code and begin producing virus like particles, the key ingredient of the vaccines. After a four-day growth period in a controlled greenhouse, the plants are ready for vaccine production.

We are working on developing new vaccines like TB and HIV using mRNA technology to make them high quality and low cost. Current COVID vaccines are not perfect, so we are working on new versions with longer-lasting protection for diseases like measles and tuberculosis. The mRNA technology also shows promise for cancer vaccines and rapid adaptation to future pandemics. We are even exploring using this technology for animal vaccines.

The most urgent invention is a COVID-19 vaccine, which teaches the immune system about the pathogen, specifically the coronavirus and its spike protein. The spike protein grabs cells and causes them to make billions of copies of the virus. Vaccines expose the body to something that looks like the virus, prompting the body to create antibodies to kill it. Vaccine creation usually involves injecting part of the virus's shape. This can be the whole virus, attenuated, or killed. Often, just a piece of the virus or the spike is used, eliminating the risk of causing disease. A promising new method is the RNA vaccine, which uses instructions to make the spike's shape. The Gates Foundation and partners are exploring these efforts. Creating a new vaccine typically takes at least 5 years, but there is optimism that a vaccine will be available in the next 18 months, produced in volume, and accessible worldwide, which will end the pandemic.

Creating mRNA is easy, cheap, and scalable. In the next 5 years, we aim to improve stability and cost, allowing for global vaccine production. mRNA will be explored for diseases like HIV, malaria, and TB with various approaches. The Gates Foundation and other global health organizations will support mRNA vaccine development.

We are generating real-time data on mRNA vaccines, which have been in development for years due to side effects. Pfizer and Moderna used the pandemic to accelerate their development. The collaboration with BioNTech on flu led to the quick rollout of the mRNA vaccine. Clinical trials skipped phases, causing uncertainty. Concerns arise about vaccine distribution and the need for booster shots. Politics play a role in decision-making.

Japan has approved the world's first self-amplifying mRNA vaccine, developed by Meiji Seika Pharma. The vaccine, called Kasevi, uses self-amplifying mRNA technology, which is different from the mRNA vaccines by Pfizer and Moderna. The traditional mRNA vaccines contain modified mRNA that instructs cells to produce spike proteins, while the self-amplifying mRNA vaccines integrate genes for spike proteins and replicase, allowing the RNA to replicate itself inside cells. This leads to increased production of spike proteins and potentially more antibodies. The self-amplifying mRNA technology requires less RNA to be injected, potentially reducing side effects.

The most urgent invention is a COVID-19 vaccine, which teaches the immune system about the pathogen, specifically the coronavirus and its spike protein. The spike protein grabs cells and causes them to make billions of copies of the virus. Vaccines expose the body to something that looks like the virus, prompting the body to create antibodies to kill it. Vaccine creation usually involves injecting part of the virus's shape. This can be the whole virus, attenuated, or killed, or just a piece of the virus or the spike. A promising new method is the RNA vaccine, which uses RNA and DNA to provide instructions to make the spike shape. The Gates Foundation and partners are exploring these efforts. Creating a new vaccine typically takes at least 5 years, but there is optimism that a vaccine will be available in the next 18 months, produced in volume, and accessible to everyone, which is how the pandemic will end.

I've been involved in over 50 vaccines, including mRNA vaccines. mRNA is like DNA, giving cells instructions to make proteins. This technology was originally for gene therapy, now used for vaccines. It's a new, experimental technology never used in humans before COVID. Animal studies were skipped for COVID vaccines, a novel approach.

Making mRNA is easy and cheap, which is the key. In the next 5 years, advancements are possible with lipid nanoparticles and their self-assembly. This nano construction surpasses our technological expectations.

In the next 5 years, we can easily and inexpensively produce mRNA, which is the key to its success. We just need to work on improving the stability, cost, and scalability of lipid nanoparticles. Once we achieve that, we can establish factories worldwide to manufacture affordable vaccines within a short time frame. We plan to use mRNA technology for diseases like HIV, malaria, and tuberculosis, with different approaches for each. The Gates Foundation and other organizations focused on global health will support our efforts to develop these missing vaccines using mRNA.

We are working on developing new vaccines for diseases like TB, HIV using mRNA technology. The goal is to create high-quality, low-cost vaccines that can be used for various illnesses. Current COVID vaccines have limitations, so we are working on next-generation vaccines with longer-lasting protection. mRNA technology also shows promise for cancer vaccines and potential future pandemics. Additionally, we are exploring using this technology for animal vaccines.

Developing a vaccine is crucial to controlling the pandemic. Normally, it takes about five years to create a new vaccine, including testing for safety and effectiveness. However, efforts are being made to compress this timeline to around 18 months. The RNA platform shows promise in speeding up production. Ensuring a vaccine's effectiveness and safety, especially for older individuals, is challenging. We must avoid compromising safety while increasing efficacy. Decision-making regarding the use of a new vaccine will be based on limited data to expedite progress. Supporting the development of the most promising candidates, building production facilities, and conducting safety testing require a global collaborative effort. Our foundation is heavily involved in funding vaccines, including for developing countries. It's encouraging to see various medications emerging, such as Moderna, CureVac, Stamovi, and Logovac, which require investment.

We are in a digital and scientific revolution, hacking the software of life with mRNA. Our body is made of organs, organs of cells, and in each cell is messenger RNA transmitting DNA information to proteins. This "operating system" can be altered to impact diseases like the flu and cancer. For instance, instead of injecting virus proteins for a flu vaccine, mRNA instructions can teach the body to make its own protection. This mRNA technology has vast potential for disease prevention and treatment.

We discussed pandemic readiness and the speed of mRNA technology. I proposed a simulation to create a vaccine within 60 days, which was initially met with skepticism. However, due to our work on personalized cancer vaccines, we were prepared. When news of a new coronavirus emerged, we quickly got the sequence and began working on a vaccine. The conversation shifted to the need for disruptive entities to accelerate vaccine development, moving away from traditional methods like egg-based production. The urgency for innovative solutions to address outbreaks was emphasized.

The most urgent invention is a COVID-19 vaccine, which teaches the immune system about the pathogen, specifically the coronavirus and its spike protein. The spike protein grabs cells and causes them to make billions of copies of the virus. Vaccines expose the body to something that looks like the virus, prompting the body to create antibodies to kill it. Vaccine creation usually involves injecting part of the virus's shape. This can be the whole virus (attenuated), a killed virus, or just a piece of the virus, like the spike. A promising new method is the RNA vaccine, which uses instructions to make the spike's shape. The Gates Foundation and partners are exploring these efforts. Creating a new vaccine typically takes at least 5 years, but there is optimism that a vaccine will be available in the next 18 months, produced in volume, and accessible worldwide, which is how the pandemic will end.

Moderna and BioNTech used the first sequence of the SARS CoV-2 genome, published on January 10th, to develop their vaccines. Moderna relied solely on the published data and never had the live virus on their site. This highlights the significance of digitizing biology, as Moderna, a leading company in biology, faced a software problem rather than a biological one.

Our company is embracing cell and gene therapy, which has the potential to make a significant impact. mRNA vaccines are an example of this type of therapy. Two years ago, if we had asked the public if they would be willing to undergo gene or cell therapy, the refusal rate would have been around 95%. However, the pandemic has made people more open to innovation in ways that were previously unimaginable.

New vaccines for tuberculosis, malaria, HIV, and COVID-19 are being developed. These vaccines aim to have longer-lasting effects and wider coverage. In addition, instead of using needles, a patch will be used for administration. The COVID-19 pandemic has brought attention to the fact that we have not invested enough in these innovative advancements.

We discussed pandemic readiness with Tony, proposing a rapid response simulation. Despite skepticism, we aimed to produce a GMP dose within 60 days. In December, upon learning of the new coronavirus, we swiftly obtained its sequence. Transitioning from egg-based vaccine production to a more efficient method requires extensive testing and could take a decade. An innovative, disruptive approach may be necessary to address future outbreaks effectively. The potential for a quick response to novel viruses, like avian strains in China, highlights the need for agile solutions.