AlphaFold
Revealing millions of intricate 3D protein structures, and helping scientists understand how life’s molecules interact.
Revealing millions of intricate 3D protein structures, and helping scientists understand how life’s molecules interact.
A unifying DNA sequence model that advances regulatory variant-effect prediction.
Cataloguing millions of genetic mutations to help pinpoint the root causes of diseases.
Generating novel proteins for biology and health research to advance drug design and disease understanding.
A unified data representation that revolutionizes global mapping and monitoring.
Producing state-of-the-art forecasts for a world of increasingly extreme weather.
Test our experimental weather forecasting models.
Searching for new solutions in mathematics and computer science.
Translating mathematical problems into a formal language to verify proofs.
Solving complex geometry problems at a level close to a human Mathematical Olympiad gold-medalist.
Accelerating and optimizing chip design to create incredibly powerful chip layouts.
Speeding up the discovery of inorganic crystals, essential components for technology like solar panels and batteries.
Accelerating fusion science through learned plasma control.
Identifying errors inside quantum computers, helping to make them more reliable.
Using deep learning to solve fundamental problems in computational quantum chemistry.
AlphaFold has helped researchers understand the full-length structure of a critical protein related to the disease. This breakthrough has marked a turning point in their work, enabling further research into a transmission-blocking vaccine to help combat malaria.
AlphaFold has helped researchers reveal structures within the resistance mechanism. This is accelerating their work on possible solutions to the problem of antimicrobial resistance.
Plastic pollution is a critical threat to the environment. AlphaFold has helped researchers make breakthroughs that could help solve this problem.
Researchers have used AlphaFold to predict the structure of PINK1. This knowledge has helped them explore what effect other mutations may have, and how those might lead to Parkinson’s. That could help pave the way for new treatments that could impact over 10 million people worldwide.
AlphaFold has helped researchers generate a near-complete model of the entire complex. Knowing how it’s assembled could open the door to other groundbreaking, even life-saving, discoveries.
Scientists have used AlphaFold to peer back in time, comparing 3D shapes of proteins and tracing their evolution back through millions of years.
The Forum brought together scientists, policymakers, and industry leaders to explore the transformative potential of AI to drive scientific breakthroughs.