Curriculum
Curriculum
Core Courses
Monographic Study
Mechanical Behavior of Materials
Electrochemistry of Materials
Solid State Materials Physics
Physical Chemistry of Materials
X-ray Diffraction and Crystal Structure
Advanced Physical Metallurgy
Kinetic Process of Materials
Thermodynamics of Materials
Fundamental Courses
Special Topics on Surface Analysis
Phase Transformation
Processing and Characterization of Nanomaterials
Heat Treatment of Metal
Practical vacuum technology and industrial applications
Instrumental Analysis
Special Topics on Surface Analysis
Professional Courses
Functional Materials
Biosensors
Bio-inspired Materials
Metal Materials
Metal Fatigue
Electronic Materials Science
Mechanical Metallurgy
Amorphous Metallic alloys
Corrosion and Corrosion Prevention Engineering
Special Topic on Electrochemistry
Optoelectronic Semiconductor Materials
Metamaterial Physics
Solid State Engineering
Semiconductor Photoelectrochemistry
Introduction to Semiconductor Devices
Semiconductor Water Bonding:Science and Technology
Processing of Semiconductor Thin Films
Photovoltaic Materials and Devices
Introduction to Thin Film Physics
Introduction to Semiconductor Devices
Electronic Material and Device Characterization
Energy Materials
Nanotechnology for Energy Applications
Technology and applications of batteries
Materials and Devices for Lithium Ion Batteries
Introduction to Energy Technology
Hydrogen Energy and Fuel Cells
Fuel Cells
Theory and Technology of energy storage
Hydrogen Energy Materials
1. For a master degree, 24 credits are required.
2. Four of the eight core courses should be selected; students should pass at least two of them.
3. One seminar course should be taken every semester.