We engineer flexible electronics and novel processing methodologies to advance free-form fabrication for innovative electronics.
My vision for flexible electronics is not only to create new stretchable objects and applications, but also to increase design and process versatility by taking advantage of digital fabrication techniques.
Printing is currently at the mesoscale regime that bridges the gap between nanoscale patterning and macroscale machining. Engineering the compatibility of multiple materials will be advantageous for integration of different components. Today, commercial and open-source digital printers have created many 3D structural parts that have intricate geometric shapes not possible by make any other method. Currently 3D printing is concentrated on structural form, and very little consideration is placed on other functionalities. If flexible electronic devices such as sensors, indicators, and power sources can be embedded and are integral with structural supports, many more new system designs and functions will become available. I want to solve this device and material issue to expand design freedom and advance fabrication capabilites.
Science, 350, (2015) 313 In collaboration with the Zhenan Bao group and Stanford colleagues
Professor Ng's research involves plastic electronics patterned by inkjet printing instead of traditional photolithography. Prior to joining UCSD, Tina was a Senior Research Scientist at Palo Alto Research Center. Her work includes demonstration of bendable image sensors for x-ray medical imaging, complementary organic circuits and non-volatile memory for a sensor tape that monitors head concussions. She led the development of printed sensor platforms (a joint project between PARC and ThinFilm Electronics) -- which was awarded the 2012 FLEXI Innovation Award and named Runner-Up of Wall Street Journal Technology Innovation Award in 2012.
Dr. Ng received her Ph.D. in Physical Chemistry from Cornell University, where she worked with Professor John Marohn on (1) examining charge injection processes in organic semiconductors by electric force microscopy and (2) thermomagnetic fluctuations and hysteresis loops of sub-micron magnets for magnetic resonance force microscopy.