Part I – We demonstrate how a simple 2-dimensional cut and fold patterns transform into 3-dimensional shapes upon stretching, resulting in mechanical metamaterials with several interesting properties and applications (e.g. stretchable electronics, energy storage and energy harvesting). We de-tail several shapes that can be used for diurnal solar tracking and for up to 100x solar concentration, while maintaining a low profile of a flat panel, potentially transforming the economics of solar electricity generation. Part II – We demonstrate a simple thin-film printing technique with which we obtain complex molecular organic nano-crystalline structures with dramatically enhanced dissolution behavior and bioavailability (e.g. for small molecular cancer drugs). We discuss how this technique, compatible with 90% of active pharmaceutical ingredients on the market, unlocks new frontiers for drug discovery, formulation, and manufacturing.
“Dynamic kirigami structures for integrated solar tracking.” Nature Comm. 6, 8092 (2015)
“A kirigami approach to engineering elasticity in nanocomposites through patterned defects.” Nature Mater., 14 (2015) 785
“An Electric Eel-Inspired Artificial Soft Power Source from Stacked Hydrogels.” Nature, 552 (2017) 214
“Printing of Small Molecular Medicines from the Vapor Phase.” Nature Comm., 8 (2017) 711
“Growth and modelling of spherical crystalline morphologies of molecular materials.” Nature Comm. 5 (2014) 5204
Seminars are open to alumni, friends of the Department, and the general public.