Research | um-zhou

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From the underlying mechanism to architecture establishment, we aim at the optimization of high-performance flexible sensor, including the fundamental property such as linearity, sensitivity, and working range.
We also seek the advanced approach to broaden the applications of wearable electronics from healthcare monitoring to intelligent human-machine interactions.
Via coupling of the magnetism-functionalized components, we search for advanced methodology to mimic the perception of human skin and neural system.

Our primary interest lies in the design and preparation of robust surface with durable water repellency. Related fluid dynamics was also focused to explore the phenomena such as droplet rebound, and colloid assembly, etc.
We are interested in the study of fluid behavior in the micro-confined scales, e.g. microfluidic chip, and exploring the approaches for fluid control in laminar region.
We aim to explore non-wetting effects that can effectively protect flexible sensors with anti-fouling capabilities to advance the applications of wearable systems.