Purpose of this lecture is to study the functionality and principle of various leading-edge advanced materials. In addition,
the physicochemical properties and production methods of the advanced materials are also introduced.
In this lecture, you can study on various advanced materials. Physicochemical properties, production methods, functionalioties
of the advanced materials are explained and reviewed. Application of advance materials such as carbon materials, lithium air
batteries, and biomimetic materials to industrial fields are also introduced.
- Understand the production method and processing of advanced materials.
- Understand textures, structures, thermodynamics, and functionalities of the advanced materials.
- Understand the relationship between physcochemical properties and functionalities of the advanced materials.
| Understanding of manufacturing and processing methods | Understanding the correlations between microstructure, structure, thermodynamics, and functions | Understanding the effects of manufacturing, processing, and microstructure on material properties | Total. | |
|---|---|---|---|---|
| 1. | 30% | 30% | ||
| 2. | 40% | 40% | ||
| 3. | 30% | 30% | ||
| Total. | 30% | 40% | 30% | - |
| Class schedule | HW assignments (Including preparation and review of the class.) | Amount of Time Required | |
|---|---|---|---|
| 1． | Introduction of advanced materials (1) | You must review thermodynamics, electrochemisty, crystal structures, physicalchemistry studied in undergraduate course. | 120minutes |
| 2． | Introduction of advanced materials (2) | You must review thermodynamics, electrochemisty, crystal structures, physicalchemistry studied in undergraduate course. | 120minutes |
| 3． | Fabrication methods of advanced materials (1) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 100minutes |
| 4． | Fabrication methods of advanced materials (2) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 120minutes |
| 5． | Process methods of advanced materials (1) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 120minutes |
| 6． | Process methods of advanced materials (2) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 120minutes |
| 7． | Functionalization of advanced materials (1) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 120minutes |
| 8． | Functionalization of advanced materials (2) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 120minutes |
| 9． | Functionalization of advanced materials (3) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 120minutes |
| 10． | Functionalization of advanced materials (4) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 120minutes |
| 11． | Processing and functionalization of battery materials (1) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 120minutes |
| 12． | Processing and functionalization of battery materials (2) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 120minutes |
| 13． | Processing and functionalization of carbon materials (1) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 120minutes |
| 14． | Processing and functionalization of carbon materials (2) | Read and understand research paper, and summarize it. Then, prepare the presentation materials on the research paper. | 120minutes |
| Total. | - | - | 1660minutes |
The final grade is based on a Presentation (50%) and a Presentation Report (50%). A total score of 60 or higher is required
to pass.
Grading Scale (100-point scale)
90 points or above (Excellent):
The student can perfectly explain the correlations between manufacturing, microstructure, thermodynamics, and functions based on physicochemical evidence. Furthermore, they can provide logical personal insights regarding challenges in material design and future perspectives that go beyond existing knowledge. They also demonstrate the ability to analyze and discuss the characteristics of advanced materials accurately and from multiple perspectives by linking them with fundamental theories.
80 points or above (Good):
The student can appropriately explain common aspects of advanced materials (such as manufacturing and structure) with almost no deficiencies. They understand the relationship between the properties of representative advanced materials and fundamental concepts and can describe them logically, including their own insights. Additionally, they can use technical terminology correctly and provide answers that align with the intent of the questions.
60 points or above (Fair/Pass):
The student has a general understanding of fundamental concepts such as manufacturing methods, processing techniques, and thermodynamics covered in the lectures. They can provide standard descriptions of the relationship between practical examples and basic principles based on textbooks and provided materials. Furthermore, there are no critical errors in their descriptions, demonstrating a level of knowledge sufficient for a passing grade.
Grading Scale (100-point scale)
90 points or above (Excellent):
The student can perfectly explain the correlations between manufacturing, microstructure, thermodynamics, and functions based on physicochemical evidence. Furthermore, they can provide logical personal insights regarding challenges in material design and future perspectives that go beyond existing knowledge. They also demonstrate the ability to analyze and discuss the characteristics of advanced materials accurately and from multiple perspectives by linking them with fundamental theories.
80 points or above (Good):
The student can appropriately explain common aspects of advanced materials (such as manufacturing and structure) with almost no deficiencies. They understand the relationship between the properties of representative advanced materials and fundamental concepts and can describe them logically, including their own insights. Additionally, they can use technical terminology correctly and provide answers that align with the intent of the questions.
60 points or above (Fair/Pass):
The student has a general understanding of fundamental concepts such as manufacturing methods, processing techniques, and thermodynamics covered in the lectures. They can provide standard descriptions of the relationship between practical examples and basic principles based on textbooks and provided materials. Furthermore, there are no critical errors in their descriptions, demonstrating a level of knowledge sufficient for a passing grade.
| ways of feedback | specific contents about "Other" |
|---|---|
| Feedback in the class |
- Course that cultivates an ability for utilizing knowledge
- Course that cultivates a basic interpersonal skills
- Course that cultivates a basic self-management skills
| Work experience | Work experience and relevance to the course content if applicable |
|---|---|
| N/A | N/A |
- 4.QUALITY EDUCATION
- 7.AFFORDABLE AND CLEAN ENERGY
- 9.INDUSTRY, INNOVATION AND INFRASTRUCTURE
Last modified : Wed Mar 25 04:04:46 JST 2026