Experimental physicist & Director of Data at Savor, a climate tech startup designing fats and oils at the molecular level. PhD in physics from UC Berkeley. Bridging quantum research and climate resilience.

Constructing and manipulating matter at the atomic and molecular scale is a framework for innovation that has inspired scientific and engineering research for generations. Successful application of this framework spans from the pharmaceutical industry, which derives competitive advantage from molecular design, to the petrochemical industry, which built much of the twentieth century's material economy on the same foundation. Even the burgeoning field of quantum computing promises that the interactions of fundamental particles can be harnessed to perform optimizations and simulations beyond the realm of any classical computer.
What this session argues is that the framework is now being applied more broadly and under a different set of pressures. Climate change and resource constraints are prompting a reconsideration of how basic goods — the world’s food supply in particular — are produced. Tools from chemistry, molecular biology, and applied physics are central to that reconsideration. The discussion will touch on existing commercial applications, the dual technical and economic pressures to scale, and where emerging techniques in molecular assembly may find productive application.