Alumni, Arches

Always a Logger: Adam Willard ’03

When Adam Willard ’03 emerged from high school in Bend, Ore., and prepared to enroll at Puget Sound as a pre-med major, he hated chemistry so much that he made his teacher a promise: He would never take another chemistry course that he wasn’t absolutely required to take.

A few years later, after deciding he didn’t want to go to medical school, Willard discovered that the only way he could graduate on time was by majoring in chemistry. When he took a quantum mechanics course, he realized he’d found a branch of chemistry that he actually enjoyed.

With the encouragement of his advisor, Ken Rousslang, Willard worked at an experimental spectroscopy lab on campus, and went on to graduate school at Berkeley and a postdoctoral position at University of Texas. There, he delved into theoretical chemistry, a branch of physical chemistry that examines the structural and dynamic properties of molecules and molecular materials.

Adam Willard ’03. Photo by Justin Knight

CHANGE IN PLANS  Adam Willard ’03 thought he wanted to be a doctor, but ended up in quantum mechanics. Photo by Justin Knight

Since 2013, Willard has been at M.I.T., where he is an associate professor and recently earned tenure. He and his research group are seeking to understand the properties of plastic and polymer molecules— which tend to be more disordered than what you might see in metal or other materials—as well as the interaction between water and other molecules. It is, essentially, Willard says, a deeper dive into “the effects of disorder in physical systems.”

How the research might eventually apply to our daily lives isn’t entirely clear at this point, since the path from fundamental science to technological application can be long and unpredictable. But it could help create more flexible solar panels, more efficient batteries and lighting, or even more effective materials for quantum computing. “We’re focused on uncovering fundamental insight at a level of granularity where the practical applications are not clear yet,” Willard says. “But the more that we understand about what these systems are capable of, the more technology can emerge from it.”