From renewable energy solutions to next-generation electronics, progress in solving our world’s greatest challenges often depends on the discovery of new, high-performance materials. Yet, the process of creating these materials is often slow, expensive, and based on trial and error. This inefficiency is a significant bottleneck that hinders our ability to address pressing energy and environmental issues. To accelerate innovation, we need a new, more rational approach to material design.

This project finds inspiration in the natural world. A snowflake, for example, is a masterpiece of complex design, formed efficiently and with low energy from a disordered, non-equilibrium state. By studying the principles behind such natural phenomena, researchers aim to establish a new “science of non-equilibrium.” This new science will be built by combining cutting-edge technology that can measure material synthesis in real-time with the predictive power of artificial intelligence, which can identify patterns humans might miss. This will enable them to move beyond observing nature to truly understanding its rules. One outcome is, for example, to accelerate the discovery of novel catalysts.

The goal is to create a development hub that can efficiently produce innovative, sustainable, and high-performance materials, transforming our approach to solving global challenges.

Project Members