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Taiwan Experience Education Program 
TEEP 2023 (closed)

Due to the overwhelming response of the activity, all reservations are full.

Innovative Research of Novel Clean Energy and Two-Dimensional Optoelectronic Devices

The program welcomes international students majoring in chemistry, chemical engineering and materials science to come to Taipei Tech for 2 to 6-month exchange. Exchange students may choose their supervisors according to their specialties and interests, and participate in related research.

Students studying at Taipei Tech can apply the on-campus dormitory and take free Chinese language courses. In terms of cultural exchanges, they also can join the department's activities to experience exotic cultures and cuisine.

#Applicants 
Undergraduates and postgraduates majoring in chemistry, chemical engineering, materials or related disciplines

#Application and Deadline
Please email CV and a brief statement of purpose to Prof. Yu-Hsu Chang (yhchang@ntut.edu.tw) before Apr. 30, 2023


#Advisor List
Department of Materials and Mineral Resources Engineering

 

Yu-Hsu Chang, Professor                                   https://smalllab.wixsite.com/website

  • Synthesis of inorganic electrode materials for CO2 conversion to organic compounds.

  • Synthesis of energy materials as the catalysts of highly efficient oxygen evolution reaction for photo- or electrochemical water splitting.

  • In-situ observations of catalytic surface reaction mechanism by synchrotron-radiation XPS near ambient pressure.

 

Tzu-Hsuan Tsai, Associate Professor, Director                                https://ppt.cc/fVkelx                      

  • Removal of nickel & phosphite from chemical plating waste solution and production of nickel-containing components for electrochemical capacitors.

  • Photoelectrochemical cathodic protection of metals by coating films. Start with preparing inks and study the characteristics of coated films using electrochemical techniques etc.

  • Galvanic corrosion of heterogeneous metals during chemical-mechanical planarization. Research combines experimental data and computer-aided engineering simulation.

 

Po-Chun Chen, Associate Professor                                        https://ppt.cc/f1b6Ix

  • Development of bio-interface electrode materials.

  • Advanced packaging processes for medical electronics implants.

  • Electrocatalysts for non-enzymatic electrochemical sensors.

  • Design of nanocatalysts for energy applications.

 

Shao-Sian Li, Assistant Professor                                         https://ppt.cc/fkNhhx

  • Next generation energy material for solar energy harvesting, such as high efficiency perovskite solar cell and catalyst for solar-to-fuel conversion.

  • Layer deposition and stacking of 2D materials for energy, optoelectronics and biomedical applications.

  • Micro-scale electrochemical reaction by using scanning electrochemical cell microscopy (SECCM).

 

Wei-Hao Lee, Assistant Professor                                         https://ppt.cc/fR4zux

  • Mineral processing/Waste recycling - This research field mainly utilizes the differences in physical properties of different substances in minerals/waste, such as: specific gravity, magnetism, electrical conductivity, surface properties...etc. After the minerals/waste are processed, the gangue (valueless) will be removed, and the product produced can be sold without affecting the original physical and chemical properties.

  • Geopolymer technology/Eco-friendly building material development –This technology allows industrial waste/by-products to be effectively prepared into building materials, which can achieve the purpose of cradle-to-cradle and make eco-friendly building materials with low carbon emissions.

 

Chia-Cheng Lin, Assistant Professor                https://myweb.ntut.edu.tw/~johncclin/index.html

  • Functional nanocrystals for electrochemical small molecule activations (OER, HER, and CO2RR) and optical applications (SERS and SEIRS).

 

Wing-Kiu Yeung, Assistant Professor                                      https://ppt.cc/fGIGCx

Automated nanoparticle synthesis, 3D porous membrane modulation & optical sensing

  • We use microfluidics' advantages to prepare nanoparticles. Microfluidics reactors have advantages with automation, rapid synthesis and easy operation.

  • Plasma electrolytic oxidation (PEO) is an electrochemical conversion process that can convert bulk metal into oxide ceramic layers. It is known to be able to fabricate porous structures with a customizable composition of the oxide membrane. By carefully designing the parameters, each layer can have a different primary role, thus resulting in a multifunctional tandem catalyst filter.

  • To understand the mechanism behind the PEO process, a spectroscopic study of the electrolytic plasma behaviour during the PEO process is conducted. The in situ measurement of the optical emission spectroscopy provides valuable information on the growth mechanism.

Department of Chemical Engineering and Biotechnology

Chih-Yu Kuo, Assistant Professor                           https://chihyukuo314.wixsite.com/pnbl

  • Synthesis and characterization of stimuli-responsive block copolymers so as to precisely design and control the polymeric self-assembly.

  • Improving and optimization of polymer processing with organic/inorganic blending and polymer chemistry.

  • Self-assembled, polymeric coating for extra-corporal circulation applications.

  • Development of an injectable, thermo-responsive hydrogel via RAFT polymerization for the treatment of osteomyelitis.

 

 

Department of Molecular Science and Engineering

Chi-Ching Kuo, Professor, Chair                  https://ntutapnl.wixsite.com/mysite/about?lang=en

  • Micro/nano optoelectronics for wearable optical LEDs, Integrated circuits, and communications.

  • Design, fabrication, and implantation of nanofiber optical devices.

  • Stable long-term wearable optoelectronics & highly tough and conductive polymeric composites.

  • Self-healing polymer synthesis: Stretchable self-healable polymeric perovskites-based LEDs.

  • Perovskites quantum dots (QD): 2D, and 3D synthesis and stability control.

  • Smart Textiles: Colorimetric intelligent sensors, wearable electrospun health sensors and energy generating textiles.

  • Nano and QD structured hybrid/composite polymeric smart textiles.

  • Mechanically robust and air permeable lightweight energy harvesters.

 

Chun-Che Lin, Assistant Professor                                         https://ppt.cc/f0vJPx

  • Synthesis and application of novel high-efficiency infrared phosphors.

  • Synthesis and display applications of stable perovskite quantum dots.

  • Applications of self-healing polymers in human body sensing and dressing.

  • Photocatalytic organometallic framework materials in carbon dioxide reduction.

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