Course Syllabus

Course Information：

Year-Semester Course Number Course Name Phase Credits Hours Required/Elective Instructor Class Student NO. Withdraw Note

Spring Semester
Year 2023 314485 Photoelectrochemistry and solar cell 1 3.0 3 ★ SHENG-MING CHEN GCEB
IDEOM 30 0 化工所EOMP合開(外籍生或博士以上)

Year-Semester	Course Number	Course Name	Phase	Credits	Hours	Required/Elective	Instructor	Class	Student NO.	Withdraw	Note
Spring Semester Year 2023	314485	Photoelectrochemistry and solar cell	1	3.0	3	★	SHENG-MING CHEN	GCEB IDEOM	30	0	化工所EOMP合開(外籍生或博士以上)

Course Plan：

Instructor SHENG-MING CHEN　Office Hours

Email smchen@ntut.edu.tw

Last Updated 2022-12-13 22:25:11

Course Objective The concept of photoelectrochemistry is to utilize the solar energy and other light sources to drive a complete electrochemical oxidation-reduction reaction where the photocatalytic electron reaction has been converted into electrical energy. Photovoltaic cells which also known as solar cells composed of organic and inorganic materials and electrolytes are the great example for the photoelectrochemical reactions. Here the proposed course is constructed to introduce and implement the basic photoelectrochemical principles, measurements, photoelectrocatalysis, photoelectrical charge transfer and the storage of chemical energy. Further the remaining section of this course will be focused on the detailed studies about the development of different inorganic, organic materials for the fabrication of dye-sensitized solar cells.

Course Schedule 1.Introduction of photoelectrochemistry and solar cell 2.Photoelectrocatalysis and photoelectrochemical reactions 3.Electrocatalysis, photocatalysis, Photoelectrocatalysis and electrochemical energy 4.Modified electrodes and Photoelectrochemistry 5.Photoelectrochemical cell and Photoelectrochemical Solar Cells 6.Applications of Photoelectrocatalysis and Photoelectrochemistry 7.TiO2-based dye-sensitized solar cell 8.Nano composited materials modified electrode and solar cell 9.Photoelectrochemical cell with Carbon nanotube 10.Metal oxide-based photoelectrochemical cells 11.Cyclic voltammetry and Photoelectrochemistry 12.EIS and Photoelectrochemistry 13.HOMO, LUMO and Photoelectrochemistry Midterm exam 14.Photocatalyst modified electrode and counter electrode 15.Electron transfer and dye 16.Electron transfer and mediator 17electrolyte and solar cell 18.Photocurrent voltage, dark current and fill factor 19.Incident photon to charge carrier efficiency 20.The application of biomaterial and solar cell 21.Biomaterials, biomolecules and photoelectrochemistry 22.Enzyme-based photoelectrochemical cell 23.photoelectrochemical biofuel cell 24.Organic Solar Cells 25.Fabricated of solar cells 26.Photoelectrochemical Hydrogen Production and photosynthetic 27.hydrogenase & HER 28.Photoelectrochemical sensors and analysis 29. Electrocatalysis and energy 30. Photocatalysis and energy 31. OER ORR HER HRR and Electrocatalysis 32. OER ORR HER HRR and photoelectrocatalysis Final exam

Evaluation and grading policy (Presentation)80% (Attend)10% (Question)10%

Materials All right reserved. Do not reproduce without permission.

Foreign-language textbooks:No
Academic journals

The access to curricular consultation National monument building 404

The course corresponds to the SDGs

Does the course incorporate AI

Note
　

Instructor	SHENG-MING CHEN　Office Hours
Email	smchen@ntut.edu.tw
Last Updated	2022-12-13 22:25:11
Course Objective	The concept of photoelectrochemistry is to utilize the solar energy and other light sources to drive a complete electrochemical oxidation-reduction reaction where the photocatalytic electron reaction has been converted into electrical energy. Photovoltaic cells which also known as solar cells composed of organic and inorganic materials and electrolytes are the great example for the photoelectrochemical reactions. Here the proposed course is constructed to introduce and implement the basic photoelectrochemical principles, measurements, photoelectrocatalysis, photoelectrical charge transfer and the storage of chemical energy. Further the remaining section of this course will be focused on the detailed studies about the development of different inorganic, organic materials for the fabrication of dye-sensitized solar cells.
Course Schedule	1.Introduction of photoelectrochemistry and solar cell 2.Photoelectrocatalysis and photoelectrochemical reactions 3.Electrocatalysis, photocatalysis, Photoelectrocatalysis and electrochemical energy 4.Modified electrodes and Photoelectrochemistry 5.Photoelectrochemical cell and Photoelectrochemical Solar Cells 6.Applications of Photoelectrocatalysis and Photoelectrochemistry 7.TiO2-based dye-sensitized solar cell 8.Nano composited materials modified electrode and solar cell 9.Photoelectrochemical cell with Carbon nanotube 10.Metal oxide-based photoelectrochemical cells 11.Cyclic voltammetry and Photoelectrochemistry 12.EIS and Photoelectrochemistry 13.HOMO, LUMO and Photoelectrochemistry Midterm exam 14.Photocatalyst modified electrode and counter electrode 15.Electron transfer and dye 16.Electron transfer and mediator 17electrolyte and solar cell 18.Photocurrent voltage, dark current and fill factor 19.Incident photon to charge carrier efficiency 20.The application of biomaterial and solar cell 21.Biomaterials, biomolecules and photoelectrochemistry 22.Enzyme-based photoelectrochemical cell 23.photoelectrochemical biofuel cell 24.Organic Solar Cells 25.Fabricated of solar cells 26.Photoelectrochemical Hydrogen Production and photosynthetic 27.hydrogenase & HER 28.Photoelectrochemical sensors and analysis 29. Electrocatalysis and energy 30. Photocatalysis and energy 31. OER ORR HER HRR and Electrocatalysis 32. OER ORR HER HRR and photoelectrocatalysis Final exam
Evaluation and grading policy	(Presentation)80% (Attend)10% (Question)10%
Materials	All right reserved. Do not reproduce without permission. Foreign-language textbooks:No Academic journals
The access to curricular consultation	National monument building 404
The course corresponds to the SDGs
Does the course incorporate AI
Note