MIT researchers introduce Boltz-1, a fully open-source model for predicting biomolecular structures
With models like AlphaFold3 limited to academic research, the team built an equivalent alternative, to encourage innovation more broadly.
With models like AlphaFold3 limited to academic research, the team built an equivalent alternative, to encourage innovation more broadly.
Using high-powered lasers, this new method could help biologists study the body’s immune responses and develop new medicines.
Chronic diseases like diabetes are prevalent, costly, and challenging to treat. A common denominator driving them may be a promising new therapeutic target.
Novel method to scale phenotypic drug screening drastically reduces the number of input samples, costs, and labor required to execute a screen.
Large multi-ring-containing molecules known as oligocyclotryptamines have never been produced in the lab until now.
By helping microbes withstand industrial processing, the method could make it easier to harness the benefits of microorganisms used as medicines and in agriculture.
Through academia and industry, Gevorg Grigoryan PhD ’07 says there is no right path — just the path that works for you.
A new gene-silencing tool shows promise as a future therapy against prion diseases and paves the way for new approaches to treating disease.
The program focused on AI in health care, drawing on Takeda’s R&D experience in drug development and MIT’s deep expertise in AI.
The SPARROW algorithm automatically identifies the best molecules to test as potential new medicines, given the vast number of factors affecting each choice.
SMART researchers find a cellular process called transfer ribonucleic acid (tRNA) modification influences the malaria parasite’s ability to develop resistance.
Alnylam Pharmaceuticals, founded by MIT professors and former postdocs, has turned the promise of RNAi research into a new class of powerful therapies.
Immunai’s founders were researchers at MIT when they launched their company to help predict how patients will respond to new treatments.
MIT spinout Strand Therapeutics has developed a new class of mRNA molecules that can sense where they are in the body, for more targeted and powerful treatments.
Using a DNA-based scaffold carrying viral proteins, researchers created a vaccine that provokes a strong antibody response against SARS-CoV-2.