Traditional electronics (DC through GHz) operate based on statically fixed materials that are not typically expected to flex, stretch, or move. All of these actions typically result in undesirable effects on the electronic functionality. We are interested in studying novel materials systems that will usher in new paradigms in agile and flexible electronics, utilizing such materials as electronic fluids and stretchable/foldable conductors. This opportunity focuses on exploring the fundamental understanding of these materials and the unique processing conditions they may require that will enable next generation robust electronics and adaptable functionality.

 

References

Dickey M: Emerging Applications of Liquid Metals Featuring Surface Oxides, ACS Applied Materials and Interfaces 6(21): 18369, 2014

He J; Nuzzo R; Rogers J: Inorganic Materials and assembly techniques for flexible and stretchable electronics, Proceedings of the IEEE 103(4): 619, 2015

Li Z, et al: Rational Design of a Printable, Highly Conductive Silicone-based Electrically Conductive Adhesive for Stretchable Radio-Frequency Antennas, Advanced Functional Materials 25(3): 464, 2015

 

key words

Gallium liquid metal alloys; Electromagnetic origami; Stretchable electronics; Flexible electronics; Agile electronics; Surface chemistry; Additive manufacturing; Organic electronics;

Citizenship:  Open to U.S. citizens

Level:  Open to Postdoctoral and Senior applicants