[Summary of the course] This course focuses on advanced inorganic materials, especially relating to photonics and catalysis. For students at the other undergraduate majors, this course provides opportunity to learn advanced science and technology in the fields of applied chemistry as well as fundamentals to inorganic chemistry being equivalent to 200-level courses.
[Aim of the course] The aim of the course is to understand the importance of the basic inorganic chemistry from a global viewpoint. The relation to fundamental chemistry will be discussed with showing examples including frontier inorganic chemistry of photochemistry, solid chemistry and surface chemistry. However, the main topic is a review on the basic inorganic chemistry. Relationships with other chemistry fields (organic chemistry, macromolecular chemistry, chemical engineering and energy conversion) will also be discussed.
At the end of this course, students will be able to:
1) Understand the importance and back ground of fundamental chemistry in order to study inorganic photochemistry and catalyst chemistry.
2) Indicate examples and mechanism of interaction between light and transition elements, metal and metal complex.
3) Explain synthesis route of nano particles and porous materials and relation between them and catalysis.
Photonics, Catalysis, Surface Chemistry, Solid Chemistry, Nanomaterial, Supramolecule, Macromolecule, Chemical Engineering
|✔ Specialist skills||Intercultural skills||Communication skills||Critical thinking skills||✔ Practical and/or problem-solving skills|
Each class contains (1) introduction of an application of inorganic chemistry, (2) giving problems, and (3) a review of fundamental inorganic chemistry. Some of the class have (4) Discussion or exercises, and (5) explanation for them. (6) Examinations will be done to assess students' achievements of learning outcomes.
|Course schedule||Required learning|
|Class 1||X-ray absorption and emission based on inorganic compounds||Understand atomic orbital transition and explain x-ray generation.|
|Class 2||Light reflection and absorption by metal||Understand interaction between free electron and light, and explain an example to generate high energy density state.|
|Class 3||Light absorption based on coordination bond||Understand the concept of electronic state and coordination bonding of metal ion and explain their examples of light absorption.|
|Class 4||Control of macroscopic phenomena by light absorption||Explain the concept of photo-induced redox and examples.|
|Class 5||Physicochemical properties of nano-sized materials||Explain the unique properties, which are evolved in nano-sized materials.|
|Class 6||Preparation of nano-sized materials||Explain the preparation method and the originated from nano-sized materials.|
|Class 7||Preparation and catalytic application of mesoporous materials (1)||Understand the catalytic application of mesoporous materials and explain principles of the surface properties.|
|Class 8||Preparation and catalytic application of mesoporous materials (2)||Understand the catalytic application of mesoporous materials and explain principles of the bulk properties.|
P. Atkins, T. Overton, J. Rourke, M. Weller, F. Armstrong, "Inorganic Chemistry", 5th Ed., Oxford University Press; ISBN: 978-0-1992-3617-6.
Reference materials will be distributed at the beginning of the course.
Examination (50 %) and exercise (50 %) on various structures, properties and application for photoenergy conversion and catalysis of transition elements, metal, metal complex, nano particle, porous materials.
Students must has a credit of Inorganic Chemistry (Elements and Compounds) otherwise, has knowledge for fundamentals of inorganic chemistry. (Preferable to take Advanced Inorganic Chemistry I.)