<p>Plastics have historically been developed to be optimal for a specific use, but what if a single material could be made flexible for one application or sturdy for another? We are joined by Stuart Rowan, professor of molecular engineering innovation and enterprise at the University of Chicago, who shares how he is developing materials whose properties can be changed on demand.       </p>

Plastics have historically been developed to be optimal for a specific use, but what if a single material could be made flexible for one application or sturdy for another? We are joined by Stuart Rowan, professor of molecular engineering innovation and enterprise at the University of Chicago, who shares how he is developing materials whose properties can be changed on demand.

<p>Plastics have historically been developed to be optimal for a specific use, but what if a single material could be made flexible for one application or sturdy for another? We are joined by Stuart Rowan, professor of molecular engineering innovation and enterprise at the University of Chicago, who shares how he is developing materials whose properties can be changed on demand. &nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;</p>

Pluripotent Polymers

This is the Discovery Files Podcast from the U.S. National Science Foundation. Join us as we explore the latest breakthroughs in science, technology and engineering with the researchers making these discoveries. Learn how scientific innovation bolsters the U.S. economy, supports our Nation’s interests around the globe, and improves the lives of Americans.

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Pluripotent Polymers

Pluripotent Polymers