WORKING EXPERIENCE： Director of Ph.D. Program in Biomedical Engineering and Medical Devices, Ming Chi University of Technology, Taiwan (2019,08~current).
 Division director in Technology R&D Group of Research Center for Intelligent Medical Devices (2018,03~current).
Full Professor in Ph.D. Program in Biomedical Engineering and Medical Devices, Ming Chi University of Technology, Taiwan (2021,02~current).
 Associate Professor in Ph.D. Program in Biomedical Engineering and Medical Devices, Ming Chi University of Technology, Taiwan (2019,08~2021,01).
 Associate Professor in Department of Mechanical Engineering, Ming Chi University of Technology, Taiwan (2014,08~2019,07).
 Assistant Professor in Department of Mechanical Engineering, Ming Chi University of Technology, Taiwan (2010,08~2014,07).

Ph.D. Program in Biomedical Engineering and Medical Devices/ Laboratory in Functional materials
My laboratory focuses on the functional materials. The following are my current research interests to share for you.

My team develops next-generation supercapattery device (i.e., the intergation of a Li-based battery and a hybrid supercapacitor) with the high-energy density from the battery-type material and the high-power density from the supercapacitor-type material. In the supercapacitor side, layered 2D MXene materials will be synthesized with activated carbon (AC) to form a hybrid MXene-AC composite as the novel and more potential electrode. On the other hand, in battery side, more portentail lithium-based oxides (e.g., Li4Ti5O12, LiFePO4, and LiCoO2) as the battery-type electrode. The approach of hybridizing supercapacitors and batteries can reinforce the properties of the two dissimilar systems offering opportunities for the next-generation energy storage devices. The hybrid supercapattery device with synergic effect (i.e., high power density, high energy density, and fast charging-discharging time) to enhance energy storage performances will likely be a developing roadway to offer opportunities for next-generation energy storage applications.

On the other hand, my team also develops dielectric capacitance with a fast charge-discharge time, high power density, fatigue resistance, and thermal stability, it can be developed as some applications such as hybrid electric vehicles, pacemaker, integrated circuit, laser weapon, electromagnetic gun, ion accelerator, plasma technology.  We combine perovskite ferroelectric materials (BiFeO3, BaZrTiO3, NaTaO3, NaNbO3) and glass systems to produce a relaxor ferroelectric dielectric capacitors with optimized energy storage properties. The purpose of combining the perovskite relaxor ferroelectric ceramics and glass systems is to develop entropy configuration that offers attractive features identified to be phase-stabilization, sluggish diffusion, and lattice mismatch and distortion. The optimized compositions will be utilized for the process approach in fabricating the multilayer ceramic capacitor (MLCC) via the tape casting technique in order to maximize the superior energy storage properties in dielectric ceramics for actual industrial application. The process approach will focus in designing parallel MLCC device with large Wrec, high and Eb, fast charging-discharging time, excellent fatigue- and thermal-stability.