̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Computer Literacy and Programming (2.0credits) (コンピュータ・リテラシー及びプログラミング)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
1 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Yuhki TSUKADA
MATSUOKA Tatsurou
Associate Professor
Associate Professor______________________________________________________________________________●Course Purpose
This course deals with basic knowledge about Python programming. It also enhances students' skill in
Python programming for scientific computation.
By the end of the course, students should be able to do the following:(1) Obtain basic knowledge about Python programming,(2) Debug and run a program,(3) Develop a program code for a scientific computation.
●Prerequisite Subjects●Course Topics
1. Style guide for Python code
2. Data types
3. Flow control
4. Functions
5. Libraries
6. List and array
7. Data visualization
8. Data input/data output●Textbook●Additional Reading●Grade Assessment
Reports: 50%
Term-end examination: 50%●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Crystal Physics (2.0credits) (結晶物理学)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
1 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Takahisa YAMAMOTO
Professor______________________________________________________________________________●Course Purpose
Various materials have been devised so that the functions such as electrical, magnetic, mechanical strengthcharacteristics and so on can be adapted to the application. It is a well-known fact that the bonding state(electronic state) between atoms or ions constituting the material is closely related to the appearance of thefunction of the material. In order to understand such bonding state, we must understand how atoms and ionsare arranged. And this understanding becomes basic knowledge to know the function of the material.Manyof the materials consist of a structure in which atoms and ions are correctly arranged under a certain rule.
This structure is called a crystal structure, and the academic field which classifies and understands it iscalled crystallography. Crystallography is essential knowledge for understanding the functional
characteristics of materials and it becomes basic knowledge necessary for many lectures to be learned fromnow. In this lecture, from the fundamentals corresponding to the foundation of crystallography, theformation of crystal structure, the concept of Brabais lattice, Miller indices for crystal lattice planes,
orientation axes, stereographic projection method, the concept of reciprocal lattice, the fundamentals ofdiffraction phenomena necessary to analyze crystal structure and X-rays diffraction and so on. In addition, I
will touch on the concept of incomplete crystal structure. Also, consideration is given so that important
keywords in various lectures related to materials to be learned in the future can be reviewed in this lecture.
●Prerequisite Subjects
Infinitesimal calculus I, Liner algebra I, Basic Chemistry I●Course Topics
This lecture will be given in Japanese●Textbook●Additional Reading●Grade Assessment
examination and reports The qualifying marks is 70%●Notes●Contacting Faculty
As required Takahisa Yamamoto, Bldg. Eng.5 Room313, Tel:789-3348email:yamamoto.takahisa@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Physical Chemistry 1 (2.0credits) (物理化学1)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
1 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Toshiyuki KOYAMA
Tetsuya Yamamoto
Professor
Associate Professor______________________________________________________________________________●Course Purpose
Objective of the present subject is to construct the fundamental basis of materials science and engineering
through the exercise on the standpoint of physical chemistry. The key subjects are the properties of gases
and the three laws of thermodynamics in the textbook "Atkins' Physical Chemistry".
●Prerequisite Subjects
Basic chemistry 1, Basic chemistry 2●Course Topics
1. Exercise of basic chemistry 1
2. The perfect gas
3. Real gases
4. Internal energy and work
5. Enthalpy
6. State functions and exact differentials
7. Entropy
8. The Carnot cycle
9. Entropy changes accompanying specfic process
10. The third law
11. The Helmholtz and Gibbs energy
12. Combining the first and second laws
13. Thermodynamic relations
14. The fugacity
15. Mathematical bases of thermidynamics
Read the relevant textbook before each class. After the lecture, solve the textbook exercises and chapter end
problems by yourself.
●Textbook
Atkins' Physical Chemistry(10th Revised edition), Oxford University Press.
Student Solutions Manual to Accompany Atkins' Physical Chemistry TENTH EDITION, Oxford University
Press●Additional Reading
We will introduce them appropriately as the lecture progresses.
●Grade Assessment
Final examination, you have to get the score above 60 pct.
●NotesNo registration requirements are required.
Implementation policy with respect to Corona virus infection: Please refer to the NUCT for the details of
this course.
●Contacting Faculty
By e-mailTetsuya Yamamoto: yamamoto.tetsuya@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Chemical Processes Engineering (2.0credits) (化学プロセス工学)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
1 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Yoshihiro KOJIMAAssociate Professor______________________________________________________________________________●Course Purpose
An outline of history of chemical industry and role of chemical engineering in the industry will be lectured
and students will learn quantitative handling of chemical process units. Through exercises on the units, skillof solving chemical engineering problems will be enhanced.
●Prerequisite Subjects
Fundamentals of Chemistry II, Physical Chemistry 1●Course Topics
1Introduction (History of chemical industry)
2Unit and dimension
3 Process variables
4 Material balance
5 Heat balance
6 Phase equilibrium
7 Chemical equilibrium
8 Unit operation
Assignments will be given and your reports will be collected in the next class.
●Textbook
Appropriate handouts will be given in the class.
●Additional Reading
Elementary principles of chemical processes, R. Felder and R. Rousseau, Wiley(2000)
Kagaku Kougaku Binran (Maruzen Co.Ltd.)●Grade Assessment
Examinations (midterm exam(40%), final exam(40%)) and papers(20%): More than 60 scores on the basisof 100 are acceptable.
●NotesNo registration requirements are required.
●Contacting Faculty
Questions are better to ask after the class.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Mechanics of Materials (2.0credits) (材料力学)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
2 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Makoto KOBASHI
Professor______________________________________________________________________________●Course Purpose
This course aims to introduce the fundamental concepts of mechanics of deformablesolids to students, with
an emphasis on mechanical design. Understanding the specialfeature of the strength of materials of
obtaining an approximate solution by easycalculation leads to the knowledge acquirement used as the basic
of a design of machineparts or structures. A good knowledge in Mechanics of Materials not only enables theengineer to design reliable components economically, but it will also enable theengineer to assess whether
an existing design of a component is reasonable or not.
●Prerequisite Subjects
Obtaining credit in "mathematics" is preferred.
●Course Topics
1. Uniaxal stress condition
Stresses and strains
Safety factor
RahmenTemperature effects and thermal stress
2. Combined stresses and plane stress conditions
Hooke's law
3. Torsion
Torsion of circular bars
Torsion of thin-walled bars
4. Bending of beams
Shear force and bending moment diagrams
Deflection of beams
5. Energy principles
Strain energy
Castigliano’s theorems
6. Stability and buckling●Textbook
Kougaku-kiso Zairyo-rikigaku; Masaichiro Seike●Additional Reading
The printed handouts of the PPT slides will be distributed.
●Grade Assessment
Written examination and home work reports●Notes̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Mechanics of Materials (2.0credits) (材料力学)●Contacting Facultye-mail: kobashi.makoto[at]material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Materials Quantum Engineering (2.0credits) (マテリアル量子工学)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
2 Spring Semester
Elective/Compulsory Compulsory
Lecturer
MihoTAGAWA Associate
Professor______________________________________________________________________________●Course Purpose
Quantum mechanics is a physical science dealing with the behaviour of matter and energy on the scale ofatoms and subatomic particles.This course deals with the basis of quantum mechanics: history, basic
concept, theoretical backgrounds and analytical approaches.
By the end of the course, students should be able to solve problems related to the following:
Wave–particle duality
OperatorEigenvalueEigenfunction
Schrödinger equation
Expectation of physical quantities
Uncertainty principle
One-dimensional well type potential deep endlessly
Angular momentum
Electronic state of hydrogen atom
Electronic states of multi-electron atoms
Harmonic oscillator●Prerequisite Subjects●Course Topics●Textbook●Additional Reading●Grade Assessment●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Materials Solid State Physics (2.0credits) (マテリアル固体物理1)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
2 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Takahiro ITOH Associate Yasuyoshi KUROKAWA
Professor
Associate Professor______________________________________________________________________________●Course Purpose
To develop new materials supporting modern science technology, understanding of microscopic properties
of electrons and/or spins in solid is essentially important. In this lecture, we study variety of the crystal
binding which is related to the electronic properties of materials. Furthermore, we study about crystal
vibrations and phonons with introduction of statistical mechanics which are related to the thermodynamic
and optical properties of materials.
In this class, the goal is for the students to obtain the following knowledge and skills at the end of the class.
1. Understand and explain the types and characteristics of atomic and ionic bonds.
2. Understand and explain fermions and bosons.
3. Understand and explain Fermi-Dirac statistics and Bose-Einstein statistics, which are the basis ofstatistical mechanics.
4. Understand and explain the basics of the free electron model.
5. Understand and explain lattice vibrations (phonons).
●Prerequisite Subjects
Crystal Physics, Calculus I, II, Linear Algebra I, II, Basic Chemistry I, II●Course Topics
1. Crystal Binding
1-1. Covalent crystals
1-2. Ionic crystals
1-3. Metals
1-4. Crystals of inert gases
1-5. Hydrogen bonds
2. Introduction of Statistical Mechanics
2-1. Fermion and Boson
2-2. Grand canonical ensemble
2-3. Fermi-Dirac statistics
2-4. Bose-Einstein statistics
3. Free Electron Model
3-1. Density of states
3-2. Electron Energy Distribution Function
3-3. Electron density in metal
4. Crystal Vibrations: Phonons4-1. Vibrations of crystals with monatomic basis
4-2. Two atoms per primitive basis
4-3. Acoustical mode and optical mode
4-4. Three-dimensional lattice
4-5. Phonons: Quantization of crystal vibrations* Before every class, read the specified textbook "Elementary Solid State Physics (in Japanese)".
* The quizzes at the end of the class are related to the regular exam, so review them.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Materials Solid State Physics (2.0credits) (マテリアル固体物理1)●Textbook
Elementary Solid State Physics (Kodansha)[in Japanese] Chapter 5-7 & 9●Additional Reading
Introduction to Solid State Physics (WILEY, Charles Kittel)●Grade Assessment
Your overall grade in the class will be decided based on the following:-Quiz at the end of every class: 20%-Term-middle and term-end examination: 80%
Based on the sum of these, a grade of C or higher is considered a pass.
It is considered a pass if the basic questions can be handled correctly for the following contents. If you canhandle more difficult questions, your grades will be reflected accordingly.
1. Types and characteristics of bonding of atoms and ions
2. Fermion and Boson
3. Fermi-Dirac and Bose-Einstein statistics as the basis of statistical mechanics
4. Basics of the free electron model
5. Lattice vibration (phonon)●Notes
Ideally, students should be taking / taken Crystal Physics, Calculus I, II, Linear Algebra I, II, Basic
Chemistry I, II, but it is possible to take this course without it.
●Contacting Facultyat end of lecture or e-mailito.takahiro@material.nagoya-u.ac.jp
kurokawa.yasuyoshi@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Mathematics I and Tutorial (2.5credits) (数学1及び演習)
Course Type
Basic Specialized Courses
Class Format
Lecture and Exercise
Course Name
Department of Materials
Science and Engineering
Starts 1
2 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Noriyuki KOBAYASHI Yasuhito MUKAIAssociate Professor
Associate Professor______________________________________________________________________________●Course Purpose
This course deals with the basic concepts and principles of elementary differential equations and vector
analysis for the application to engineering. In order to solve many problems in engineering, vector analysis
such as coordinate transformation, vector field, line integral is required. In addition, in order to deal
quantitatively the half-life of radioactive substances, vibration, electric circuit, and atomic diffusion, it isnecessary to master the differential equation. Therefore, in this class, we aim to learn vector analysis andordinary differential equations and learn to use those knowledge for solving practical engineering problems
through exercises.
●Prerequisite Subjects
Differential and integral calculus I, II
Linear algebra I, II
Mechanics I, IIElectromagnetism I●Course Topics
1. Vector analysis(a) Vector algebra(b) Curves and Plane curves(c) Differential invariant(d) Integral theorems(e) Tensor algebra introduction
2. Ordinary differential equations(a) First order differential equation(b) Second order differential equation(c) Power series solution(d) Higher order differential equation, First order simultaneous differential equation(e) Bessel's differential equation, Bessel's function●Textbook●Additional Reading
Introduced if necessary.
●Grade Assessment
Your overall grade in the class will be decided based on the following:-Class attendance and short reports in class: 20%-Mid-term examination: 40%-Term-end examination: 40%●NotesNo registration requirements required.
# If you have questions in a remote lecture, use the function "Message" of NUCT.
●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Mathematics I and Tutorial (2.5credits) (数学1及び演習)
Questions will be accepted in a lecture room after each lecture or by e-mail.
kobayashi.noriyuki@material.nagoya-u.ac.jp
mukai.yasuhito@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Design and Drawing (2.0credits) (設計製図)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
2 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Nobuki YUKAWA"Takashi ITOH" Associate Eiji ABE Assistant
Associate Professor
Professor
Professor______________________________________________________________________________●Course Purpose
In this class, a lecture that includes simple mechanical drafting training, basic concepts of mechanicaldesign, CAD (computer-aided design), and practice using a personal computer are given.
Tours of machine workshop are also conducted to develop basic knowledge in design.
●Prerequisite Subjects
Mechanics of material●Course Topics
1, Guidance and intruduction
2. Basic computer operations(Computer exercise)
3. Basics of drafting, freehand drawings
4. Bolt drawing(Computer exercise)
5. Tolerance, Fit (Lecture)
6. Design of shaft coupling (Lecture)
7. Design of shaft coupling (Computer exercise)
8. Assignment review●Textbook
Mechanical Drawing 3rd ed.Jikkyo Shuppan)●Additional Reading
Reference materials will be distributed through NUCT
●Grade Assessment
Reports and the final exam.
●Notes●Contacting Faculty
Eiji Abe (Department of Mechanical Engineering, Research Center for Materials Backcasting Technology)
5 Bld. room 203, Tel: 052-789-3572, abe.eiji@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Physical Chemistry 2 (2.0credits) (物理化学2)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
2 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Hiroaki MATSUMIYA
Associate Professor______________________________________________________________________________●Course Purpose
Lectures are given mainly on Physical Chemistry, which is the essential knowledge to materials science andengineering, to afford students a better understanding of chemical thermodynamics.
Performance targets:(1) The essential knowledge such as the phase rule, the phase diagrams, the chemical potentials, freeenergies, and so on can be understood and explained.
(2) The above-mentioned essential knowledge can be utilized to understand physical phenomena andchemical reactions in which materials are involved from physicochemical viewpoints.
●Prerequisite Subjects
Fundamentals of Chemistry II, Physical Chemistry 1●Course Topics
1. Physical transformations of pure substances
Phase diagrams of pure substances / Thermodynamic aspects of phase transitions
2. Simple mixtures
Thermodynamic description of mixtures / Properties of solutions / Activites / Gas-liquid and liquid-liquid
phase diagrams
3. Chemical equilibrium
Equilibrium constant / Response of equilibria to the conditions / Electrochemical cells / Electrodepotentials●Textbook
P. Atkins and J. de Paula, Atkins' Physical Chemistry, 10th edition, Oxford University Press.
●Additional Reading
Specified as needed during the class●Grade Assessment
Both of report and examination are evaluated for the grade judgement. To pass, students must earn at least
60 points out of 100.
Criteria:(1) The essential knowledge such as the phase rule, the phase diagrams, the chemical potentials, freeenergies, and so on can be understood and explained.
(2) The above-mentioned essential knowledge can be utilized to understand physical phenomena andchemical reactions in which materials are involved from physicochemical viewpoints.
●Notes●Contacting Faculty
During the class, the teacher's office during work hour or e-mailmatsumiya.hiroaki@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Introduction to Instrumental Analysis (2.0credits) (機器分析概論)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
2 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Hiroaki MATSUMIYA
Takahisa YAMAMOTO Takahiro ITOH Associate
Associate Professor
Professor
Professor
Shinichiro FUSE Professor MihoTAGAWA Associate
Professor______________________________________________________________________________●Course Purpose
This course provides a clear introduction to the principles and practices underpinning modern instrumental
analysis. Through the course, students will develop an understanding of the fundamentals of instrumental
analysis and various applications of cutting-edge techniques in materials science and engineering.
●Prerequisite Subjects●Course Topics●Textbook●Additional Reading●Grade Assessment●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Strength and Fracture of Materials (2.0credits) (材料強度学)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
2 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Naoki TAKATA
Associate Professor______________________________________________________________________________●Course Purpose
At the beginning of the lecture, wide variety of structure materials will be introduced. Students will study
fundamental properties required for structurematerials. Students also learn elastic and plastic deformation behavior of metallic materials, strengthening
mechanisms and fundamentals of creep at elevated temperatures of metals and alloys.
●Prerequisite Subjects●Course Topics
0. Online guidance for this class
1. Elastic and plastic deformation
2. Theoretical strength
3. Plastic deformation of single-crystal metals
4. Plastic deformation of polycrystalline metals
5. Strengthening of metals
6. Creep at high temperatures
Some exercises will be given after finishing up each chapter.
●TextbookHandouts will be distributed at every sections in this lecture.
●Additional Reading
Materials science and engineering, W.D.Callister Jr., Wiley●Grade Assessment
Attendance, Reports, Examinations at the term end.
Record more than or equal to C grade is qualified.
●Notes
It is better to take a class of "solid mechanics" before taking this class.
●Contacting Faculty
Face-to-face discussions after class or exchanging e-mails through web.
Contact address: takata.naoki@material.nagoya-u.ac.jp (N. Takata)̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Materials Solid State Physics with Exercises (2.5credits) (マテリアル固体物理2及び演習)
Course Type
Basic Specialized Courses
Class Format
Lecture and Exercise
Course Name
Department of Materials
Science and Engineering
Starts 1
2 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Noritaka Usami Professor Yasuyoshi KUROKAWA
Associate Professor______________________________________________________________________________●Course Purpose
Solid state physics is a fundamental discipline to understand the structure, state and properties of materials.
In this lecture, based on the contents learned in "Material Solid State Physics 1", we will study the thermal
properties of solids, free electron theory, band theory, electric conduction in solids. The purpose is to deepen
understanding of the role of electrons in the development of various properties of solids through classes andexercises.
In this lecture, students are expected to obtain the following knowledge and skills at the end of the lecture.
1. Understand and explain the thermal properties of solids.
2. Understand free electron theory and explain the state and behavior of free electrons in metals andsemiconductors.
3. Understand band theory and explain the differences between energy bands in metals, semiconductors, andinsulators.
4. Understand electric conduction in solids and explain the electrical properties of metals andsemiconductors.
●Prerequisite Subjects●Course Topics●Textbook
Elementary Solid State Physics (Kodansha)[in Japanese] Chapter 8-11 & 14(14.1-14.3)●Additional Reading●Grade Assessment●NotesNo registration requirements are imposed.
[Implementation policy of classes related to dealing with new coronavirus infections] Refer to NUCT.
●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Introduction to Advanced Materials Engineering 1 (1.0credits) (先端マテリアル工学概論1)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
2 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
Materials science and engineering contain many concepts: extraction of resources, purification of raw
materials, design and manufacturing of products, treatment and recycling of waste, etc. To develop thematerials in practical use, different academic knowledges are essential. This course introduces a wide
variety of researches progressing in the laboratories of the Department of Materials Engineering. Throughthe course, students are expected to acquire a fundamental academic understanding of materials and theirpractical applications.
●Prerequisite Subjects
Each subject studied in the spring and autumn semesters of the first grade and in the spring semester of thesecond grade.
●Course Topics
Introductory talk on the current research topics, including the underlying sciences, of the Department ofMaterials Science and Engineering.
1. Computational materials design
2. Advanced measurement and analysis
3. Nanostructure design
4. Advanced process engineering
5. Materials creation engineering
6. Chemical systems engineering
7. Materials chemistry●TextbookTextbooks are not specified, but materials will be distributed as needed in class.
●Additional Reading
Specified as needed during the class●Grade Assessment
Reports and quizes are evaluated for the grade judgement. To pass, students must earn at least 60 points outof 100. It is required to explain a fundamental academic knowledge of materials and their practicalapplications (extraction of resources, purification of raw materials, design and manufacturing of products,
treatment and recycling of waste).
●NotesNo requirements for taking this class.
●Contacting Faculty
During the class or at the office upon resevation.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Mathematics II and Tutorial (2.5credits) (数学2及び演習)
Course Type
Basic Specialized Courses
Class Format
Lecture and Exercise
Course Name
Department of Materials
Science and Engineering
Starts 1
2 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Yoshifumi TAKASHIMA "Takashi ITOH" Associate
Professor
Professor______________________________________________________________________________●Course Purpose
This lecture gives mathematical knowledge to understand physical and chemical phenomena appearing in
the engineering field.
Students are expected to achieve the following contents through this lecture and exercise.
1. The general solution of the differential equation can be derived using the Laplace transform.
2. Various periodic changes can be expressed using a Fourier series.
3. Explain the Fourier integration and the Fourier transform.
4. A general solution of the partial differential equation can be derived based on the variable separation
method.
5. Various physical phenomena can be described and explaned using partial differential equations.
●Prerequisite Subjects
Calculus, Linear algebra, Mechanics, Electromagnetism●Course Topics
Partial differential equation, Fourier expansion, Fourier transformation, Laplace transformation, special
functions●Textbook
Advanced engineering mathematics tenth edition, Erwin Kreyszig (John-Willey Sons,Inc.)●Additional Reading
Reference books will be introduced in the lecture.
●Grade Assessment
Examination:80%, Exercises:20%
Total points of 60% is required at the least.
●Notes●Contacting Faculty
In case of questions: Make contact toProf. Takashima: takasima(at)nusr.nagoya-u.ac.jp
Assoc. Prof. Itoh: itoh.takashi(at)material.nagoya-u.ac.jp** Please replace (at) with @.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Advanced Processes Engineering 1 (2.0credits) (先端プロセス工学1)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
2 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Masaki MIZUGUCHI
Yoshitaka ADACHI
Naoki TAKATA
Professor
Professor
Associate Professor______________________________________________________________________________●Course Purpose
This lecture will explain the material process from the following three viewpoints.
<0> Online guidance<1> Heat treatment process (Naoki TAKATA Associate Professor)<2> Thermo-mechanical treatment process (Yoshitaka ADACHI Professor)<3> Thin-film growth process (Masaki MIZUGUCHI Professor)<1>The lecturer intends to introduce critical issues on heat treatment processes to control microstructure ofmetals in terms of physical metallurgy. Based on above knowledge, the students will be guided tounderstand correlation between heat treatment process, microstructure and properties and also to get someinsights on strengthening mechanism of metallic materials.
<2> Tissue control of structural materials is done by combining processing and heat treatment. While
processing and heat treatment are performed independently, thermo-mechanical treatment is a treatment
aiming at a synergistic effect of processing and heat treatment. In this lecture, we focus on phasetransformation, recrystallization behavior and synergistic effect of processing and explain it easily.
<3> The purpose of this lecture is to understand fundamental processes for the crystal growth of thin films
mainly by the solid-phase growth. Processes and mechanism during the thin-film growth will be discussed.
Fabrication methods, properties and application of various functional thin films will be also introduced.
●Prerequisite Subjects
Metallurgy, Strength and Fracture of Materials, Physical Chemistry, Electrochemistry, Inorganic Chemistry●Course Topics<1>Heat treatment process (4 times)
1. phase diagram
2. Phase transformation in Heat treatment process
3. Principle in Strengthening by Heat treatment process (2 times)<2> Thermo-mechanical treatment process (4 times)
1. Ordinary hot processing
2. Controlled rolling / accelerated cooling
3. Quenching / tempering
4. Ausforming
5. Austempering
6. Marquenching
7. Martempering
8. Patenting<3> Thin-film growth process (4 times)
1. Thermodynamics, nucleation, and surface energy
2. Crystal structure, surface kinetics, and epitaxial growth̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Advanced Processes Engineering 1 (2.0credits) (先端プロセス工学1)
3. Fabrication methods, properties and application of various functional thin film materials●Textbook
There are no textbooks prescribed. Handouts will be distributed at every sections in this lecture●Additional Reading
Heat treatment process
Materials Science and Engineering 8th edition, William D. Callister and David G. Rethwisch, Wiley (2011)
Thin-film growth process
Utau Nishinaga: "Crystal Growth"●Grade Assessment
Reports at the term end.
Record more than or equal to 60/100 is qualified.
●NotesNo requirement for taking this class.
●Contacting Faculty
Face-to-face discussions after class or exchanging e-mails through web.
Contact address:
takata.naoki@material.nagoya-u.ac.jp ((1) N. Takata)adachi.yoshitaka@material.nagoya-u.ac.jp ((2) Y. Adachi)
mizuguchi.masaki@material.nagoya-u.ac.jp ((3) M. Mizuguchi)̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Physical Chemistry 3 with Exercises (2.5credits) (物理化学3及び演習)
Course Type
Basic Specialized Courses
Class Format
Lecture and Exercise
Course Name
Department of Materials
Science and Engineering
Starts 1
2 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Nagahiro Saito Professor Junko HIEDA Associate Ryouichi ICHINO
Professor
Professor
YutakaMATSUO
Professor______________________________________________________________________________●Course Purpose
In addition to viewpoints on phase change and thermodynamics of chemical reactions of substances which is
acquired in Basic Chemistry II and III, Physical Chemistry 1 and Physical Chemistry 2,
in Physical Chemistry 3 and exercises, students will aquire the viewpoint of understanding by atoms andmolecules (Interface Chemistry:Intermolecular force/ aggregation/ adsorption) and the viewpoint ofunderstanding by chemical reactions dynamically (the first step in reaction kinetics).
●Prerequisite Subjects
Physical Chemistry 1, 2, Fundamentals of Chemistry I, II●Course Topics
Lectures and exercises will be given on the following topics in the textbook.
[Chapter 16 Molecular interactions]
Van der Waals interaction (dipole, London force), hydrogen bond, hydrophobic interaction, Agglutination,liquid, interfacial tension[Chapter 17 Macromolecules and Self-assembly (C, D Only)]
Micelle, vesicle, molecular membrane, colloid, electric double layer, zeta potential[Chapter 22 Processes on solid surfaces (A, B Only)]
Physical adsorption, chemisorption, adsorption isotherm[Chapter 20 Chemical Kinetics (A, B, D Only)]
Reaction order, reaction rate equation (primary reaction, secondary reaction), Arrhenius equation
Before each lecture, prepare the relevant part with a textbook and review the previous lecture.
●Textbook
Atkins' Physical Chemistry(10th Revised edition), Oxford University Press.
●Additional Reading
Student Solutions Manual to Accompany Atkins' Physical Chemistry TENTH EDITION, Oxford University
Press.
●Grade Assessment
Evaluate the degree of goal achievement through exercises and final exams.
●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Heat Transfer and Diffusion (2.0credits) (熱移動と拡散)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
2 Autumn Semester
Elective/Compulsory Compulsory
Lecturer"Takashi ITOH" Associate Seiichi DEGUCHI
Professor
Lecturer______________________________________________________________________________●Course Purpose•Course Purpose
In the theory of transport phenomena, the transports of momentum, heat and mass are described withanalogous basic formulae. In the various materials production and manufacturing processes, on the other
hand, the transport of heat and mass play important roles frequently. In this lecture, students are expected tolearn about the basic theories of heat transfer and materials diffusion.
Students are expected to obtain the following abilities concerning transport phenomena(1) To understand the fundamental aspects of diffusion phenomena(2) To understand the fundamental aspects of heat-transfer phenomena(3) To understand the fundamental aspects of transport phenomena on the basis of energy●Prerequisite Subjects
Dynamics 1,2 Mathematics 1,2 with Exercises Chemistry 1,2●Course Topics
1. Fundamentals of diffusion phenomena, Fick's laws and mass flux
2. Physical aspects of diffusion and the mechanisms of diffusion
3. Diffusion equations under typical boundary conditions
4. Fluid flow and mass transfer
5. Fundamentals of heat transport phenomena (Fourier's law and heat flux)
6. Heat conduction equations under typical boundary conditions
7. Flow and conductive & convective heat transfer, and, radiative heat transfer
8. Combustion calculations
9. Thermal energy conversions (heat pumps)
Out-hours learning:
To prepare for the next class and understand the meaning of technical terms.
●Textbook
Appropriate handouts or specific citations will be given in the class.
●Additional Reading
R. B. Bird, W. E. Stewart, E. N. Lightfoot : Tranport Phenomena 2nd. ed., John Wiley & Sons.
D. R. Poirier & G. H. Geiger : Transport Phenomena in MaterialsProcessing, TMS●Grade Assessment
A pass is accepted if diffusion phenomena and heat transfer phenomena of substance can be interpreted inprinciple, transfer phenomena including diffusion and heat transfer in general can be understood from theviewpoint of energy, and mass balance equation and heat balance equation can be derived.
If you can handle more difficult questions, it will be reflected in your grades accordingly.
Short tests and reports: 0 to approx.20%
Final examination: approx. 80% to 100%
Total points of 60% is required at the least.
●Notes̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Heat Transfer and Diffusion (2.0credits) (熱移動と拡散)No course requirements●Contacting Faculty
Contact phone number and email address
Assoc. Prof. T. Itohphone: 6064
e-mail: itoh.takashi(at)material.nagoya-u.ac.jp
Assoc. Prof. S. Deguchi
phone: 3383
e-mail: deguchi.seiichi(at)material.nagoya-u.ac.jp** Please replace (at) with @.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Phase Equilibria (2.0credits) (相平衡論)
Course Type
Basic Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
2 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Toru UJIHARA Professor______________________________________________________________________________●Course Purpose
You study thermodynamics of solution, phase rule and phase diagram based on phase equilibrium based on
the knowledge of chemical equilibrium and free energy. You can evaluate and describe phase diagrams byusing the knowledge of chemical thermodynamics.
●Prerequisite Subjects●Course Topics
The lecture (reports) includes the following topics:1. Outline of phase diagram2. phase equilibrium3.
chemical potential and free energy4. binary phase diagram 5. isomorphous phase diagram6. Eutectic phase
diagram7. Peridectic phase diagram8. Free energy and binary phase diagram9. Ternary phase diagram●Textbook
Zairyoukei no jyoutaizu nyuumon (ASAKURA SHOTEN)●Additional Reading
kinnzokubuturigaku goukinjyoutaizu tokuhon●Grade Assessment
Your final grade will be calculated according to the term-end exam. To pass, students must earn at least 60
points out of 100.
●Notes●Contacting Faculty
E-mail̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Fluid Flow with Exercises (2.0credits) (流動及び演習)
Course Type
Basic Specialized Courses
Class Format
Lecture and Exercise
Course Name
Department of Materials
Science and Engineering
Starts 1
2 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Akira ITO Professor______________________________________________________________________________●Course Purpose
The rheology, the basic equations for flow, and the laminar and turbulent flows in pipe are lectured. Basedon these, the principles of measurement of velocity and flow rate, the design of fluid transportation and pipeline are followed. The exercises enhance the comprehensive understanding and make the ability of
application of knowledge to the various problems. At the end of the course, participants are expected tomaster the basis of rheology, which leads to Multiphase Flow given in the spring semester for third graders.
●Prerequisite Subjects
Chemical Processes Engineering●Course Topics
1. Rheology, 2. Basic equations for flow, 3. Laminar and turbulent flows in pipe, 4. Measurement ofvelocity and flow rate, 5. Pipeline design
The exercise will be held at every lecture, so please review it.
●Textbook
The Society of Chemical Engineers. Japan, Higher Education Committee, Hajimeteno Kagaku Kogaku Purosesu kara Manabu Kiso (Maruzen) 2007
●Additional Reading
Kagaku Kogaku Benran 6th Ed. (Maruzen)●Grade Assessment
For each of rheology, basic equations of flow, in-pipe laminar flow, and turbulent flow, the weights ofevaluation for each goal are equivalent. It will be reflected in the grade in accordance to the difficulty of the
problems. Evaluation is made by mid-term exam (30%), final exam (30%), exercise (30%), and learning
attitude (10%), and pass 60 points or more out of 100 points.
●NotesNo registration requirements required.
●Contacting Faculty
Accepted at anytime̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Experiments 1 (2.0credits) (学生実験1)
Course Type
Basic Specialized Courses
Class Format
Experiment
Course Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
The purpose of this program is to divide into small groups to practice basic items in material engineering,
deepen the understanding of basic knowledge on material engineering, and cultivate applied skills to makeuse of it in the field.The goal is to be able to do the following by learning this subject.1. Learn the safety
management, measurement principles, principles of various devices, and usage methods related toexperiments.2. Learn how to analyze the experimental data.3. Learn how to write a report.
●Prerequisite Subjects●Course Topics●Textbook●Additional Reading●Grade Assessment●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Materials Quantum Chemistry (2.0credits) (マテリアル量子化学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Noritaka Usami Professor Yuhki TSUKADA
Associate Professor______________________________________________________________________________●Course Purpose
The aim of this course is to help students acquire an understanding of electronic theories for atoms andmolecules and nature of chemical bondings.
The goals of this course are to(1) be able to understand and explain the physical meaning of eigen value and eigen function in Schrodinger
equation,(2) be able to understand and explain the solution of Schrodinger equation for hydrogen atom,(3) be able to understand and explain how to solve Schrodinger equation for a multi-electron atom,(4) be able to understand and explain the relationship between electronic state and chemical bonding ofmolecules based on the molecular orbital method.
●Prerequisite Subjects
Quantum mechanics
Solid state physics●Course Topics
Schrodinger equation
Electronic state of hydrogen atom
Electronic state of multi-electron atom
Molecular orbital method
Electronic state of molecule●Textbook●Additional Reading●Grade Assessment
Reports: 20%
Term-end examination: 80%●NotesNo registration requirements are imposed.
[Implementation policy of classes related to dealing with new coronavirus infections] Refer to NUCT.
●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Chemical Reaction Engineering (2.0credits) (反応工学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Seiichi TAKAMI
Professor______________________________________________________________________________●Course Purpose
Reaction engineering is the fundamental knowledge to understand chemical reaction processes, to design
better chemical process, and to realize industrial scale production of various materials. This lecture treats thebasic of reaction engineering including reaction kinetics, heterogeneous reaction, and mass transfer.
Practices will be done during lecture.
Upon successfully completion of this course, students should become able to the following things.
1. Based on the understanding of kinetic theory of gases, students should be able to predict reaction rate
constant at different temperatures.
2. Based on the understanding of rate kinetics, students should be able to evaluate the change in theconcentration of reactants and products with reaction time.
3. Students should be able to determine reaction order and reaction rate constants based on experimental
results.
4. Based on the understanding of heterogeneous reaction, students should be able to estimate the reaction
rate of reactions with mass-transfer rate-determine step.
●Prerequisite Subjects
Physical Chemistry 3, Mathematics I, Mathematics II●Course Topics
1. Review on reaction kinetics
Factors that affect the reaction rate will be studied based on kinetic theory of gases. Rate of heterogeneous
reaction will be also reviewed about the adsorbed gases on solid surfaces.
2. Evaluation of the concentration of reactants and products
Evaluation method will be studded about the concentration of reactants and products based on reaction orderand reaction rate constants.
3.Heterogeneous reaction with mass transfer
The idea of rate-determine step will be studied. The method to evaluate the rate of the reaction process with
mass-transfer will also be studied.
A quiz will be placed at the end of the class. The contents of the class should be reviewed until next class.
●Textbook
Materials are supplied in the class.
●Additional Reading
Will be introduced in the class.
●Grade Assessment
Grade assessment will be performed based on the evaluation including midterm exam, final exam, andquizzes about kinetic theory of gases, reaction kinetics, and heterogeneous reaction. Student will earn acredit if they understand and treat principle knowledges and grade will be determined by the degree ofunderstanding.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Chemical Reaction Engineering (2.0credits) (反応工学)●NotesNo requirements for taking this course.
[Plan of classes in response to Coronavirus Disease 2019]
Changes in the plan of classes are shown in the NUCT page of this course.
●Contacting Faculty
Questions are accepted during lectures. Questions are also accepted by e-mail after lectures.
E-mail : takami.seiichi@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Exercises on Physical Chemistry (1.0credits) (物理化学演習)
Course TypeSpecialized Courses
Class Format
Exercise
Course Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Tetsuya Yamamoto
Hiroaki MATSUMIYA
Junko HIEDA Associate
Associate Professor
Associate Professor
Professor______________________________________________________________________________●Course Purpose
Outline: Complement the lecture contents and deepen understanding through exercises on physicalchemistry.
Achievement: Understand the theoretical treatment of various issues such as chemical equilibrium, phaseequilibrium, chemical reaction rate, intermolecular interaction, surface chemistry, and colloid chemistry, anddevelop fundamental skills to develop creativity and comprehensive power in material engineering.
●Prerequisite Subjects
Fundamentals of Chemistry II, Physical Chemistry 1-3●Course Topics
1. Exercise on calculation of gas properties
2. Exercise for calculating thermodynamic quantities
3. Exercise of phase equilibrium calculation
4. Exercise of chemical equilibrium
5. Exercise for calculating chemical reaction rate
6. Exercise for calculating molecular interactions
7. Exercises on interface and colloid chemistry●Textbook
Atkins' Physical Chemistry(10th Revised edition), Oxford University Press.
●Additional Reading
Student Solutions Manual to Accompany Atkins' Physical Chemistry TENTH EDITION, Oxford University
Press.
For other books, refer to the syllabus for each background subject.
●Grade Assessment
Submit all reports to pass.
●NotesNo registration requirements are required.
Exercises are conducted in remote (on-demand) classes using NUCT.
Possible to exchange opinions between students regarding the exercises using the NUCT function"Message".
●Contacting Faculty
By e-mailTetsuya YAMAMOTO: yamamoto.tetsuya@material.nagoya-u.ac.jp
Hiroaki MATSUMIYA: matsumiya.hiroaki@material.nagoya-u.ac.jp
Junko HIEDA: hieda.junko@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Metallography (2.0credits) (材料組織学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Compulsory Elective
Lecturer
Toshiyuki KOYAMA
Professor______________________________________________________________________________●Course Purpose
Properties of materials depend strongly on their internal microstructures. The aim of this course is tounderstand the principles governing the phase transformations and microstructure changes. The main
subjects of this course are phase diagrams and phase transformations based on the thermodynamics. The
goals of this course are to know the microstructure components such as crystal structure, phases, defects,
grain structures, domain structures, etc., to understand the phase equilibria based on the Gibbs energy ofmaterials, and to understand the microstructure changes based on the diffusion controlled phasetransformations and diffusion-less structural phase transitions.
●Prerequisite Subjects
Crystal PhysicsPhase Equilibria●Course Topics
The contents of this course are as follows. 1. Introduction(Landscape of this course and the materials
design engineering), 2. Crystal structure and X-ray diffraction, 3. Defects in crystalline materials, 4. Phases:
solid solution, ordered phase, intermetallic compound and amorphous, 5. Phase diagram and Gibbs energy(I), 6. Phase diagram and Gibbs energy (II), 7. Nucleation and growth, 8. Diffusion in solids (I), 9. Diffusion
in solids (II), 10. Diffusion controlled phase transformations (I), 11. Diffusion controlled phasetransformations (II), 12. Diffusionless phase transformations (I), 13. Diffusionless phase transformations(II), 14. Recovery and recrystallization, 15. CALPHAD method and phase-field method, Students should
check the above items based on the textbook or documents on NUCT by the next lecture.
●Textbook
T.Abe: Computational materials design - Computational thermodynamics -, Uchoda Roukakuho Publishing
Co. Ltd., (2019), T.Koyama: Computational materials design - Computational phase transformations -,Uchoda Roukakuho Publishing Co. Ltd., (2019).
●Additional Reading
E. Matsubara et al., Metallograpy, Asakura Publishing Co. Ltd., (2011), M. Kato: Introduction to dislocation
theory, Shokabo Co. Ltd., (1999).
●Grade Assessment
Your overall grade in the class will be decided based on the following:Class attendance and attitude in class:
10%, Short reports: 10%, Term-end examination: 80% As for the each of phase stability and phasetransformations, pass the examination if the basic problem can be dealt with correctly, and if it can handle
the more advanced problem, reflect it in the grade accordingly.
●NotesThere is no requirements to take this course.Implementation policy with respect to Corona virus infection:
Please refer to the NUCT for the details of this course.
●Contacting Faculty
Recess after a lecture, or office hours (contact by e-mail).

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Materials Plasticity (2.0credits) (材料塑性学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Compulsory Elective
Lecturer
Nobuki YUKAWA
Associate Professor______________________________________________________________________________●Course Purpose
In this class, students will learn the theory of plastic deformation and the basics of metal forming thatutilizes plastic deformation to understand the importance of manufacturing.
Exercises will be done at the end of each lecture.
●Prerequisite Subjects
Mathematics, Mechanics of material, Strength of material●Course Topics
1. Technology features of metal forming
2. Material science of plastic deformation
3. Dynamics and analysis method of metal forming
Yield criteria
Constitutive equation
Slab method
Upper bound method
Finite element method
4. Various metal forming method
Rolling
Extrusion/Drawing
Shearing
Forging
Sheet metal forming
5. Other issues
Machining
Tribology
Measurement●Textbook●Additional Reading
Manuscripts will be distributed via NUCT
●Grade Assessment
80% by final exam, 20% by reports and homeworks
Total record more than or equal to C grade is qualified●Notes●Contacting Faculty
Face-to-face discussions after class or exchanging e-mails through web.
Contact address: yukawa@nagoya-u.jp(N. Yukawa)̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Materials Process Engineering (2.0credits) (素材プロセス工学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Compulsory Elective
Lecturer
Ryouichi ICHINO
Professor______________________________________________________________________________●Course Purpose
In this lecture, students will learn the outline of the smelting process from ore to the production of metal as araw material, and basic matters related to typical physicochemical and reaction process engineering
phenomena in this series of processes.
aim
Basic explanation of iron-making and steel-making processes
Basic explanation of non-ferrous refining process
Chemical reactions in high temperature processes can be explained by equilibrium and kinetics
Chemical reaction of electrolytic process can be explained by equilibrium and kinetics●Prerequisite Subjects
Fundamentals of Chemistry I-II, Physical Chemistry 13, Phase Equilibria, Chemical Reaction,
Electrochemistry.
●Course Topics
1. Outline of Steel manufacturing process
Basis of iron making process and reactions in blast furnace, and outline of steelmaking process and reactions
in converter and electric furnace
2. Outline of Non-ferrous smelting
Basics of dry non-ferrous refining, wet non-ferrous smelting and molten salt electrolysis, and each typicalsmelting process.
Homework is assigned after each class, so submit it as a small report next time.
●Textbook
Printed paper required for lecture items will be distributed.
●Additional Reading
Physical Chemistry of Metals, JIM, Maruzen
Ferrous Process Metallurgy, JIM, Maruzen
Extractive Metallurgy, JIM, Maruzen
Kinzoku-Binran, JIM, Maruzen●Grade Assessment
Written examination.
Record more than or equal "C" rank is qualified.
The criteria for acceptance are as follows; A correct understanding of basic concepts and knowledge about
the metal smelting process●Notes●Contacting Faculty
Face-to-face discussions after class or exchanging e-mail.
Prof. R. Ichino: ichino.ryoichi@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Electrochemistry (2.0credits) (電気化学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Compulsory Elective
Lecturer
Yasutoshi IRIYAMA
MunekazuMOTOYAMA
Professor
Lecturer______________________________________________________________________________●Course Purpose"Electrochemistry" is a study on electron transfer of mataterials, and its application fields are expanding tobatteries, surface treatments, sensors, electrolysis and so on. The purpose of this lecture is to acquire basic
knowledge to understand the principles and laws of electrochemistry in equilibrium and kinetic theory, andto cultivate application skills applicable to the latest devices.By learning this lecture, students will be able
to:1. Understand thermodynamics, especially chemical potential and electrochemical potential, and to derivechemical equilibrium and Nernst equation and solve fundamental problems related thereto.2. UnderstandPourbaix Diagram and consider basic guidelines for corrosion and corrosion prevention.3. UnderstandButler-Volmer equation and solve basic problems related to it.
●Prerequisite Subjects●Course Topics●Textbook●Additional Reading●Grade Assessment●NotesThere are no course requirements.[Policy for the response to COVID-19]Refer to the NUCT of this course.
●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Multiphase Flow (2.0credits) (混相流動)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Compulsory Elective
Lecturer
Koyo NORINAGA
Akira ITO Professor
Professor______________________________________________________________________________●Course Purpose
The aim of the lecture is to deepen knowledge of the behaviors of particles, gas bubbles and liquid droplets
in a fluid, and to learn the multiphase flow on the basis of knowledge of these behaviors. Moreover, students
who take the lecture can acquire ability to apply the knowledge to solve problems of engineering topics. At
the end of the course, participants are expected to master the basis of multipahse flow, which leads to
System Control given in the fall semester for third graders.
●Prerequisite Subjects
Fluid Flow with Exercises●Course Topics
1. Motion of particles, bubbles and droplets, 2. Flow of fluids through granular beds, 3. Multiphase flow, 4.
Fluid flows in equipment
The exercise will be held at the end of lecture, so please review it.
●TextbookOriginal text will be distributed●Additional Reading
Kagaku Kogaku Benran, Maruzen●Grade Assessment
For understanding the behavior of particles, bubbles, droplets, multiphase flow, the weights of evaluation foreach goal are equivalent. It will be reflected in the grade in accordance to the difficulty of the problems.
Evaluation is made by mid-term exam (30%), final exam (30%), exercise (30%), and learning attitude(10%), and pass 60 points or more out of 100 points.
●NotesNo registration requirements required.
●Contacting Faculty
Accepted at any time.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Separation Systems (2.0credits) (分離システム)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Compulsory Elective
Lecturer
Yasuhito MUKAIAssociate Professor______________________________________________________________________________●Course Purpose
The mechanical separation engineering, including sedimentation, flocculation, filtration, membrane
separation, centrifugation, crystallization, dust collection, is lectured to make the ability to apply thisknowledge.
●Prerequisite Subjects
Fluid Flow with Exercises, Multiphase Flow
●Course Topics
1. Basis of mechanical separation engineering
2. Sedimentation
3. Flocculation
4. Filtration
5. Membrane separation
6. Centrifugation
7. Crystallization
8. Dust collection
9. Other mechanical separation systems●Textbook
Bunri Prosesu Kogaku no Kiso, Asakura Shoten●Additional Reading
Kagaku Kogaku Benran, Maruzen
Roka Kogaku Handobukku, Maruzen●Grade Assessment
Examination and Reports●NotesNo registration requirements required.
If you have questions in a remote lecture, use the function "Message" of NUCT.
●Contacting Faculty
Questions will be accepted in a lecture room after each lecture.
If you have questions in a remote lecture, use the function "Message" of NUCT.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Powder Technology (2.0credits) (粒子・粉体工学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Compulsory Elective
Lecturer
Hideki KITA Professor
Tetsuya Yamamoto
Associate Professor______________________________________________________________________________●Course Purpose
Particles and powders refer to solid substances ranging from nanometers to tens of microns, and are widelyused as raw materials for pharmaceuticals, foods, ceramics, catalysts, cosmetics, etc. It has the negative sideof bringing the above risks.
Particle / powder engineering is not only a foundation for producing high-performance materials as a basis
for the manufacturing industry, but is also a discipline that is environmentally friendly and operates powder
particles safely.
By learning this lecture, the goal for students is to be able to:
1. Understand the chemical synthesis method of the particle powder as well as the physical method
involving pulverization, and apply to specific problems.
2. Understand the mechanism by which the particle powder is dispersed and aggregated in the liquid phase,and can be applied to specific problems.
3. Understand how to quantify features such as the shape and size of particle powder based on statistics andapply it to specific problems.
4. Understand mechanical properties and calculation methods including friction of powder and apply to
specific problems.
●Prerequisite Subjects
Surface-interface chemistry,Statistics,Fracture mechanics●Course Topics
1.How to understand Particle and Powder Technology
2.Fracture mechanics of particles
3.Synthesis and production of powder
4.Measurement of powder size distributions,5.Powder packing structure,
6,Behaviors of particles in fluids,Interactions of particles(focused on DLVO theory)
7.Powder mechanics(Mohr's circle,internal friction)
8.Fluid dynamics in powder bed
Read the relevant textbook before each class. After the lecture, solve the textbook examples and chapter end
problems by yourself. In addition, students will be required to submit a report assignment several times, so
solve it and submit it.
●Textbook
Nyumon RyusiFuntai kougakukaitei dai 2han(Nikkan kougyou sinbunsya)●Additional Reading
Nothing special. Distribute materials if necessary.
●Grade Assessment
The degree of achievement for the achievement target is evaluated by reports and written tests.
“Pass” is given to the student who is able to correctly understand the basic issues with respect to the items
shown in the class contents,For the student who is able to understand more difficult questions, reflect themon the grade according to the level and results of the questions.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Powder Technology (2.0credits) (粒子・粉体工学)●NotesNo registration requirements are required.
●Contacting Faculty
Lecturers will respond during breaks and office hours after lectures.
ex. 3096, kita.hideki@material.nagoya-u.ac.jp
Assoc. Prof.Yamamotoex. 3378, yamamoto.tetsuya@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Introduction to Advanced Materials Engineering 2 (1.0credits) (先端マテリアル工学概論2)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Elective
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
Students learn about the recent practical applications of materials science and engineering through thelectures by several experts working in various companies or research institutes. Through the course, students
will gain practical and broad insight in the research and development of materials in the real world.
●Prerequisite Subjects
Each subject studied in Department of Materials Science and Engineering●Course Topics
Advanced technologies of materials science and engineering and their recent applications in the following
fields:1. Metals/ceramics industries
2. Semiconductor industries
3. Automobile industries
4. Chemical industries
etc.
●TextbookTextbooks are not specified, but documents will be distributed as needed.
●Additional Reading
We will introduce as needed.
●Grade Assessment
Reports and quizes are evaluated for the grade judgement. To pass, students must earn at least 60 points outof 100. It is required to explain the advanced technologies of materials science and engineering and theirrecent applications in metals/ceramics industries, semiconductor industries, automobile industries, chemicalindustries, and so on.
●NotesThere is no requirement to take this course.
This course will be conducted remotely.
The NUCT function "Message" should be used to ask questions.
The NUCT function "Message" should be used to exchange opinions among students regarding this course.
●Contacting Faculty
As mentioned above, questions about this course are accepted using the NUCT function "Message".
Representative instructor of this course: Toshio Ogawa

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Advanced Processes Engineering 2 (2.0credits) (先端プロセス工学2)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Elective
Lecturer
Syunta HARADA
Nagahiro Saito Professor Motonobu GOTO
Associate Professor
Professor______________________________________________________________________________●Course Purpose
The purpose of this lecture is to deepen the understanding of the following three processes that are importantin the material process.[1] Crystal growth process (Harada)[2] Plasma process (Saito)[3] Supercriticalprocess (Goto)[1] Crystal growth process: Semiconductor thin film / bulk crystal growth process that
supports electronics[2] Plasma process: Thin film formation / surface treatment / material synthesis processusing plasma[3] Supercritical process: Fundamentals and applications of technology using supercriticalfluids that exceed the critical temperature and critical pressure●Prerequisite Subjects●Course Topics●Textbook●Additional Reading●Grade Assessment●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Exercises on Solid State Physics (1.0credits) (固体物理演習)
Course TypeSpecialized Courses
Class Format
Exercise
Course Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
MihoTAGAWA Associate Takahiro ITOH Associate Yuhki TSUKADA
Professor
Professor
Associate Professor
Takahisa YAMAMOTO
Professor______________________________________________________________________________●Course Purpose
This course enhances students' skill in solving problems related to solid state physics.
By the end of the course, students should be able to solve problems related to crystal physics, quantum
mechanics, solid state physics and quantum chemistry.
●Prerequisite Subjects
Crystal physics
Quantum mechanics
Solid state physics
Quantum chemistry●Course Topics
1. Exercise in crystal physics
2. Exercise in quantum mechanics
3. Exercise in solid state physics
4. Exercise in quantum chemistry●Textbook●Additional Reading●Grade Assessment
Exercises: 100%
●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Experiments 2 (2.0credits) (学生実験2)
Course TypeSpecialized Courses
Class Format
Experiment
Course Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
This class aims for deepening your understandings of structures, functions, and properties of various
materials and basic theories associated with their processing through basic and advanced experiments indifferent fields of materials engineering. You will do experiments with different purposes in this class.
These experiments give you opportunities to learn important experimental methods for conducting a
research in material science. Also, you will examine and analyze your own experimental results.
Eventually, you will have acquired specialized knowledge and applied skills in material engineering.
●Prerequisite Subjects●Course Topics●Textbook●Additional Reading●Grade Assessment●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Physical Chemistry 4 (2.0credits) (物理化学4)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
MunekazuMOTOYAMA Wataru NORIMATSU
Lecturer
Associate Professor______________________________________________________________________________●Course Purpose
This course mainly deals with statistical thermodynamics that bridges the microscopic properties of mattersand their bulk properties. As a preliminary step, students learn the basics and techniques on the rotationaland vibrational spectra. Using statistical thermodynamics, students acquire knowledge to calculate
thermodynamic quantities, chemical equilibrium constants, and the transition state theory of reaction
dynamics from molecular information obtained by spectroscopic techniques.
●Prerequisite Subjects
Physical Chemistry I, Physical Chemistry II, Physical Chemistry III●Course Topics
1. Rotational and vibration spectra (Chapter 12) · Molecular rotation · Vibrational spectroscopy of
diatomic molecules2. Statistical thermodynamics (Chapter 15) · Boltzmann distribution · Molecular
distribution function · Molecular energy · Canonical ensemble · Internal energy and entropy · Derivationof thermodynamic functions3. Chemical reaction dynamics (Chapter 21) · Transition state theory · Kinetics
of molecular collisions●Textbook
P. Atkins and J. de Paula, Atkins’ Physical Chemistry 10th Edition, Oxford University Press●Additional Reading
Will be designated during class as necessary.
●Grade Assessment
Report: 30%, Examination: 70%F: 0-59, C: 60-69, B: 70-79, A: 80-89, S: 90-100●NotesThere are no course requirements.[Policy for the response to COVID-19]Refer to the NUCT of this course.
●Contacting Faculty
Respond orally or by e-mail (designate during class) after class.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Computational Materials Engineering (2.0credits) (理論計算材料学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
Hajime KIMIZUKA
Professor______________________________________________________________________________●Course Purpose
In the field of materials science and engineering, recent advances in computers and application software
have led to the development of a field called "computational materials science", which seeks to discover
new phenomena and properties by modeling and simulation without relying only on conventional
experimental methods. At present, the issues that are mainly dealt with in computational materials science
are related to the structures and kinetics (and their interaction) of lattice defects such as dislocations andgrain boundaries in materials, and the elementary processes such as diffusion, transformation, andprecipitation in the formation of microstructures. In this field, various numerical methods at various scales
have been proposed and a lot of studies have been vigorously performed, which include electronic
approaches such as density functional theory, atomistic approaches such as Monte Carlo and molecular
dynamics methods, and meso-macroscale approaches such as discrete dislocation dynamics and continuum
mechanics. In this course, an overview of the main numerical methods used in computational materials
science, their theoretical background, and related case studies will be given to deepen the understanding of
the concept of modeling and simulation in materials science. At the end of this course, students will be able
to explain the basic concepts and theoretical background of modeling and simulation in materials science toothers.
●Prerequisite Subjects
Strength of Materials, Metallography●Course Topics
The schedule of this class is as follows: (1) Class orientation and introduction of computational materials
engineering(2) Modeling and simulation in materials science(3) Fundamentals and solution of differential
equations(4) Basics of statistical mechanics(5) Monte Carlo method (I): Introduction(6) Monte Carlo
method (II): Various ensembles(7) Monte Carlo method (III): Case studies(8) Molecular dynamics method(I): Introduction and interactions(9) Molecular dynamics method (II): Equations of motion andensembles(10) Molecular dynamics method (III): Case studies(11) Case examples in materials science (I):
Lattice defects and materials mechanics(12) Case examples in materials science (II): Diffusion(13) Case
examples in materials science (III): Transformation and precipitation(14) Simulation techniques at the mesomacro scale (I)(15) End-of-term examinationNote that the schedule is tentative and the plan will be changed
according to the learning situation. Students will be asked to submit a short report by the next time, as eachassignment will be given.
●TextbookTextbooks are not used. Handouts will be provided as needed.
●Additional Reading
D. Raabe, Computational Materials Science (Wiley-VCH, 1998).E. Matsubara et al., Metallograpy, Asakura
Publishing Co. Ltd., (2011).
●Grade Assessment
Your overall grade in the class will be decided based on the following:Class attendance and attitude in class:
12%Short reports: 40%End-of-term examination: 40%●Notes̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Computational Materials Engineering (2.0credits) (理論計算材料学)
There is no requirement to take this course.[Implementation policy for classes related to COVID-19
infections]Detaied information on how to take this course is available at the NUCT site. Please visit the
NUCT site before each lecture.[Additional application for course registration]If you cannot browse the
NUCT site until the additional application for course registration is approved, please contact
kimizuka.hajime[at]material.nagoya-u.ac.jp.
●Contacting Faculty
Recess after a lecture, or office hours (contact by e-mail).

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Structural Materials Engineering with Exercises (2.0credits) (構造材料学及び演習)
Course TypeSpecialized Courses
Class Format
Lecture and Exercise
Course Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
Makoto KOBASHI
Naoki TAKATA
Nobuki YUKAWA
Professor
Associate Professor
Associate Professor______________________________________________________________________________●Course Purpose
In this lecture, we will first introduce various types of structural materials such as steel, non-ferrous
materials, ceramics, and resin (composite materials), and learn the test methods for measuring the properties
required for structural materials and various mechanical properties. In addition, we will understand thematerial strength of structural materials practically through exercises.
●Prerequisite Subjects
Mechanics of Materials, Strength of materials, Plasticityof Material●Course Topics
1. Guidance:
We will explain lecture outline, how to proceed, reference book, practice method in class, report submission,
grade evaluation.
2Exercise 1 (Mechanics of Material)
3. Exercise 2 (Strength of Material)
4. Exercise 3 (Plasticity of Material)●Textbook
Kougaku kiso Zairyo rikigaku (Kyoritsu shuppan), Masaichiro Seike●Additional Reading
Materials science and engineering, W.D.Callister Jr., Wiley●Grade Assessment
report 50%, examination 50%
Total record more than or equal to C grade is qualified●Notes●Contacting Faculty
Face-to-face discussions after class or exchanging e-mails through web.
Contact address:
kobashi.makoto[at]material.nagoya-u.ac.jp
takata.naoki[at]material.nagoya-u.ac.jp
yukawa[at]nagoya-u.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Physics of Materials Functions (2.0credits) (材料機能物性学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
Masaki MIZUGUCHI
Toshio MIYAMACHI
Professor
Associate Professor______________________________________________________________________________●Course Purpose
Functional materials with various physical properties such as electrical conductivity, dielectric property, andmagnetism are used in various fields such as catalysts, sensors, and energy conversion, and are important tosupport the foundation of the modern information society. The electrical, optical, and magnetic properties offunctional materials can be understood based on microscopic properties such as the arrangement of atoms
and molecules and the behavior of electrons, that is, quantum theory. For example, the most importantcharacteristics of semiconductor materials in electronics that support modern society are roughly divided
into two. One is that it is possible to control the electron conduction in the material, and the other is that itexhibits light absorption and light emission phenomena by converting light energy and electron energy.
These are used in diodes, transistors, solar cells, light emitting diodes, and so on.
The aim of this lecture is to understand basic properties of dielectric materials, optical materials,
thermoelectric materials, semiconductors and magnetic materials in conjunction with the sciences andtechnologies related to these functional materials.
In this lecture, the goal for the students is to obtain the following knowledge and skills.
1. Understand and explain the origins of light absorption and reflection in solids.
2. Understand and explain the origin of magnetic properties of solids.
3. Understand and explain band structure of semiconductor and doping.
4. Understand and explain the mechanism of p-n junction.
5. Understand and explain the operating principles of semiconductor devices such as solar cells and lightemitting diodes and so on.
●Prerequisite Subjects
Quantum Mechanics for Material Engineering, Electrodynamics, Solid State Physics for Material
Engineering, Quantum Chemistry for Material Engineering, Physics of Crystals, Mathematics with
Exercises●Course Topics
Guidance
Guidance for taking this lecture is provided.
[Optical properties of solids]
Electromagnetic waves in vacuum
Electromagnetic waves in materials (electric polarization and complex permittivity)
Optical properties of dielectric (insulator)
Dielectric polarization and frequency response
Ferroelectric, pyroelectric, piezoelectric
Optical properties of conductors[Solid magnetic properties]
Various magnetism
Magnetic moment̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Physics of Materials Functions (2.0credits) (材料機能物性学)
Physical quantities related to magnetism
Potential energy of magnetic moment
Paramagnetism of atoms and ionsLarmor diamagnetism/Pauliparamagnetism/Ferromagnetism/Antiferromagnetism/Ferrimagnetism/Magnetic domain[Optical and electrical properties of semiconductor]
Semiconductor basics
Energy level diagram of pn junction
Current-voltage characteristics of pn junction diode
Depletion layer capacitance
Method of manufacturing pn junction diodeLight absorption and emission in semiconductors
Defects and recombination in semiconductors
Operating principle of semiconductor devices such as solar cells, light emitting diodes and transistors* Please read the textbook "Solid State Physics Learned from the Beginning" before lecture.
* Please read the handouts uploaded to NUCT in advance.
●Textbook
Elementary Solid State Physics (Kodansha) [in Japanese] Chapters 12, 13, 14●Additional Reading
Introduction to Solid State Physics (WILEY, Charles Kittel)
Physics of Semiconductor devices (WILEY, Sze)
●Grade Assessment
Examination (100%)
Grades of C or higher are considered as a pass.
●NotesNo special registration conditions are imposed. In addition, it is desirable to access the Internet environment
because there is a possibility of shifting to online lessons in the process of advancing the lecture.
●Contacting Faculty
Questions are accepted in the lecture.
They can also welcomed by e-mail.
mizuguchi.masaki@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Metallic materials (2.0credits) (金属材料学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
Yoshitaka ADACHI
Professor______________________________________________________________________________●Course Purpose
In this course, the lecturer intends to introduce some critical issues on manufacturing processes, chemicalcompositions, their related phase diagram, microstructures and phisical properties of ferrous as well as nonferrous materials in terms of phasical metallurgies related to thermodynamics, kinetics and dislocation
theory. Based on above knowledge, the students will be guided to understand relation between
microstructure and processing routes and also to get some insight on the structural applications of ferrous &nonferrous materials.
●Prerequisite Subjects
Phase transformation, structural material, fundamental metallurgy, material mechanics●Course Topics
1. A role of material in society
2.Thermodynamics and phase diagram
3.Crystallography and dislocation
4.Transformation
5.Mechanical property
6.Steels●TextbookIn this class, resume and its related materials will be given out for students.
●Additional Reading[1] Microstracture control, Prof.Tadashi Maki (Uchida roukakuho)●Grade Assessment
Students must get the total score as shown below based on each scores of Exercises (quiz) and a couple ofexaminations (will be carried out) in this course.
Students (2020~)
10095948079706965646059 or below
Students(~2019)1009089807970696059 or below●Notes●Contacting Facultye-mail adresss: adachi.yoshitaka[at]material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Ceramic Materials (2.0credits) (セラミック材料学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
Takahisa YAMAMOTO Masakuni Ozawa
Professor
Professor______________________________________________________________________________●Course Purpose
Purpose: Ceramic material is extensively used in various fields, such as not only conventional pottery but asemiconductor, a car, information and telecommunications, an industrial machine, and medical field. Aim atpresent lecture is to learn about various ceramic materials and their physics and chemistry.
Attainment target: Sudents will learn the practical skills for designing ceramic material, and will be able tosolve the problem concerning the nature and physics of ceramic materials for creating a new idea inmaterials science and engineering.
●Prerequisite Subjects●Course Topics
This lecture will be given by Japanese●Textbook●Additional Reading●Grade Assessment●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Electronic Device Engineering (2.0credits) (電子デバイス工学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
Noritaka Usami Professor Yasuyoshi KUROKAWA
Associate Professor______________________________________________________________________________●Course Purpose
The most important material in electronics supporting modern society is semiconductor. Two main functionsof semiconductor materials are (1) the control of electron conduction in materials and (2) the conversion
between optical energy and electrical energy. These features are applied to diodes, transistors, solar cells,
and light emission diodes. In this lecture, we study fundamentals of carrier transport, details of pn junction,and fundamentals of light absorption and light emission, and we understand the operating principles ofsemiconductor devices.Superconductivity is a phenomenon in which the electric resistance becomes zero ata certain temperature and was first discovered by Kamerlingh Onnes in 1911. Superconducting materials
have been closely related to our lives in recent years, such as the linear central bullet train and nuclear
magnetic resonance imaging (MRI). In this lecture, we aim to understand the phenomena exhibited bysuperconductors and to learn about the BCS theory which physically explained superconductivity for the
first time.In this lecture, the goal is for the students to obtain the following knowledge and skills at the endof the lecture.1. Understand and explain basic properties of semiconductor materials.2. Explain the operating
principles, technical issues, and trends of semiconductor devices.3. Understand and explain
superconductivity.
●Prerequisite Subjects
Quantum Mechanics for Material Engineering, Electrodynamics, Solid State Physics for Material
Engineering, Quantum Chemistry for Material Engineering, Physics of Crystals, Mathematics with
Exercises●Course Topics
GuidanceFundamentals of Carrier TransportBand structure of semiconductorsDensity of statesFermi-Dirac
distribution functionIntrinsic carrier density and temperature dependenceImpurity dopingDoped
semiconductorHall measurementEnergy band alignment of p-n junctionCurrent-Voltage characteristics of pn diodesDiffusion capacitanceFabrication methods of p-n diodesLight absorption and ligh emission insemiconductorDefect in semiconductor and carrier recombinationOperating principle of solar cells and lightemission diodesElementary properties of superconductorsApplications of superconductorsBose–Einsteincondensate and BCS theorySummaryRead the textbook "Elementary Solid State Physics (Kodansha)[inJapanese]" before a lecture.
●Textbook
Elementary Solid State Physics (Kodansha)[in Japanese] Chapter 11 & 14 & 15
●Additional Reading●Grade Assessment
Exercises (20%), Examination (80%)●NotesNo registration requirements are imposed.[Implementation policy of classes related to dealing with newcoronavirus infections] Refer to NUCT.
●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Chemical Energy Systems (2.0credits) (化学エネルギーシステム)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
Noriyuki KOBAYASHI Yoshihiro KOJIMAAssociate Professor
Associate Professor______________________________________________________________________________●Course Purpose
The principle and basic theory on heat transfer with phase change such as boiling, condensation andevaporation, and heat exchange and combustion will be lectured. In addition, students will learn outlines of
evaporator, dryer and heat exchanger which are designed based on the principle and basic theory. The
fundamental knowledge on these subjects will be cultivated.
●Prerequisite Subjects
Physical Chemistry 1, Heat Transfer and Mass Transfer●Course Topics
1.Heat transfer with phase change: boiling, condensation and evaporation
2. Heat and material balances in evaporator and dryer, and designs of evaporator and dryer
3.Thermal insulation(theory, optimum thickness of heat insulator and optimization of heat insulation)
4.Heat recovery, the theory of heat exchange and design of heat exchanger
5.Basic theory of combustion and combustion characteristics of gas-, liquid- and solid-fuels
6.Combustion calculations (theoretical amount of air, theoretical amount of combustion gas, excess air ratio,
combustion temperature, etc)
●Textbook
N. Takenaka et al., Introduction to Heat Transfer(Corona Publishing Co.Ltd.)●Additional Reading
Kagaku Kogaku Benran (Maruzen Co.Ltd.)Heat Transfer (J. P. Holman; McGraw-Hill Inc.), etc.
●Grade Assessment
The evaluation of learning results will be carried out by an interim examination(35 scores), a term-end
examination(35 scores) and exercises(30 scores).
A+: 100-95, A: 94-80B: 79-70, C: 69-65, -: 64-60, F: 59 scores or less.
●NotesNo registration requirements are required.
●Contacting Faculty
Allow time for questions in the class and the office.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Diffusion Systems (2.0credits) (拡散システム)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
Motonobu GOTO
Yoshiaki KAWAJIRI
Professor
Professor______________________________________________________________________________●Course Purpose
Principles and operations of diffusional separations are lectured. Focus is placed on characteristics of theoperation and equipment design for differential and stage-wise operations. Gas absorption, distillation,
extraction and adsorption are covered as typical operations. Exercises are also included to enhance practiceof equipment design.
●Prerequisite Subjects
Physical chemistry 1, 2 Mixed-phase flow Mass transfer●Course Topics
1. Principles of separation in partitioning between different phases, 2. Vapor liquid equilibrium, 3. Single
stage distillation and flash evaporation, 4. Design of distillation column, 5. Extraction and adsorption, 6.
Equipment for contact between different phases, 7. Equilibrium between gas and liquid, 8. Design of packed
column, 9. Application of packed column●Textbook
Bunri Process Kougaku no Kiso (Asakura Shoten)●Additional Reading
Shintaikei Kagakukougaku Bunrikougaku (ohmsha)Kagaku Kougaku -Kaisetsu to Enshu - (Asakura Shoten)●Grade Assessment
Examinations and Exercises●Notes●Contacting Faculty
Questions are better to be asked after the class.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Chemical Reaction Systems (2.0credits) (化学反応システム)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
Seiichi TAKAMI
Koyo NORINAGA
Professor
Professor______________________________________________________________________________●Course Purpose
In order to produce chemical products using chemical reaction at an industrial scale, chemical reactors
should be suitably designed considering reaction kinetics, properties of product, and the production scale.
This lecture treats the character of reactors including batch-type reactor and plug-flow reactor, their design
rule, and the difference of various industrial reactor. Practices will be done during lecture.
Upon successfully completion of this course, students should become able to the following things.
1. Students will be able to predict the products from the continuous operation of various reactors.
2. Students will be able to design the optimum operation conditions from yield calculation of various
reactors.
3. Students will be able to design the reactor at industrial scale based on experimental data.
●Prerequisite Subjects
Chemical Reaction Engineering, Physical Chemistry 3, Mathematics I, Mathematics II●Course Topics
1. Continuous operation of CSTR
The products from CSTR reactors under steady-state and unsteady-state operations will be studied.
2. Continuous operation of PFR
The products from PFR reactors under isothermal and non-isothermal conditions will be studied.
3. Various types of chemical reaction system
The kinds of chemical reactors will be studied. The selection and optimization methods of the chemical
reactor will be also studied.
4. Design of optimization of chemical reaction system
Design procedure of industrial reactor will be studied. The design based on the experimental data will bealso studied.
The contents of the class should be reviewed until next class.
●Textbook"Chemical Reaction Operation" ed. by Shigeo Goto, Asakura Publishing Co., Ltd. (in Japanese)●Additional Reading
Will be introduced in the class.
●Grade Assessment
Grade assessment will be performed based on midterm exam, final exam, and quizzes about the kinds ofreactors and the operation of reactors. Student will earn a credit if they understand and treat principle
knowledges and grade will be determined by the degree of understanding.
●NotesNo requirements for taking this course.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Chemical Reaction Systems (2.0credits) (化学反応システム)[Plan of classes in response to Coronavirus Disease 2019]
Changes in the plan of classes are shown in the NUCT page of this course.
●Contacting Faculty
Questions are accepted during lectures. Questions are also accepted by e-mail after lectures.
E-mail addresses:
takami.seiichi@material.nagoya-u.ac.jp (Takami)
norinaga.koyo@material.nagoya-u.ac.jp (Norinaga)̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
System Control (2.0credits) (システム制御)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
FUJIWARA Koichi
Associate Professor______________________________________________________________________________●Course Purpose
To gain understanding on fundamentals of classical control theory for control system design of mechanicalsystems, electric circuit systems as well aschemical process systems.
The goals of this course are as follows:
1. To model control subjects
2. To solve linear differential equations by Laplace transform
3. To analyze properties of systems, such as stability, transient characteristics, and frequency responses
4. To understand feedback control systems and design PID parameters.
5. To design feedback control systems on MATLAB/Simulink.
●Prerequisite Subjects
Linear algebra 12, Calculus 12, Mathematics with Exercises 1●Course Topics
1. Introduction (1 week)
2. Process modeling (1 week)
3. Laplace transform (1 week)
4. Transfer functions (2 weeks)
5. Analysis of transient responses (2 weeks)
6. Design and analysis of feedback control systems (2 weeks)
7. Multi-input multi-output systems (1 week)
8. Model prediction control (1 week)
9. Feedback control system design on MATLAB/Simulink
10. Examination and evaluation (1 week)
After each of learning unit, a home-work may be assigned.
●TextbookHashimoto, Hasebe, Kano, "Process Seigyo Kogaku", Asakura Shoten (2002)●Additional Reading
Y. Yamamoto, "From Vector Spaces to Function Spaces: Introduction to Functional Analysis with
Applications," Society for Industrial and Applied Mathematics (2012)●Grade Assessment
Evaluation by Homework 20%, Exams 80%. To obtain credit, students should solve problems that aresystem modeling and analysis and feedback control system design.
●NotesStudents are required to learn linear algebra and calculus before this lecture.
●Contacting FacultyStudents are encouraged to ask questions during lectures. The lecturer will respect and answer questions asmuch as possible unless that would delay lecture progress.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Environmental System Engineering (2.0credits) (環境システム工学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
Hideki KITA Professor
Seiichi DEGUCHI
Lecturer______________________________________________________________________________●Course Purpose
Through the historical background of resource / environmental issues, environmental technology, and recent
topics, students will acquire the ability to consider resource / environment issues from a scientific andcomprehensive perspective, and acquire expertise in environmental engineering and engineering
ethics.Through this lecture, students understand the historical background of the environmental problems,
the issues that humankind should address, and the role that humans involved in engineering should do
especially in the future of science and technology. The goal is each student will be able to explain
specifically,as his/her own opinioins.
●Prerequisite Subjects
Kagaku kougaku Chemical engineering)Butsuiri kagaku(Physical chemistry●Course Topics
1. Introduction to energy resources2. Understanding environmental issues3. Air, water quality
Contamination of soil and its prevention4). Actual situation of environmental resource issues in Japan andthe world5. Environmental load assessment index (life cycle assessment)6). Environmental issues toconsider in entropy7). Sustainable development8). Natural capital* Some changes are possible.Because it isnecessary to deepen understanding widely, a report is imposed as appropriate for home study.
●Textbook
None. Distribute prints if necessary.
●Additional Reading
Kagaku kougaku binran dai 6 han (maruzen)Netsugaku gairon (Asakura syoten)●Grade Assessment
The degree of achievement for the achievement target is evaluated by reports and written tests.“Pass” isgiven to the student who is able to correctly understand the basic issues with respect to the items shown inthe class contents,For the student who is able to understand more difficult questions, reflect them on thegrade according to the level and results of the questions.
●NotesNo registration requirements are required.[Implementation policy of classes related to dealing with newcoronavirus infections] For the implementation method of this subject, refer to NUCT of this subject.
●Contacting Faculty
We accept office hours (Wednesday 13-17 pm) or e-mail.Professor Hideki Kita: Extension 3096 email:kita.hideki@material.nagoya-u.ac.jpSeiichi Deguchi Lecturer Extension 3383 e-mail:deguchi.seiichi@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Materials System Engineering (2.0credits) (材料システム工学)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Compulsory Elective
Lecturer
Tetsuya Yamamoto
Hideki KITA Professor
Associate Professor______________________________________________________________________________●Course Purpose
Students need to learn basic physical properties of organic materials such as ceramics, metals, and polymers,
understand the functions of various materials used in chemical equipment and plants, and learn how these
physical properties are involved in equipment design. In addition, we will learn about the mechanism bywhich the generation of fine damage leads to the destruction of huge structures due to heat and stressreceived from the outside.
By learning this lecture, students will be able to:
1. Understand the crystal structure, microdefects and microstructure of ceramics and metals, and understandhow they are related to macro phenomena such as deformation and fracture under external force. In addition,
the acquired knowledge can be applied to specific problems.
2. Understand the properties of polymers and their evaluation methods, and apply them to specific problems.
3. Understand the forming process of polymer materials●Prerequisite Subjects
Butsuri kagakuPhysical Chemstry) and 2
Solid mechanics●Course Topics
1. Micro structure including defects and crystal structure of hard materials (inorganic materials, ceramics /glass, metal materials)
2. Relationship between deformation and fracture behavior and microstructure under external force
3. Chemical and mechanical properties, manufacturing methods, and design methods
4. Polymer materials (organic materials), structure and physical properties of polymers, characterization,
molding of polymers
5. Manufacturing and evaluation methods and properties of composite materials
Read the relevant textbook before each class. After the lecture, solve the textbook examples and chapter end
problems by yourself. In addition, students will be required to submit a report assignment several times, so
solve it and submit it.
●Textbook
For textbooks on metals and inorganic materials, do not use textbooks, but distribute materials as
appropriate.
Koubunsi wo manabou -Introduction to Polymer Material Science-: Kenji Yokota (Chemistry)●Additional Reading
koroido kagaku-kiso to Ouyou-(Tokyo kagaku doujin)●Grade Assessment
The degree of achievement for the achievement target is evaluated by reports and written tests.
“Pass” is given to the student who is able to correctly understand the basic issues with respect to the items
shown in the class contents,For the student who is able to understand more difficult questions, reflect themon the grade according to the level and results of the questions.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Materials System Engineering (2.0credits) (材料システム工学)●NotesNo registration requirements are required.
●Contacting Faculty
Lectures accept during breaks after class and office hours.
Hideki Kita
Extension 3096
email:kita.hideki@material.nagoya-u.ac.jp
Tetsuya Yamamoto
Extension 3378
email:yamamoto.tetsuya@material.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Materials Engineering Exercises (2.0credits) (マテリアル工学演習)
Course TypeSpecialized Courses
Class Format
Exercise
Course Name
Department of Materials
Science and Engineering
Starts 1
4 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
The aim of this course is to deepen the understanding of mechanics of materials, condensed matter physics,
physical chemistry, transport phenomena, and chemical engineering. Through the exercises for thesesubjects, students will acquire the fundamental skills and practical knowledge of the theoretical treatment ofvarious issues in materials science and engineering.
●Prerequisite Subjects
Crystal Physics, Physical Chemistry (1-3), Chemical Processes Engineering, Mechanics of Materials,
Materials Quantum Engineering, Materials Solid State Physics (1-2), Strength and Fracture of Materials,
Heat Transfer and Diffusion, Phase Equilibria, Fluid Flow, Materials Quantum Chemistry, Chemical
Reaction Engineering●Course Topics
1. Exercises for mechanics of materials
2. Exercises for condensed matter physics
3. Exercises for physical chemistry
4. Exercises for transport phenomena
5. Exercises for chemical engineering●TextbookTextbooks are not specified, but materials will be distributed as needed for the exercises.
●Additional Reading
Specified as needed during the class.
●Grade Assessment
Reports and quizes are evaluated for the grade judgement. To pass, students must earn at least 60 points outof 100. It is required to apply the knowledge of mechanics of materials, condensed matter physics, chemical
thermodynamics, transport phenomena, and chemical engineering to the theoretical treatment of various
issues in materials science and engineering.
●NotesNo requirements for taking this class.
●Contacting Faculty
During the class or at the office upon resevation.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Fundamentals of Chemical Engineering (2.0credits) (化学工学概論)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
4 Spring Semester
Elective/Compulsory Elective
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
In this course, students are required to make literature survey on specific problems closely related to theirgraduation research themes in the chemical fields of materials engineering. Through the course, students are
expected to learn how to use scientific journals and databases for literature survey, and are also expected toacquire the necessary skills to use scientific and engineering English.
●Prerequisite Subjects
Each subject studied in Department of Materials Science and Engineering●Course Topics
Literature survey, presentation and discussion on specific problems closely related to the graduation
research theme
1. Advanced process engineering
2. Chemical systems engineering●TextbookSpecified as needed during the class.
●Additional Reading
Specified as needed during the class.
●Grade Assessment
Both of presentation and discussion are evaluated for the grade judgement. To pass, students must earn atleast 60 points out of 100. It is required to understand an effective way of using scientific journals anddatabases for literature survey in English and to explain specific problems closely related to the graduation
research theme.
●NotesNo requirements for taking this class.
●Contacting Faculty
During the class or at the office upon resevation.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Introduction to Materials Engineering (2.0credits) (材料工学概論)
Course TypeSpecialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
4 Spring Semester
Elective/Compulsory Elective
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
In this course, students are required to make literature survey on specific problems closely related to theirgraduation research themes in the fields of materials engineering. Through the course, students are expected
to learn how to use scientific journals and databases for literature survey, and are also expected to acquire
the necessary skills to use scientific and engineering English.
●Prerequisite Subjects
Each subject studied in Department of Materials Science and Engineering●Course Topics
Literature survey, presentation and discussion on specific problems closely related to the graduation
research theme
1. Computational materials design
2. Advanced measurement and analysis
3. Nanostructure design
4. Advanced process engineering
5. Materials creation engineering
6. Materials chemistry●TextbookSpecified as needed during the class.
●Additional Reading
Specified as needed during the class.
●Grade Assessment
Both of presentation and discussion are evaluated for the grade judgement. To pass, students must earn atleast 60 points out of 100. It is required to understand an effective way of using scientific journals anddatabases for literature survey in English and to explain specific problems closely related to the graduation
research theme.
●NotesNo requirements for taking this class.
●Contacting Faculty
During the class or at the office upon resevation.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Graduation Thesis A (5.0credits) (卒業研究Ａ)
Course TypeSpecialized Courses
Class Format
Experiment and Exercise
Course Name
Department of Materials
Science and Engineering
Starts 1
4 Spring Semester
Elective/Compulsory Compulsory
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
By working on specific research questions, you will build the skills you have used to integrate theknowledge you have learned and solve problems. Under the guidance of faculty members, research themes
are determined, research plans are drafted, data is collected, data is analyzed, and results are interpreted andconsidered. In the process, you will learn how to ask questions, give presentation techniques, and discuss.
Specifically, research topics are set in consultation with the supervisor, and research goals are clarified
through information gathering, including survey reading and reading of literature, and a method ofexperiment or analysis to achieve the purpose is devised. And execute it, and summarize and announce it in
writing and verbally. 1) Understand the engineering and academic objectives of the research project2)
Establish information or research methods to solve problems through spontaneous learning, collecting
information including foreign languages3) Research objectives and results obtained Students will be able tosummarize and present in written and oral forms and acquire the ability to answer questions accurately.
●Prerequisite Subjects●Course Topics●Textbook●Additional Reading●Grade Assessment●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Graduation Thesis B (5.0credits) (卒業研究Ｂ)
Course TypeSpecialized Courses
Class Format
Experiment and Exercise
Course Name
Department of Materials
Science and Engineering
Starts 1
4 Autumn Semester
Elective/Compulsory Compulsory
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
By working on specific research questions, you will build the skills you have used to integrate theknowledge you have learned and solve problems. Under the guidance of faculty members, research themes
are determined, research plans are drafted, data is collected, data is analyzed, and results are interpreted andconsidered. In the process, you will learn how to ask questions, give presentation techniques, and discuss.
Specifically, research topics are set in consultation with the supervisor, and research goals are clarified
through information gathering, including survey reading and reading of literature, and a method ofexperiment or analysis to achieve the purpose is devised. And execute it, and summarize and announce it in
writing and verbally. 1) Understand the engineering and academic objectives of the research project, 2)
Establish information or research methods to solve problems through spontaneous learning, collecting
information including foreign languages, 3) Research objectives and results obtained Students will be able tosummarize and present in written and oral forms and acquire the ability to answer questions accurately.
●Prerequisite Subjects●Course Topics●Textbook●Additional Reading●Grade Assessment●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲Engineering Ethics (2.0credits) (工学倫理)
Course Type
Related Specialized Courses
Class Format
LectureCourse Name
Department of Chemistry Department of Materials Department of Physicaland Biotechnology
Science and Engineering Science and Engineering
Department of Energy
Department of Electrical Department of Mechanical
Science and Engineering Engineering, Electronics, and Aerospaceand Information
Engineering
Engineering
Civil Engineering
Architecture
Starts 1
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
Elective/Compulsory Elective
Elective
Elective
Compulsory
Elective
Elective
Elective
Elective
Lecturer
Part-time Faculty______________________________________________________________________________●Course Purpose
All students will push forward the preparations to a member of society through a college life having highflexibility as well as the lecture of the university, but this is the conscious problem that it is independent andshould work on. Therefore, about life, the responsibility of the necessary member of society (a person ofoccupation and researcher solving another person such as engineers and social problem situation), foundability, ethic, it is the purpose of the class that gets an image at the beginning of student life. I solved many
problems until now, and the engineer developed the society, but had much failure, accidents and the ethicaldisgraceful affair. I understand basic power to act as a member of society, an engineer ethically while having
the viewpoint to the future a little while referring to a lot of such failure examples. In addition, I acquire acustom to think on the spot, and to be settled necessary for an engineer, a member of society. (the lecturer isengaged in a study and the business of the engineer ethic in professional engineer (nation qualification) withthe work experience.)●Prerequisite Subjects●Course Topics●Textbook●Additional Reading●Grade Assessment●NotesThere are no prerequisites.
●Contacting Faculty
E-mail:roofrate3-nug@yahoo.co.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Outline of Engineering 1 (1.0credits) (工学概論第１)
Course Type
Related Specialized Courses
Class Format
LectureCourse Name
Department of Chemistry Department of Materials Department of Physicaland Biotechnology
Science and Engineering Science and Engineering
Department of Energy
Department of Electrical Department of Mechanical
Science and Engineering Engineering, Electronics, and Aerospaceand Information
Engineering
Engineering
Civil Engineering
Architecture
Starts 1
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
Elective/Compulsory Elective
Elective
Elective
Elective
Elective
Elective
Elective
Elective
Lecturer
Part-time Faculty______________________________________________________________________________●Course Purpose
Based upon the wide and deep experiences, alumini and/or aluminae of Nagoya University, who work the
hub of society,give future perspectives, foster internal and external active personality and propose guideline
for their further study.
●Prerequisite Subjects
Because it is a common subject not to affect a specialized subject, I do not appoint the subject to become thebackground.
●Course Topics
Experience every time own as "do your best younger student" a senior playing an active part in the social
center I perform a class on the basis of this. In all eight times of classes, I perform orientation and thelecture by seven outside lecturers. What I check about a lecturer and a title released before a class of every
time beforehand. After a lecture, conduct an additional investigation depending on the need including
contents and the phrase handled in a lecture. In addition, submit it as you impose the report problem about
lecture contents every time.
●Textbook
I distribute a slide or the print which the person in charge of each time lecturer uses as a lecture document.
●Additional Reading
Instructions will be given as necessary in class●Grade Assessment
I evaluate an acquirement degree for the accomplishment by a report. I keep lecture contents of every time
under control, and it is said that I pass if I can collect own thought and lets results reflect it according to thedepth of the contents which were able to learn it such as the grasp of lecture contents, a guideline for the
future dream, study of oneself.
●Notes●Contacting Faculty
I cope after a lecture every time. Or ask the staff of the educational affairs section.E-mail:tnagasaki@energy.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Outline of Engineering 2 (1.0credits) (工学概論第２)Course Type
Related Specialized Courses
Class Format
LectureCourse Name
Department of Chemistry Department of Materials Department of Physicaland Biotechnology
Science and Engineering Science and Engineering
Department of Energy
Department of Electrical Department of Mechanical
Science and Engineering Engineering, Electronics, and Aerospaceand Information
Engineering
Engineering
Civil Engineering
Architecture
Starts 1
4 Spring Semester
4 Spring Semester
4 Spring Semester
4 Spring Semester
4 Spring Semester
4 Spring Semester
4 Spring Semester
4 Spring Semester
Elective/Compulsory Elective
Elective
Elective
Elective
Elective
Elective
Elective
Elective
Lecturer
Part-time Faculty______________________________________________________________________________●Course Purpose
It is recognized as an urgent issue to create low-carbon society in order to mitigate global warming. The
objective of this lecture is to understand the current situation of Japan in terms of energy supply and demand
as well as technologies of energy conservation and renewable energy utilization. Energy policy of Japansuch as Energy Basic Plan is also one of the topics.
It is expected that the lecture provides fundamental understanding of measures to deal with reducing primaryenergy consumption.
●Prerequisite Subjects
Fundamentals of Engineering●Course Topics
1. Situation of Japan with respect to energy
2. Energy policy and Energy Basic Plan
3. Solar energy technologies
4. Energy conservation technologies with wasted heat recovory
5. Social systems for low-carbon society
6. Try "Test of Energy"●TextbookNone.
●Additional Reading
To be distributed in the lecture.
"Test of Energy", http://www.ene-kentei.jp●Grade Assessment
Reports are required to be submitted during the lecture. The subjects are presented in the lecture.
●NotesThere are no prerequisites.
●Contacting Faculty
All questions are encouraged to be presented during the lecture.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Outline of Engineering 3 (2.0credits) (工学概論第３)Course Type
Related Specialized Courses
Class Format
LectureCourse Name
Department of Chemistry Department of Materials Department of Physicaland Biotechnology
Science and Engineering Science and Engineering
Department of Energy
Department of Electrical Department of Mechanical
Science and Engineering Engineering, Electronics, and Aerospaceand Information
Engineering
Engineering
Civil Engineering
Architecture
Starts 1
4 Autumn Semester
4 Autumn Semester
4 Autumn Semester
4 Autumn Semester
4 Autumn Semester
4 Autumn Semester
4 Autumn Semester
4 Autumn Semester
Elective/Compulsory Elective
Elective
Elective
Elective
Elective
Elective
Elective
Elective
Lecturer
Emanuel LELEITO
GRIB Dina Lecturer
Gang ZENG Lecturer
Lecturer
Kiyohisa NISHIYAMA
Designated Lecturer______________________________________________________________________________●Course Purpose
This course will introduce the history, the current state and future prospects of R&D (research anddevelopment) in various sectors related to the field of engineering in Japan. The course will expose you to awide range of issues being tackled by engineers in different fields, with the aim of motivating and preparing
you to pursue your research interest. You will have an opportunity to explore basic concepts and real-world
applications, and to do a mini research tasks leading to a final presentation.
Apart from the engineering field related knowledge, this lecture will also help you develop the following
skills:
Cross-disciplinary communication skills
Communication across language barriers (English/Japanese)
Online search and research skills for information gathering
Presentation skills●Prerequisite Subjects
You do not require any background knowledge to join this class. Each lecturer will provide the basic
knowledge that might be needed to understand the lecture topics.
●Course Topics
This class consists of “omnibus-style” lectures on the following topics.
1. Science, Technology and Innovations in Embedded Computing Systems (Gang ZENG)- This lecture gives an overview of the embedded computing systems related technologies in Japan. In
particular, the latest innovations on the low-energy and automotive applications will be introduced.
- The students are asked to participate in group discussion to share their ideas and thoughts about energy
conservation and future automobiles.
2. The innovative factors of technologies in Japan (Kiyohisa NISHIYAMA)- This lecture provides the participants with the concept of 40 innovation principles. Some Japanesetechnologies are broken down into the combination of the principles as examples.
- The students each are asked to analyse a technology of interest found in Japan. The students will be able tograb the concepts of any technological innovations after completing this lecture.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Outline of Engineering 3 (2.0credits) (工学概論第３)3. Science, Technology and Innovation for Disaster Risk Reduction (Emanuel LELEITO)- This lecture gives students an overview of the Scientific and Technology Innovations that have contributed
to Japan’s leading role in Disaster Risk Reduction (DRR).
- DRR related discussions and presentation in class will help students exercise their creative thinking andproblem solving skills.
4. Societal, Cultural and Economic Contexts of Engineering Practice in Japan (Dina GRIB)- The last part of this course introduces you to the Science, Technology and Society studies (STS) field andprovides a brief overview of how Japanese cultural, economic, societal and political tradition affects
technological innovation and scientific research as well as how STI in turn affect Japanese culture, society
and politics.
- The participants will be invited to conduct a mini case study using online materials, share their findings inclass and participate in group discussions.
●Textbook
Lecture materials will be distributed in class during each lecture.
●Additional Reading
References and materials for additional reading will be introduced in class during each lecture.
●Grade Assessment
Credits will be awarded to those students who score over 60 out of 100 based on the following evaluation
criteria:
1) Reports (60%): Each lecturer will ask you to prepare and submit reports to valuate your understanding of
the topics taught. The reports will be worth 60% of the total score.
2) Presentation (40%): You will be asked to do a final presentation based on one or a combination of the
topics taught. The presentation will require that you to do independent online research to gather necessary
information and present the topic in 3-5 minutes. Your understanding of the topic as well as theeffectiveness of your presentation will be evaluated. The presentation is worth 40% of the total score.
●NotesNone●Contacting Faculty
Questions are received during or after class time. Lecturers will provide contact information during classorientation.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Outline of Engineering 4 (3.0credits) (工学概論第４)Course Type
Related Specialized Courses
Class Format
LectureCourse Name
Department of Chemistry Department of Materials Department of Physicaland Biotechnology
Science and Engineering Science and Engineering
Department of Energy
Department of Electrical Department of Mechanical
Science and Engineering Engineering, Electronics, and Aerospaceand Information
Engineering
Engineering
Civil Engineering
Architecture
Starts 1
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
1 Spring Semester
Elective/Compulsory Elective
Elective
Elective
Elective
Elective
Elective
Elective
Elective
Lecturer
Part-time Faculty______________________________________________________________________________●Course Purpose
Elementary ClassThis course is intended to teach Japanese to students who have not learnt Japanese before
or who have learned only a very little. Basic Japanese which is necessary for daily life in Japan will betaught.
The students study the fundamentals of grammar and basic conversational expressions. The students arerequested to communicate in daily life using simple expressions.
Intermediate ClassThis course is intended to teach Japanese to students who already learned Japanese of
Elementary level. The aims of this study are to obtain the ability necessary to explain their experiences
concretely.
The students are requested to communicate in their study in Japanese. Depending on the students’ Japaneseability, the advanced class will also be prepared.
●Prerequisite Subjects
Elementary ClassNone
Intermediate ClassElementary Japanese●Course Topics
Elementary Class1.Pronunciation of Japanese 2.Structure of Japanese sentences 3.Fundamental vocabulary
and expressions 4.Conversation practice 5.Listening practice, Students must read the part which they will
study in the next lecture.
Intermediate Class1 Grammar, 2 Conversation, 3 Opinion delivery, 4 Reading comprehension, 5
Listening practice, The students must momorize the most important sentences which they will study in thenext lecture.
●Textbook
Elementary ClassNIHONGO Breakthrough, From suruival to communication in Japanese, JAL Academy,ASK Publishing Co.Ltd.
Intermediate Classweekly J : 6●Additional Reading
I introduce it to progress appropriately●Grade Assessment
Elementary ClassClass performance 20Assignments 20Interview test and examination30, Presentation 30
In each item, the ability of comversation is an important check point.
Intermediate ClassClass performance 20Assignments 10Interview test 20Written examination20,
Presentation 30.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Outline of Engineering 4 (3.0credits) (工学概論第４)In each item, the ability of correct expressions is an important check point.
These scores are summed and evaluated. The students with the evaluation S, A, B, or C can pass thissubject.
●NotesThis subject is open for NUSIP students.
●Contacting Faculty
Ext. 6797 ishida@nuem.nagoya-u.ac.jp̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Technical Writing (2.0credits) (テクニカルライティング)
Course Type
Related Specialized Courses
Class Format
LectureCourse Name
Department of Materials Department of Physical
Department of Energy
Science and Engineering Science and Engineering Science and Engineering
Department of Electrical Department of Mechanical Civil Engineering
Engineering, Electronics, and Aerospaceand Information
Engineering
Engineering
Architecture
Starts 1
4 Spring Semester
4 Spring Semester
4 Spring Semester
4 Spring Semester
4 Spring Semester
4 Spring Semester
4 Spring Semester
Elective/Compulsory Elective
Elective
Elective
Elective
Elective
Elective
Elective
Lecturer
Emanuel LELEITO
Gang ZENG Lecturer
GRIB Dina Lecturer
Lecturer______________________________________________________________________________●Course Purpose
This course is to learn the logical thinking and the method of expression for sending scientific and technicalcontents to others in English and learn how to apply these methods to technical writing and presentation in
English.
What you will get in this course:
1. Understand logical thinking and structure issues.
2. Understand and write the document structure that leads to problem solving.
3. Write abstracts of scientific and technical papers in English.
4. Apply the above methods to presentations and debates in English.
●Prerequisite Subjects
This course will be taught from the basics, background subjects are not specified.
●Course Topics
1. Research skills
1.1 Academic literacy and critical reading
1.2 Logical thinking and structuring logic
1.3 Avoiding plagiarism
2. Writing skills
2.1 Understanding document structure
2.2 Organizing document structure
2.3 Writing abstracts in English
3. Presentation skills
3.1 Creating slides in English
3.2 Presentation and Q & A in English
3.3 Discussion in English
Students are required to read related contents of next lecture in advance. Reports will be assigned after eachlecture, which should be completed independently by searching necessary information. Reports and final
presentation will be used for evaluation.
●Textbook
No textbook is specified. Lecture materials will be distributed in each class.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Technical Writing (2.0credits) (テクニカルライティング)●Additional Reading
A Manual for Writers of Research Papers, Theses, and Dissertations: Chicago Style for Students andResearchers (Chicago Guides to Writing, Editing, and Publishing) - Kate L. Turabian, Revised by Wayne C.
Booth, Gregory G. Colomb, Joseph M. Williams, Joseph Bizup, William T. FitzGerald and the University of
Chicago Press Editorial Staff.
●Grade Assessment
Evaluation will be conducted based on reports and final presentation. Credits will be awarded to thosestudents who can write abstract and present idea using basic skills.
●Notes●Contacting Faculty
Questions will be accepted during or after the lecture.

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Introduction to Materials Engineering (1.0credits) (マテリアル工学概論)
Course Type
Related Specialized Courses
Class Format
LectureCourse Name
Department of Materials
Science and Engineering
Starts 1
1 Spring Semester
Elective/Compulsory Elective
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
The aim of this course is to understand the outline of the Department of Materials Science and Engineering
througth the introductory talk on the current research topics.
●Prerequisite Subjects
Mathematics, physics, and chemistry at a high school level●Course Topics
You learn the outline of current research topics in each department shown below.
1. Computational materials design
2. Advanced measurement and analysis
3. Nanostructure design
4. Advanced process engineering
5. Materials creation engineering
6. Chemical systems engineering
7. Materials chemistry
We will give you assignments as appropriate, you should submit by the deadline.
●TextbookTextbooks are not specified, but documents will be distributed as needed.
●Additional Reading
We will introduce as needed.
●Grade Assessment
The submitted report is evaluated for the grade judgement. To pass, students must earn at least 60 points outof 100. It is required to explain the outline of the current research topics of the laboratories in the
Department of Materials Science and Engineering.
●NotesThere is no requirement to take this course.
This course will be conducted remotely (on-demand type).
The NUCT function "Message" should be used to ask questions.
The NUCT function "Message" should be used to exchange opinions among students regarding this course.
●Contacting Faculty
As mentioned above, questions about this course are accepted using the NUCT function "Message".
Representative instructor of this course: Toshio Ogawa

̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Training in Industrial Plants (1.0credits) (工場実習)
Course Type
Related Specialized Courses
Class Format
Practice
Course Name
Department of Materials
Science and Engineering
Starts 1
3 Spring Semester
Elective/Compulsory Elective
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
Students are required to have practical experience of working in an industrial factory of materials
production. Through the practice, students are expected to raise up their potentialities as materials andchemical engineers and to have solid image of their own future life in the societies of scientific andindustrial fields●Prerequisite Subjects
Major Subjects for Materials Science and Engineering●Course Topics●Textbook●Additional Reading●Grade Assessment
Training in industrial plants more than 45 hours, written reports, and evaluation by the coordinators of theplants.
●Notes●Contacting Faculty̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲̲
Technical Visits in Industrial Plants (1.0credits) (工場見学)
Course Type
Related Specialized Courses
Class Format
Practice
Course Name
Department of Materials
Science and Engineering
Starts 1
3 Autumn Semester
Elective/Compulsory Elective
Lecturer
Associated Faculty
Associated Faculty
Associated Faculty______________________________________________________________________________●Course Purpose
Students are required to visit industrial factories and research institutes. Through the visit, students are
expected to deepen their understandings of the relation between fundamental knowledge and practicalapplications, and are also expected to have knowledge of the recent progress in the technological aspects ofmaterials production industries.
●Prerequisite Subjects
Major subjects for Materials Science and Engineering●Course Topics●Textbook●Additional Reading●Grade Assessment●Notes●Contacting Faculty