International Graduate Program (IGP-C)

Department of Physics (Particle-, Nuclear-, Astro-Physics)
Refer to “Requirements of Doctoral Program” on P.2.

Department of Physics (Condensed Matter Physics)
Refer to “Requirements of Doctoral Program” on P.2.

Department of Chemistry
Refer to “Requirements of Doctoral Program” on P.2.

Department of Chemistry and Materials Science
Refer to “Requirements of Doctoral Program” on P.2.

Department of Metallurgy and Ceramics Science
Refer to P. 268 for details

Department of Organic and Polymeric Materials
Refer to P. 278 for details, however, it is not necessary to register off_Campus Project.

Department of Chemical Engineering
Refer to P. 282 for details, however, it is not necessary to register off_Campus Project.

Department of Mechanical Sciences and Engineering
Refer to P.285 for details. It is not necessary to register ‘System Project Research A, B’ and ‘Off-Campus Project I, II’. Note that IGP(C) is not the Integrated Doctoral Education Program
(The Master’s Degree Program and Doctoral Program are separated).

Department of Mechanical and Control Engineering
Refer to P.285 for details. It is not necessary to register ‘System Project Research A, B’ and ‘Off-Campus Project I, II’. Note that IGP(C) is not the Integrated Doctoral Education Program
(The Master’s Degree Program and Doctoral Program are separated).

Department of Mechanical and Aerospace Engineering
Refer to P.285 for details. It is not necessary to register ‘System Project Research A, B’ and ‘Off-Campus Project I, II’. Note that IGP(C) is not the Integrated Doctoral Education Program
(The Master’s Degree Program and Doctoral Program are separated).

Department of Electrical and Electronic Engineering
Register courses from the table on P.290.

Department of Physical Electronics
Register courses from the table on P.290.

Department of Communications and Integrated Systems
Refer to “Requirements of Doctoral Program” on P.2.

Department of Civil Engineering
Register courses from the table on P.291.

Department of Architecture and Building Engineering
Same as IGP(A).Refer to P.107 for details

Department of International Development Engineering
Register courses from the table on P.295.

 

Department of Nuclear Engineering
Same as IGP(A).Refer to P.21,53 for details, however, it is not necessary to register ‘Nuclear Engineering Off-Campus Project I, II’.

Department of Life Science
Same as IGP(A) program design. Refer to P.114 for details. However, it is not necessary to register ‘IGC Bio-Internship’ and ‘Directed Collaboration Works’ is not compulsory. Note that IGP(C) is not the Integrated Doctoral Education Program. (The Master’s Degree Program and Doctoral Program are separated).

Department of Biological Sciences
Same as IGP(A) program design. Refer to P.114 for details. However, it is not necessary to register ‘IGC Bio-Internship’ and ‘Directed Collaboration Works’ is not compulsory. Note that IGP(C) is not the Integrated Doctoral Education Program. (The Master’s Degree Program and Doctoral Program are separated).

Department of Biological Information
Same as IGP(A) program design. Refer to P.114 for details. However, it is not necessary to register ‘IGC Bio-Internship’ and ‘Directed Collaboration Works’ is not compulsory. Note that IGP(C) is not the Integrated Doctoral Education Program. (The Master’s Degree Program and Doctoral Program are separated).

Department of Bioengineering
Same as IGP(A) program design. Refer to P.114 for details. However, it is not necessary to register ‘IGC Bio-Internship’. Note that IGP(C) is not the Integrated Doctoral Education Program. (In this department only set the Doctoral Program.).

Department of Biomolecular Engineering
Same as IGP(A) program design. Refer to P.114 for details. However, it is not necessary to register ‘IGC Bio-Internship’ and ‘Directed Collaboration Works’ is not compulsory. Note that IGP(C) is not the Integrated Doctoral Education Program. (The Master’s Degree Program and Doctoral Program are separated).

 

Department of Innovative and Engineered Materials
Same as IGP(A).Refer to P.129 for details

Department of Electronic Chemistry
Same as IGP(A).Refer to P.133 for details

Department of Materials Science and Engineering
Same as IGP(A).Refer to P.142 for details

Department of Environmental Science and Technology
Same as IGP(A).Refer to P.146 for details

Department of Built Environment
Same as IGP(A).Refer to P.156 for details

Department of Energy Sciences
Same as IGP(A).Refer to P.164 for details

Department of Environmental Chemistry and Engineering
Same as IGP(A).Refer to P.169 for details

Department of Electronics and Applied Physics
Same as IGP(A).Refer to P.173 for details

Department of Mechano-Micro Engineering
Same as IGP(A).Refer to P.176 for details

Department of Computational Intelligence and Systems Science
Same as IGP(A).Refer to P.179 for details

Department of Information Processing
Same as IGP(A).Refer to P.184 for details

 

Department of Mathematical and Computing Sciences
Refer to “Requirements of Doctoral Program” on P.2.

Department of Computer Science
Same as IGP(A).Refer to P.195 for details

Department of Mechanical and Environmental Informatics
Register courses from the table on P.309

 

Department of Human System Science
Register courses from the table on P.319

Department of Value and Decision Science
Register courses from the tables on P.321

Department of Industrial Engineering and Management
Refer to General rule on P.2.

Department of Social Engineering
Refer to General rule on P.2.

 

Department of Metallurgy and Ceramics Science

1. Program Outline

This graduate school program provides study course to educate high skill experts having fundamental and application knowledge and technology, regarding research and development of metal and ceramics for creation of innovative structural and functional materials.

2. Course Outlines and Faculty

This course aims to build up the ability of followings;
to extract and appreciate the essence of scientific and technological problems;
to make use of expertise to solve the problems with creativeness;
to appreciate and systemize the international R&D trends for materials;
to logically explain, write and make discussion in both Japanese and English.

3. Guide to Study in Department of Metallurgy and Ceramics Science

4. Graduation Requirements

Department of Metallurgy and Ceramics Science

[Master’s degree]

[Doctoral degree]

(1) Seminar in each term must be taken.
(2) If the student enrolls the Integrated Doctoral Educational Program, one Off-Campus Project is required to complete.
(3) The candidate must complete and submit a thesis for the degree, and take the final examination and evaluation of his/her thesis.

The candidate who satisfies the above requirements and passes the final examination is awarded a Doctoral degree.

Students should consult with their own supervisors about the study plan.

 

4. Tables of Courses

Research Courses (Œ¤‹†‰È–ÚŒQ)

Course Number Remarks*
(See footnotes)
Course Department
Offering
course**
Credit Semester
S: Spring
A: Autumn
Opening year
a: Annually
e: Even
o: Odd
24701-24704 Seminar in Materials Science and Technology I-IV MCS 0-1-0   a
24801-24806 Seminar in Materials Science and Technology V-X MCS 0-2-0   a
24705-24708   Materials Research Methodology I-IV MCS 0-1-0   a

Courses by Departments (ê–å‰È–ÚŒQ)

Course Number Remarks
(See footnotes)
Course Department
Offering
course*
Credit Semester
S: Spring
A: Autumn
Opening year
a: Annually
e: Even
o: Odd
Departmental Courses (êUê–å‰È–Ú)
24042 B Thermodynamics for Metallurgists MCS 2-0-0 S a
24002 B Applied Diffraction Crystallography in Metals and Alloys MCS 2-0-0 S a
24033 A Advanced Solid State Physics MCS 2-0-0 S a
19066 I Environmental Degradation of Materials CMS 2-0-0 A a
24010 A Microstructure of Metals and Alloys MCS 2-0-0 A a
24003 B Solid State Chemistry in Metal Oxides MCS 2-0-0 A a
24044 A Advanced Ferrous and Non-ferrous Materials MCS 2-0-0 A a
24006 B Physical Chemistry of Melts MCS 2-0-0 A a
24008 A Phase Transformation in Solids MCS 2-0-0 A a
24043 B Advanced Metal Physics MCS 2-0-0 A a
24055 B Transport Phenomena of Metallie Materials MCS 2-0-0 A a
96047 A Science & Engineering of Solidification MSE 2-0-0 S e
96048 A Characteristics & Applications of Intermetallic Alloys MSE 2-0-0 S e
96049 B Lattice Defects & Mechanical Properties of Materials MSE 2-0-0 A e
96050 B Diffusion in Alloys MSE 2-0-0 A e
97036 A Alloy Phase Diagram IMS 2-0-0 A e
97017 B Crystallography for Microstructural Characterization IMS 2-0-0 A o
96055 A Advanced Course in Design and Fabrication of Micro/Nano Materials MSE 2-0-0 A o
24047 B/I Degradation of Infrastructure MCS 1-0-0 A o
24051 B/I Science of Materials MCS 1-0-0 A e
24501 A Special Lecture on Metallurgical Engineering A I MCS 1-0-0 S o
24502 A Special Lecture on Metallurgical Engineering A II MCS 1-0-0 S e
24034 A Characterization of Nano-materials MCS 2-0-0 A a
24045 B Advanced Metallurgical Engineering Laboratory MCS 0-0-4 A a
24056 B Special interdisciplinary Subject in Materials Science and Engineering A* MCS 0-2-0 S a
24057 B Special interdisciplinary Subject in Materials Science and Engineering B* MCS 0-2-0 A a
Courses in Other Departments (‘¼êU‰È–Ú)
    Special subjects in other departments in addition to the above subsidiary subjects        

Footnotes:
B: Basic, A: Applied, I: Interdisciplinary

Liberal Arts and General Education(G) (‘åŠw‰@‹³—{E‹¤’ʉȖڌQ)

  Remarks
International Communication(G) (‘åŠw‰@‘ÛƒRƒ~ƒ…ƒjƒP[ƒVƒ‡ƒ“‰È–Ú)
Interdisciplinary Courses(G) (‘åŠw‰@‘‡‰È–Ú)
Interdepartmental Courses(G) (‘åŠw‰@Lˆæ‰È–Ú)
Arts and Humanities(G) (‘åŠw‰@•¶–¾‰È–Ú)
Carrier Development Courses(G) (‘åŠw‰@ƒLƒƒƒŠƒA‰È–Ú)
Courses for Developing Creativity(G) (‘åŠw‰@‘n‘¢«ˆç¬‰È–Ú)
Courses for International Students(G) (‘åŠw‰@—¯Šw¶‰È–Ú)
Refer to P.337 and P.340

 

5. Syllabus of Course Subjects

24002
Applied Diffraction Crystallography in Metals and Alloys

Spring Semester (2-0-0) (Odd Years)
Prof. Yoshio Nakamura
[Aims]
Fundamentals of crystallography and structural characterization by diffraction technique are introduced especially to students who study metallurgy.
[Outline]

  1. Symmetry description of crystal
  2. How to describe structure of crystals
  3. Crystal symmetry and physical properties
  4. Ordered structure and modulated structure
  5. Diffraction from ideal and imperfect crystals
  6. X-ray and Electron diffraction techniques for structural analysis and characterization

97017
Crystallography for Microstructural Characterization

Autumn Semester (2-0-0) (Odd Years)
Assoc. Prof. Toshiyuki Fujii
[Aims & Outline]
This class offers methods of determining the crystal structure and characterizing the microstructure of metals. Students will learn about the basic crystallography, stereographic projection, x-ray and electron diffraction, and electron microscopy. Quizzes are given out to the students in every class.

24043
Advanced Metal Physics

Autumn Semester (2-0-0)
Prof. Ji Shi
[Aims & Outline]
This course is designed to introduce first-year graduate students to the fundamentals and recent developments in solid state physics, especially in relation to metals and alloys. Emphasis is placed on the electronic structures of solids and related properties. Starting from introductory quantum mechanics, the course covers following topics: atomic structure, bonds in metallic and nonmetallic solids, band structure and semiconductors, transition metals and ferromagnetism, physics and applications of thin solid films.

96049
Lattice Defects & Mechanical Properties of Materials

Autumn Semester (2-0-0) (Even Years)
Prof. Susumu Onaka and Prof. Masaharu Kato
[Aims & Outline]
Lattice defects and their role on mechanical properties of solid materials are lectured. Topics such as linear elasticity (stress, strain, Hooke’s law) and dislocation theory are included.

24042
Thermodynamics for Metallurgists

Spring Semester (2-0-0) (Even Years)
Assoc. Prof. Kenichi Kawamura
[Aims]
Thermodynamics is a powerful tool for the material processing and design. This lecture provides the understanding of the thermodynamics from the basics to the applications, and extends to the defect chemistry in solid oxide.
[Outline]

  1. Introduction
  2. Basics of thermodynamics
  3. Gibbs energy
  4. Phase diagram and rule
  5. Activity
  6. Chemical reaction
  7. Thermodynamic table
  8. Measurement for thermodynamic data
  9. Crystal defects
  10. Solid state ionics
  11. Application of solid state ionics I
  12. Application of solid state ionics II

24006
Physical Chemistry of Melts

Autumn Semester (2-0-0) (Odd Years)
Prof. Masahiro Susa
[Aims]
This lecture mainly centers upon thermodynamics of metal and its oxide melts. The term of ‘melts’ essentially means what the term of ‘liquid’ does and is often used, in particular, when one refers to the state of substances which are melted at high temperatures. In this usage, for example, liquid iron is a kind of melt but liquid water is not. Many metallic materials are produced via the state of melts and thus understanding of physico-chemical properties of melts is essential to metallic materials process designing and its optimization. This lecture ranges from fundamental to slightly applied thermodynamics relevant to metals, including phase diagrams. The final goal is to learn how to use the concept of activity and how to interpret phase diagrams, in particular, for ternary systems containing melts, through many exercises.
[Outline]

  1. Basic Thermodynamics
    First law, Internal energy and enthalpy, Second law, Entropy, Third law, Gibbs energy and chemical potential, Chemical equilibria and phase rule, Ellingham diagram
  2. Activity
    Law of mass action and concept of activity, Raoultian and Henrian standard activities, Henrian activities by mole fraction and mass% expressions, Interaction parameters, Basicity
  3. Phase diagram for binary system
    Lever rule, and eutectic and peritectic systems
  4. Phase diagram for ternary system
    Method of determining composition, Isoplethal studies in systems containing eutectic reactions, Alkemade lines and composition triangles, Isothermal sections, Isoplethal studies in systems containing peritectic reactions

24003
Solid State Chemistry in Metal Oxides

Autumn Semester (2-0-0) (Odd Years)
Prof. Toshio Maruyama
[Aims & Outline]
This lecture is focused on physico-chemical properties of metal oxides at elevated temperatures from the viewpoint of solid state chemistry. The topics are

(1)Nature of chemical bond in metal oxides
(2)Thermodynamics
(3)Defect chemistry
(4)Diffusion and ionic conduction
(5)High Temperature oxidation of metals
(6)Solid state reaction

24055
Transport Phenomena of Metals and Alloys

Autumn Semester (2-0-0) (Even Years)
Assoc. Prof. Miyuki Hayashi
[Aims]
The lecture focuses on the basic transport phenomena such as flow pattern of liquid, mass and heat transport in liquid and solid and reaction rate at the interface between different phases, which can be seen in the metal smelting, the production process of electrical materials and so on.
[Outline]

  1. Introduction
  2. Mass transport
    1) Fick’s law of diffusion
    2) Shell mass balances and boundary conditions
    3) Steady-state diffusion
    4) Nonsteady-state diffusion
  3. Momentum transport
    1) Newton’s law of viscosity
    2) Navier-Stokes equation
    3) Laminar flow and turbulent flow
    4) Friction factors
  4. Energy transport
    1) Fourier’s law of heat conduction
    2) Shell energy balances and boundary conditions
  5. Dimensional analysis
    1) Buckingham’s pi theorem
    2) Dimensionless numbers for forced convection and free convection
    3) Dimensionless number for heat conduction
  6. Macroscopic balances
    1) Isothermal systems
    2) Nonisothermal systems
    3) Bernoulli equation

24008
Phase Transformations in Metals and Alloys

Autumn Semester (2-0-0) (Even Years)
Prof. Masao Takeyama
[Aims]
Physical and mechanical properties of metals and alloys are directly associated with their microstructures, so it is very important to understand how to control the microstructures through phase transformations. This course of lectures covers the fundamental mechanisms of solid/solid phase transformations and microstructure evolution in ferrous and other materials.
[Outline]

  1. Introduction -Basics for studying phase transformations-
    1-1 Thermodynamics and Phase diagrams
    1-2 Diffusion
    1-3 Diffusional Transformations in solids
    1-4 Diffusionless Transformations in solids
  2. Microstructures and Phase transformations in Ferrous Materials
    2-1 Phase transformations in iron
    2-2 Pearlite
    2-3 Bainite
    2-4 Martensite
  3. Microstructures of Other alloys
    3-1 Titanium and titanium alloys
    3-2 Nickel base alloys
  4. Phase transformations in Intermetallics
    4-1 Order/disorder transformations
    4-2 Ordering and Phase Separation

24010
Microstructures of Metals and Alloys

Autumn Semester (2-0-0) (Odd Years)
Prof. Tatsuo Sato
[Aims & Outline]
Characteristics and formation mechanisms of various microstructures of metals and alloys produced during fabrication processes such as cast/solidification, plastic deformation and heat treatments are comprehensively introduced. The fundamental correlation between microstructures and mechanical properties is discussed. The topics on the advanced materials are also introduced.

96048
Characteristics and Applications of Intermetallic Alloys

Spring Semester (2-0-0) (Even Years)
Assoc. Prof. Yoshisato Kimura
[Aims & Outline]
Intermetallic compounds provide very different physical and chemical properties due to a wide variety of their ordered crystal structures. Starting from fundamental characteristics of intermetallic compounds strongly depending on their ordered structures, advanced applications both for structural and functional are covered with considering strategies for the material design.

97036
Alloy Phase Diagrams

Autumn Semester (2-0-0) (Even Years)
Prof. Hideki Hosoda
[Aims & Outline]
The purpose of this lecture is a comprehensive understanding of the alloy phase diagrams in the binary and ternary systems through studying the phase reaction, the phase rule, Gibbs free energy and related features. Besides, microstructures are discussed in connection with alloy phase diagrams. Besides, practice is provided in each class to develop understanding.

24044
Advanced Ferrous and Non-ferrous Materials

Autumn Semester (2-0-0) (Even Years)
Assoc. Prof. Yoshihiro Terada
[Aims]
Desirable mechanical characteristics for metallic materials often result from a phase transformation, which is wrought by a heat treatment. This lecture covers several different microstructures that may be produced in both ferrous and non-ferrous alloys depending on heat treatment.
[Outline]

  1. Crystal structure
  2. Heat treatment of ferrous materials
  3. Phase transformation and microstructure of ferrous materials
  4. Heat treatment of non-ferrous alloys
  5. Microstructural evolution in non-ferrous alloys

96047
Science and Engineering of Solidification

Spring Semester (2-0-0) (Even Years)
Prof. Shinji Kumai
[Aims & Outline]
The present lecture provides a fundamental knowledge of solidification, from the scientific to the engineering point of view, covering the recent development and future prospects. Basic concepts of driving force for solidification, undercooling, local equilibrium, and interface non-equilibrium are described. A detailed explanation is also made about dendritic and eutectic growth, as well as of peritectic, monotectic and behavior of third phase.

96055
Advanced Course in Design and Fabrication of Micro/Nano Materials

Spring Semester (2-0-0) (Odd Years)
Assoc. Prof. Masato Sone
[Aims]
Fundamentals of design and fabrication of micro/nano materials are introduced especially to students who study materials chemistry.
[Outline]

  1. Principle & classification of micro/nano materials
  2. Fabrication method, properties and applications of nano particle
  3. Fabrication method, properties and applications of nano tube
  4. Designs & Fabrication method of molecular machine
  5. Bottom up method of nanotechnology
  6. Top down method of nanotechnology
  7. Problems of nanotechnology into industry

96050
Diffusion in Alloys

Autumn Semester (2-0-0) (Even Years)
Assoc. Prof. Masanori Kajihara
[Aims]
Evolution of microstructure occurs in many alloy systems at elevated temperatures. Such a phenomenon is usually controlled by diffusion. On the basis of Fick’s first and second laws, diffusion can be described mathematically. In the present lecture, various mathematical methods describing diffusion will be explained in detail.
[Outline]

  1. Introduction
  2. Fick’s first law
  3. Fick’s second law
  4. Analytical solution of diffusion equation
  5. Application of analytical solution to various problems
  6. Boltzmann-Matano analysis
  7. Darken’s analysis
  8. Migration of interface

19066
Environmental Degradation of Materials

Autumn Semester (2-0-0)(Odd Years)
Prof. Atsushi Nishikata and Assoc. Prof. Eiji Tada
[Aims]
Based on electrochemistry and surface chemistry, the class offers analytical methods to be applied for degradation mechanisms and its prevention of infrastructural and functional materials in various environments.
[Outline]

  1. Electrochemistry of Corrosion
    1.1 Basics of electrochemistry, Electrochemical equilibrium, Standard electrode potential, Potential-pH diagram
    1.2 Kinetics of electrochemistry, Butler-Volmer equation, Exchange current density, Overpotentia
    1.3 Mixed potential theory, Corrosion potential, Corrosion current, Polarization curve
    1.4 Anodic dissolution mechanism: Anodic dissolution of metals and alloys
  2. Practical Corrosion and Degradation of Materials
    2.1 Forms of corrosion, Classification of corrosion, Evaluation methods
    2.2 Determination of corrosion, Measurement of corrosion rate
    2.3 Passivity and passive films, Characteristics of passive films
    2.4 Degradation of stainless steel, Localized corrosion, Pitting and crevice corrosion
    2.5 Stress corrosion cracking (SCC), Environmental brittlement (HE, CF)
  3. Environmental Degradation of Materials
    3.1 Novel corrosion resistant materials
    3.2 Degradation of electronic devices and materials
    3.3 Degradation of infrastructure and its evaluation
    3.4 Novel methods for evaluation and measurement of materials degradation

24045
Advanced Metallurgical Engineering Laboratory

Autumn Semester (0-0-4)
[Aims & Outline]
The present lecture provides a chance to understand the physical, chemical and mechanical properties of metallic materials through the basic experiments, which include age hardening of aluminum alloys. Heat treatment of ferrous alloys, tensile properties, corrosion behavior, steel making, and so on.

24521, 24522
Materials Off-Campus Project I, II

Spring and Autumn Semesters (0-0-4)
[Aims & Outline]
This course is designed to experience the research and/or production in the material companies. The knowledge of metallurgy studied in Tokyo Tech is expected to utilize in the companies during this internship program.

24701-24704
Seminar in Materials Science and Technology I-IV

Spring and Autumn Semesters (0-1-0)

24801-24806
Seminar in Materials Science and Technology V-X

Spring and Autumn Semesters (0-2-0)
[Aims and scope]
Colloquium on topics relating to each specialty by means of reading research papers and books, and Discussion with each supervisor and course coordinator

24705-24708
Materials Research Methodology I-IV

Spring and Autumn Semesters (0-1-0)
[Aims & Outline]
These lectures aim to give students research methodology on materials science and engineering. Trough Parts I and II students will understand the background and objectives of their master thesis researches mainly based upon industrial and scientific trends and will be able to explain them logically. Trough Parts III and IV students will achieve competency for oral presentation and thesis-writing.

 

Department of Organic and Polymeric Materials

1. Department Outline

The Department of Organic and Polymeric Materials has been carrying out education and research on material design and development of organic and polymeric materials which offer unlimited possibilities that are indispensable for sustainable development of the present society. The department aims to bring up creative engineers and scientists with a fundamental knowledge in organic and polymeric materials who would be capable of developing new unexplored research fields. For that purpose, the department offers education both in the necessary basic knowledge on organic and polymeric science in the form of Special Subjects, and in the area research supervision and management which are indispensable qualities of leading researchers and engineers.

 

2. Graduation Requirements

[Master’s degree]
For a Master’s degree a student must take 34 credits or more and meet other requirements as follows:

(1) Credits

(2) Thesis

The student must complete a mater thesis research, submit a thesis for the degree and take and pass the final examination given after the submission of her/his thesis for the qualification.

[Doctoral degree]
For a Doctoral degree a doctoral candidate must satisfy the following requirements:

(1) 12 credits from the Seminar Subjects in Organic and Polymeric Materials V-X.
(2) The result of the research presented in the thesis for the degree must be subject of one or more original research papers published or accepted in an international peer-reviewed research journal.
(3) The candidate must complete and submit a thesis for the degree, and take the final examination and evaluation of his/her thesis.

The candidate who satisfies the above requirements and passes the final examination is awarded a Doctoral degree.

Students should consult with their own supervisors about the study plan.

 

3.Course List of Department of Organic and Polymeric Materials

Course Dept.
offering
course*
Regist-ration number Credit Semester
S: Spring
A: Autumn
Opening year
a: Annually
e: Even
o: Odd
Category,
Remarks
Advanced Separation Operations CE 35005 2 0 0 A a B
Transport Phenomena and Operation for Advanced Materials and Chemicals Processing CE 35031 2 0 0 S a B
Fine Particle Engineering CE 35032 2 0 0 S a B
Material Science and Chemical Equipment Design CE 35033 2 0 0 A a B
Chemical Engineering for Advanced Materials and Chemicals Processing II CE 35035 2 0 0 S a B
Advanced Course in Surface Properties of Organic Materials OPM 25022 2 0 0 S a B
Advanced Course in Organic Materials for Photonics OPM 25023 2 0 0 A a B
Advanced Course in Organic and Soft Materials Chemistry OPM 25042 2 0 0 S o B
Advanced Course in Wettability Control of Solid Surface MSE 24050 2 0 0 S o B
Nuclear Materials Science NE 71052 2 0 0 A e B
Advanced Chemical Reaction Engineering CE 35002 2 0 0 S a A
Catalytic Process and Engineering CE 35008 2 0 0 A a A
Plasma and High Temperature Processing CE 35036 2 0 0 A a A
Advanced Course in Physical Properties of Organic Materials OPM 25021 2 0 0 A a A
Advanced Course of Organic Materials Design CMS 19007 2 0 0 S o A
Advanced Course of Polymer Chemistry OPM 25029 2 0 0 A o A
Advanced Course in Environmental Aspects and Porous Materials MSE 96054 2 0 0 S o A
Life Cycle Engineering CE 35037 2 0 0 A a I
Practical Aspect for Legal Agreement on Technical Issues CE 35030 2 0 0 A a I
Chemical Engineering Off-Campus Project I CE 35501 0 4 0 S a I or II is required
Chemical Engineering Off-Campus Project II CE 35502 0 4 0 A a
Materials Off-Campus Project I MSE 24521 0 0 4 S a I or II is required
Materials Off-Campus Project II MSE 24522 0 0 4 A a
Organic and Polymeric Materials Off-Campus Project I OPM 25511 0 0 4 S a I or II is required
Organic and Polymeric Materials Off-Campus Project II OPM 25512 0 0 4 A a
Seminar in Chemical Engineering I CE 35701 1 0 0 S a Required Master Course
Seminar in Chemical Engineering II CE 35702 1 0 0 A a Required Master Course
Seminar in Chemical Engineering III CE 35703 1 0 0 S a Required Master Course
Seminar in Chemical Engineering IV CE 35704 1 0 0 A a Required Master Course
Seminar in Chemical Engineering V CE 35801 2 0 0 S a Required Doctoral Course
Seminar in Chemical Engineering VI CE 35802 2 0 0 A a Required Doctoral Course
Seminar in Chemical Engineering VII CE 35803 2 0 0 S a Required Doctoral Course
Seminar in Chemical Engineering VIII CE 35804 2 0 0 A a Required Doctoral Course
Seminar in Chemical Engineering IX CE 35805 2 0 0 S a Required Doctoral Course
Seminar in Chemical Engineering X CE 35806 2 0 0 A a Required Doctoral Course
Seminar in Materials Science and Technology I MSE 24701 1 0 0 S a Required Master Course
Seminar in Materials Science and Technology II MSE 24702 1 0 0 A a Required Master Course
Seminar in Materials Science and Technology III MSE 24703 1 0 0 S a Required Master Course
Seminar in Materials Science and Technology IV MSE 24704 1 0 0 A a Required Master Course
Seminar in Materials Science and Technology V MSE 24801 2 0 0 S a Required Doctoral Course
Seminar in Materials Science and Technology VI MSE 24802 2 0 0 A a Required Doctoral Course
Seminar in Materials Science and Technology VII MSE 24803 2 0 0 S a Required Doctoral Course
Seminar in Materials Science and Technology VIII MSE 24804 2 0 0 A a Required Doctoral Course
Seminar in Materials Science and Technology IX MSE 24805 2 0 0 S a Required Doctoral Course
Seminar in Materials Science and Technology X MSE 24806 2 0 0 A a Required Doctoral Course
Seminar in Organic and Polymeric Materials I OPM 25731 1 0 0 S a Required Master Course
Seminar in Organic and Polymeric Materials II OPM 25732 1 0 0 A a Required Master Course
Seminar in Organic and Polymeric Materials III OPM 25733 1 0 0 S a Required Master Course
Seminar in Organic and Polymeric Materials IV OPM 25734 1 0 0 A a Required Master Course
Seminar in Organic and Polymeric Materials V OPM 25831 2 0 0 S a Required Doctoral Course
Seminar in Organic and Polymeric Materials VI OPM 25832 2 0 0 A a Required Doctoral Course
Seminar in Organic and Polymeric Materials VII OPM 25833 2 0 0 S a Required Doctoral Course
Seminar in Organic and Polymeric Materials VIII OPM 25834 2 0 0 A a Required Doctoral Course
Seminar in Organic and Polymeric Materials IX OPM 25835 2 0 0 S a Required Doctoral Course
Seminar in Organic and Polymeric Materials X OPM 25836 2 0 0 A a Required Doctoral Course
** B: Basic, A: Applied, I: InterdisciplinaryCE: Dept. Chemical Engineering
OPM: Dept. Organic and Polymeric Materials
MSE: Dept. Metallurgy and Ceramics Science
CMS: Dept. Chemistry and Materials Science
NE: Dept. Nuclear Engineering

Descriptions of the subjects listed above are provided at those either for “Development and Environmental Engineering Course of Sustainable Engineering Program: IGP(A)” (refer to P.28).

 

Department of Chemical Engineering

1. Department Outline

Chemical engineers are professionals who have been responsible for bringing out every product in our daily life. They are concerned with the chemical processes that convert raw materials into valuable products. They are at home with chemistry, but they do much more with chemical engineering knowledge than just make chemicals. The Department of Chemical Engineering aims to develop the human resources of highly-qualified technologists with integrated ability of decision-making, creativity and international mindset.

2. Graduation Requirements

The following are the graduation requirements. Students should consult with their own supervisors about the study plan.

[Master’s degree]
For a Master’s degree a student must acquire 32 credits or more and meet other requirements as follows:

(1) Credits

(2) Thesis

[Doctoral degree]
For a Doctoral degree a doctoral candidate must satisfy the following requirements:

(1)Credits

(2)Thesis

[Integrated Doctoral Educational Program]
Students in the master course of International Graduate Program C, IGP(C) can apply for Integrated Doctoral Educational Program. The students have to pass the examination for the enrollment in the Integrated Program. The system and curriculum of Integrated Program of IGP(C) are different from those of IGP(A) though the latter is also an Integrated Program. The students enrolled in the Integrated Program in IGP(C) must acquire the following subjects.

Students who desire to enroll in the Integrated Doctoral Educational Program should consult with their supervisor about the application.

 

3.Course List of The Department of Chemical Engineering

Course Department offering course Course
Number
Credit Semester
S: Spring
A: Autumn
Opening year
a: Annually
e: Even
o: Odd
Category*
Remarks
Departmental Courses(êUê–å‰È–Ú)
Advanced Separation Operations Chemical Engineering 35005 2 0 0 A a B
Transport Phenomena and Operation for Advanced Materials and Chemicals Processing Chemical Engineering 35031 2 0 0 S a B
Fine Particle Engineering Chemical Engineering 35032 2 0 0 S a B
Material Science and Chemical Equipment Design Chemical Engineering 35033 2 0 0 A a B
Chemical Engineering for Advanced Materials and Chemicals Processing I Chemical Engineering 35034 2 0 0 A a B
Chemical Engineering for Advanced Materials and Chemicals Processing II Chemical Engineering 35035 2 0 0 S a B
Advanced Chemical Reaction Engineering Chemical Engineering 35002 2 0 0 S a A
Catalytic Process and Engineering Chemical Engineering 35008 2 0 0 S a A
Plasma and High Temperature Processing Chemical Engineering 35036 2 0 0 A a A
Life Cycle Engineering Chemical Engineering 35037 2 0 0 A a I
Practical Aspect for Legal Agreement on Technical Issues Chemical Engineering 35030 2 0 0 A a I
Seminar Coursesiu‹†‰È–Új
Seminar in Chemical Engineering I Chemical Engineering 35701 1 0 0 S a Required Master Course
Seminar in Chemical Engineering II Chemical Engineering 35702 1 0 0 A a Required Master Course
Seminar in Chemical Engineering III Chemical Engineering 35703 1 0 0 S a Required Master Course
Seminar in Chemical Engineering IV Chemical Engineering 35704 1 0 0 A a Required Master Course
Seminar in Chemical Engineering V Chemical Engineering 35801 2 0 0 S a Required Doctoral Course
Seminar in Chemical Engineering VI Chemical Engineering 35802 2 0 0 A a Required Doctoral Course
Seminar in Chemical Engineering VII Chemical Engineering 35803 2 0 0 S a Required Doctoral Course
Seminar in Chemical Engineering VIII Chemical Engineering 35804 2 0 0 A a Required Doctoral Course
Seminar in Chemical Engineering IX Chemical Engineering 35805 2 0 0 S a Required Doctoral Course
Seminar in Chemical Engineering X Chemical Engineering 35806 2 0 0 A a Required Doctoral Course
Graduate Research Courses(Œ¤‹†ŠÖ˜A‰È–Ú)
Innovative Chemical Engineering Project Chemical Engineering 35044 0 2 0 A a Required
Subjects of Integrated Doctoral Education Program
Chemical Engineering Off-Campus Project I Chemical Engineering 35501 0 4 0 S a I or II is required
Chemical Engineering Off-Campus Project II Chemical Engineering 35502 0 4 0 A a
Chemical Engineering Special Seminar 1 Chemical Engineering 35024 2 0 0 S a 8 credits are required
Chemical Engineering Special Seminar 2 Chemical Engineering 35025 2 0 0 A a
Chemical Engineering Special Seminar 3 Chemical Engineering 35026 2 0 0 S a
Chemical Engineering Special Seminar 4 Chemical Engineering 35027 2 0 0 A a
Chemical Engineering Special Seminar 5 Chemical Engineering 35028 2 0 0 S a
Chemical Engineering Special Seminar 6 Chemical Engineering 35029 2 0 0 A a
* B: Basic, A:Applied,I:InterdisciplinaryChemical Engineering: Dept. Chemical Engineering

Descriptions of the subjects listed above are provided at those for “Advanced Materials and Chemicals Processing Course of Sustainable Engineering Program: IGP(A)” (refer to P.21 and P.89-106).

 

Department of Mechanical Sciences and Engineering

Department of Mechanical and Control Engineering

Department of Mechanical and Aerospace Engineering

1. Departments Outline

The three Mechanical and Engineering Departments of the Graduate School of Science and Engineering are run in an integrated and collaborative manner as a unique group of mechanical engineering courses by world standards for the purpose of producing the worldfs finest researchers and engineers in the field of mechanical, control and informatics engineering. The curricula of these departments are combined with the curriculum of the Department of Mechanical and Environmental Informatics to allow graduate students to select their subjects from a truly broad spectrum of scientific and engineering subjects. In the research work, each student is engaged in one of the most advanced research themes in their respective field to broaden as well as deepen his/her knowledge of the special field.

2. Graduation Requirements

For a Master’s degree / Doctoral degree, a student must satisfy the following requirements.

[Master’s degree]

(1) Credits

*1 Seminar in each semester is the required subject. 8 credits are the requirement for the normal study period of master study, i.e., two years, or four semesters. If the student completes the master course less than 4 semesters, the required credit is reduced according to the number of spent semesters, e.g., 4 credits for two semesters (minimum), and 6 credits for 3 semesters.

*2 Because the curricula of the three Mechanical and Engineering Departments are unified, the classes in Table 2 are regarded as the Departmental Courses. (êUê–å‰È–Ú)

*3 Courses in Other Departments are chosen from the classes given by the other departments. The classes in Table 2 that are given by the Department of Mechanical and Environmental Informatics are not applicable for the Courses in Other Departments.

(2) Thesis

A student must complete and submit the master thesis to take the final examination, and he/she must pass the examination.

[Doctoral degree]
For a Doctoral degree, a doctoral candidate must satisfy the following requirements.

(1) Seminar in each semester is the required subject. Required number of the credit is the same idea with that of master’s degree.
(2) If the candidate enrolls in the Integrated Doctoral Educational Program, Off-Campus Project and the related subjects (System Project Research) are required to complete.
(3) The candidate must have sufficient academic achievement, ex. presentation in international conferences and/or acceptance of journal papers in academic field.
(4) The candidate must complete and submit a thesis for the degree, and take the final examination and the evaluation of his/her thesis.

The candidate who satisfies the above requirements and passes the final examination is awarded a Doctoral degree.

All students are strongly advised to consult with their own supervisors about the study plan.

 

3. Tables of Course Subjects

Table 1 Research Courses(Œ¤‹†‰È–ÚŒQ)

Course Number Remarks*
(See footnotes )
Course Department
Offering
course**
Credit Chair Semester
S: Spring
A: Autumn
Opening year
a: Annually
e: Even
o: Odd
40701
40702
40703
40704
R, MP Seminar in Mechanical and Production Engineering A-D (For IGP-A)   0-2-0 Academic Adviser A
S
A
S
 
46721
46722
46723
46724
R, MP Seminar in Mechanical Sciences and Engineering I - IV (For IGP-C) MSE 0-2-0 Academic Adviser S
A
S
A
a
46801
46802
46803
46804
46805
46806
R, DP Seminar in Mechanical Sciences and Engineering V - X (For IGP-A and IGP-C) MSE 0-2-0 Academic Adviser S
A
S
A
S
A
a
47721
47722
47723
47724
R, MP Seminar in Mechanical and Control Engineering I - IV (For IGP-C) MCE 0-2-0 Academic Adviser S
A
S
A
a
47801
47802
47803
47804
47805
47806
R, DP Seminar in Mechanical and Control Engineering V - X (For IGP-A and IGP-C) MCE 0-2-0 Academic Adviser S
A
S
A
S
A
a
48721
48722
48723
48724
R, MP Seminar in Mechanical and Aerospace Engineering I - IV (For IGP-C) MAE 0-2-0 Academic Adviser S
A
S
A
a
48801
48802
48803
48804
48805
48806
R, DP Seminar in Mechanical and Aerospace Engineering V - X (For IGP-A and IGP-C) MAE 0-2-0 Academic Adviser S
A
S
A
S
A
a

*B: Basic, A: Applied, I: Interdisciplinary, R: Required, MP: Master’s Program, DP: Doctoral Program
**MSE: Dept. Mechanical Science and Engineering, MCE: Dept. Mechanical and Control Engineering, MAE: Dept. Mechanical and Aerospace Engineering
**ME: three mechanical engineering departments (MSE, MCE, and MAE), MEI: Dept. Mechanical and Environmental Informatics

Table 2 Courses by Departments(ê–å‰È–ÚŒQ)

Course Number Remarks*
(See footnotes )
Course Department
Offering
course**
Credit Chair Semester
S: Spring
A: Autumn
Opening year
a: Annually
e: Even
o: Odd
40117 A Robot Creation ME 2-0-0 S. Hirose
F. E. Fukushima
S a
40176 A Advanced Course on Bio-Robotics ME 1-0-0 M. Nakashima S a
40067 B Advanced Course of Mechanical Vibration ME 2-0-0 H. Takahara
M. Okuma
N. Iwatsuki
A a
77053 A Introduction to Biomedical Instrumentation MEI 2-0-0 T. Yagi S o
(Offered in summer 2013)
77060 A Introduction to Neural Engineering MEI 2-0-0 T. Yagi S e
40032 B Advanced Course on Energy Physics ME 2-0-0 K. Fushinobu S a
40082 B Intensive Thermal Engineering ME 2-0-0 S. Hirai
I. Satoh
H. Kosaka
A a
40042 A Thermal Engineering in Environmental Problems ME 2-0-0 K. Hanamura
S. Tsushima
S. Hirai
A a
40147 B Advanced Course on Basic Phenomenon of Liquid/Solid Phase Change ME 1-0-0 S. Okawa S a
40181 A Physical Chemistry of Solution and Mixture ME 1-0-0 T. Inoue A a
40044 A Advanced Course of Measurement Systems ME 1-0-0 S. Ohyama A a
77037 A Mathematical Processing of Measurement Information MEI 2-0-0 S. Hara A e
77054 A Linear Systems and Control MEI 1-0-0 T. Hayakawa A a
77055 A Nonlinear and Adaptive Control MEI 1-0-0 T. Hayakawa A a
77059 A Control Theory for Robot Intelligence MEI 2-0-0 J. Imura S a
40086 B Advanced Course of Mechanics of Materials ME 1-0-0 K. Kishimoto A a
40150 A Advanced course of Mechanics of Fatigue and Fracture of Materials ME 1-0-0 H. Nakamura S a
40146 B Linear Fracture Mechanics ME 1-0-0 A. Todoroki
Y. Mizutani
A a
40019 A Special Lecture on Strength of Materials A ME 1-0-0 K. Kishimoto S e
40020 A Special Lecture on Strength of Materials B ME 1-0-0 H. Nakamura A e
40021 A Special Lecture on Strength of Materials C ME 1-0-0 A. Todoroki
Y. Mizutani
S o
40022 A Special Lecture on Strength of Materials D ME 1-0-0 H. Inoue A o
40174 A Creative Design for Innovation ME 1-0-0 C. Mougenot A a
40178 A Project in Creative Design for Innovation ME 0-1-0 C. Mougenot A a
40031 I Intelligent Control
[This class is not open in 2012.]
ME 1-0-0 D. Kurabayashi S a
40180 A Human Brain Functions and Their Measurements ME 2-0-0 T. Yoshida A a
77006 A Advanced Course of Inverse Problems MEI 1-0-0 K. Amaya A a
40162 B Manufacturing Engineering and Technology I ME 1-0-0 M. Yoshino S o
40170 B Manufacturing Engineering and Technology II ME 1-0-0 T. Yamamoto S e
40015 I Special Lecture on Mechano-Infra Engineering A ME 1-0-0 To be assigned S a
40016 I Special Lecture on Mechano-Infra Engineering B ME 1-0-0 To be assigned S a
40017 I Special Lecture on Mechano-Infra Engineering C ME 1-0-0 To be assigned A a
40018 I Special Lecture on Mechano-Infra Engineering D ME 1-0-0 To be assigned A a
40138 A Automotive Structural System Engineering (TAIST) ME 3-0-0 T. Kitahara
H. Morimura
K. Inaba
S a
40139 A Automotive Comfort Mechanics Engineering (TAIST) ME 3-0-0 M. Yamakita
K. Hanamura
M. Okuma
S a
40140 A Advanced Production Engineering (TAIST) ME 3-0-0 M. Yoshino
K. Takahashi
S. Suzuki
A a
40141 A Combustion Engineering (TAIST)
[This class is not open in 2012.]
ME 3-0-0 S. Hirai
H. Kosaka
A a
40142 A Advanced Internal Combustion Engine Engineering and Future Power Train (TAIST) ME 3-0-0 H. Kosaka
K. Hanamura
S. Hirai
A a
40143 A Basics of Automotive Design (TAIST) ME 3-0-0 H. Morimura
M. Okuma
A a
40144 A Practice of Automotive Design (TAIST) ME 3-0-0 H. Morimura A a
40165
40166
I System Project Research A, B
[Required only for the student belonging to the Integrated Doctoral Education Program]
  0-2-0 Academic Adviser A
S
a
40167
40168
I Mechanical and Production Engineering Off-Campus Project I, II
[Required only for the student belonging to the Integrated Doctoral Education Program]
  0-4-0 Academic Adviser A
S
a

*B: Basic, A: Applied, I: Interdisciplinary, R: Required, MP: Masterfs Program, DP: Doctoral Program
**MSE: Dept. Mechanical Science and Engineering, MCE: Dept. Mechanical and Control Engineering, MAE: Dept. Mechanical and Aerospace Engineering
**ME: three mechanical engineering departments (MSE, MCE, and MAE), MEI: Dept. Mechanical and Environmental Informatics

Table 3 Liberal Arts and General Education(G) (‘åŠw‰@‹³—{E‹¤’ʉȖڌQ)

  Remarks
International Communication (G)i‘åŠw‰@‘ۺЭƹ°¼®Ý‰È–Új
Interdisciplinary Courses (G)i‘åŠw‰@‘‡‰È–Új
Interdepartmental Courses (G)i‘åŠw‰@Lˆæ‰È–Új
Arts and Humanities (G)i‘åŠw‰@•¶–¾‰È–Új
Career Development Courses (G)i‘åŠw‰@ƒLƒƒƒŠƒA‰È–Új
Courses for Developing Creativity (G)i‘åŠw‰@‘n‘¢«ˆç¬‰È–Új
Courses for International Students (G)i‘åŠw‰@—¯Šw¶‰È–Új
Select the classes listed in left.
Only the international students can take the Subjects for International Students.

 

4. Syllabus of Course Subjects

Refer the syllabus of IGP (A) (page 66), and the syllabus of Dept. Mechanical Environmental Informatics (Page 195 and/or 309).

 

Electrical and Electronic Engineering

Physical Electronics

 

No. Course Category Credit Semester note
54001 Advanced Electromagnetic Waves B 2.0 Spring  
54002 Wireless Communication Engineering B 2.0 Spring  
54013 MIMO Communication Systems B 2.0 Autumn  
54003 Guided Wave Circuit Theory B 2.0 Spring  
54007 Electric Power and Motor Drive System Analysis A 2.0 Autumn  
54017 Technology Innovation and Standardization I B 2.0 Spring  
54018 Technology Innovation and Standardization II B 2.0 Autumn  
55016 Introduction to Photovoltaics A 2.0 Autumn  
55008 Advanced Electron Devices B 2.0 Autumn  
55018 Thin Film Devices and Their Applications B 2.0 Spring  
55012 Mixed Signal Systems and Integrated Circuits B 2.0 Autumn  
55001 Electronic Materials A B 2.0 Spring(even year)
Autumn(odd year)
 
55002 Electronic Materials B B 2.0 Autumn(even year)
Spring(odd year)
 
55004 Electronic Materials D B 2.0 Spring(even year)
Autumn(odd year)
 
56007 Advanced Signal Processing B 2.0 Spring  
70020 Rural Telecommunications I 2.0 Autumn  
54705-08
54801-06
Seminar I-X on Electrical and Electronic Engineering Required 2.0 Spring/Autumn  
55705-08
55801-06
Seminar I-X on Physical Electronics Required 2.0 Spring/Autumn  

B:BasicCA:AppliedCI:Interdisplinary

For a Master’s degree a student must take 30 credits or more and meet other requirements as follows:

  1. 30 credits or more from the Graduate school courses.
  2. 8 credits from the Seminar Courses.(u‹†‰È–Ú)
  3. 18 credits or more from the Courses by Departments(ê–å‰È–ÚŒQ). 16 credits in 18 must be from the Departmental Courses(êUê–å‰È–Ú).
  4. 2 credits or more from the Liberal Arts and General Education(G)(‘åŠw‰@‹³—{E‹¤’ʉȖÚ).
  5. The student must complete a master thesis research, submit a thesis for the degree and take and pass the final examination given after the submission of her/his thesis for the qualification.

 

Department of Civil Engineering

1. Program Outline

Civil Engineering is the practice of developing a civilized built environment in harmony with our natural surroundings, in which we may live safely and comfortably. The Department of Civil and Environmental Engineering at Tokyo Tech trains its students to develop technical engineering skills in a diverse and international environment, with the goal of producing tomorrow’s global leaders in the Civil Engineering industry and in academia. Students in the Department learn the fundamentals of civil engineering through a variety of courses, and then receive intensive training in their specific field of interest by conducting cutting-edge research under the close guidance of a distinguished faculty member.

2. Course Outlines

[Master’s degree]
In the Master’s degree program, students are trained to develop technical engineering skills in a diverse and international environment, giving them the tools to become tomorrow’s global leaders in the Civil Engineering industry. To achieve this goal, the Department seeks to confer the following skills to students:

[Doctoral degree]
In the Doctoral degree program, students are trained to develop cutting-edge technical engineering skills in a diverse and international environment, giving them the tools to become tomorrow’s global leaders in the Civil Engineering industry and in academia. To achieve this goal, the Department seeks to confer the following skills to students:

3. Guide to Study in Department of Civil Engineering

[Master’s degree]
For the Master’s degree, students engage in the following program of study:

A) Fundamental courses which cover the breadth of science and engineering
Broad, fundamental engineering courses are offered to convey the foundation for building professional skill for the practice of civil engineering.

B) In-depth courses focused on specific fields within civil engineering
Students may take in-depth courses in 4 or more of the 6 major fields within civil engineering, in order to acquire a deep understanding of the profession.

C) Practical internships and seminars Students enroll in internships and seminars to acquire an in-depth understanding of how theory is applied to practice in the field of civil engineering.

D) Problem-solving and communication training
By engaging in original research focused on a specific problem and completing a Master’s thesis, students learn to work independently and proactively, and to communicate their results convincingly.

[Doctoral degree]
For the Doctoral degree, students engage in the following program of study:

A) Practical education for cutting-edge research and practice
By engaging in research toward a Doctoral dissertation, students work together with a faculty advisor to develop cutting-edge experimental and analytical methods that push the frontier of civil engineering research and practice.

B) Communication training for participation in international projects
Doctoral coursework (including seminars and research presentations), writing of the Doctoral dissertation, and presentation of the Doctoral dissertation are all conducted in English. This gives students the communication ability necessary to engage successfully in overseas projects.

C) Problem-solving and leadership training
By engaging in doctoral research, students learn how to be leaders in their field and to solve problems in an ethical manner. Students will participate in field-specific and interdisciplinary seminars, and will interact with foreign students, researchers, and civil engineering practitioners via conferences and collaborative research. This will impart students with skills to further their ambitions to engage in international business or collaboration.

4. Graduation Requirements

[Master’s degree]
For a Master’s degree a student must take 30 credits or more and meet other requirements as follows:

(1) Credits

(2) Thesis

The student must complete a mater thesis research, submit a thesis for the degree and take and pass the final examination given after the submission of her/his thesis for the qualification.

*1: Seminar in each term must be taken. 8 credits are the requirement for the normal study period of master study, i.e., two years, or four semesters. If the student completes the master study in less than 4 semesters, the required credit is reduced according to the number of spent semesters, e.g., 4 credits for two semesters (minimum), and 6 credits for 3 semesters.

*2: Courses in Department of Civil Engineering are categorized into seven fields, namely, (1) Structural Engineering, (2) Hydraulic and Environmental Engineering, (3) Geotechnical Engineering, (4) Transportation and Infrastructure Planning, (5) Concrete and Material Engineering, (6) Earthquake Engineering, (7) Common Basic Science. As requirements for master degree, the student in Department of Civil Engineering should acquire at least two courses from the field which she/he specializes. The student should also acquire at least one course from each of the other four fields, in which the category (7) is compulsory.

[Doctoral degree]

For a Doctoral degree a doctoral candidate must satisfy the following requirements:

(1) Seminar in each term must be taken.
(2) If the student enrolls the Integrated Doctoral Educational Program, he/she is required to complete one Off-Campus Project.
(3) The candidate must complete and submit a thesis for the degree, and take the final examination and evaluation of his/her thesis.

The candidate who satisfies the above requirements and passes the final examination is awarded a Doctoral degree. Students should consult with their own supervisors about the study plan.

 

5. Tables of Courses

Course Dept.
offering
course*
Registration
number
Credit Semester
S: Spring
A: Autumn
Opening year
a: Annually
e: Even
o: Odd
Category,
Remarks
Seismic Response Modification of Urban Infrastructures CE 61060 2 0 0 A e (1) (5) (6)
Fracture Control Design of Steel Structures CE 61005 2 0 0 A o (1)
Introduction to Solid Mechanics CE 61065 2 0 0 S a (1) (3) (5) (6)
Advanced Course on Elasticity Theory CE 61048 2 0 0 A a (1) (3) (5) (6)
Analysis of Vibration and Elastic Wave MEI 77019 2 0 0 S o (1)
Advanced Course on Coastal Environments MEI 77048 2 0 0 A e (2)
Regional Atmospheric Environment IDE 70009 1 0 0 A e (2)
Aquatic Environmental Science CE 61073 2 0 0 S e (2)
Environmental Statistics CE 61074 2 0 0 S o (2) (7)
Water Quality Dynamics CE 61082 2 0 0 A e (2)
GIS in Water Resources Engineering CE 61080 1 1 0 S a (2)
Advanced Hydrology and Water Resources Management CE 61079 2 0 0 A a (2)
Global Water Cycle and Terrestrial Environment MEI 77063 2 0 0 S a (2)
Open Channel Hydraulics EST 98053 1 0 0 S a (2)
Environmental Hydraulics EST 98067 1 0 0 S a (2)
Watershed Hydrology EST 98060 1 0 0 S a (2)
Geo-Environmental Engineering CE 61049 2 0 0 S a (2) (3)
Physical Modelling in Geotechnics CE 61061 2 0 0 A a (3) (6)
Stability Problems in Geotechnical Engineering CE 61034 2 0 0 A a (3) (6)
Mechanics of Geomaterials CE 61038 2 0 0 S a (3)
Advanced Geotechnical Engineering IDE 70008 2 0 0 A o (3)
Advanced Mathematical Methods for Infrastructure and Transportation Planning CE 61014 2 0 0 S o (4) (7)
Transportation Network Analysis CE 61081 2 0 0 A e (4)
Transportation Economics CE 61066 1 0 0 A e (4)
Project Evaluation for Sustainable Infrastructure IDE 70030 2 0 0 S a (4)
Theory of Regional Planning Process BE 92047 2 0 0 S e (4)
Environmental Transportation Engineering BE 92048 1 0 0 A o (4)
City/Transport Planning and the Environment BE 92035 1 0 0 A a (4)
Advanced Concrete Technology IDE 70043 2 0 0 A e (5)
Mechanics of Structural Concrete CE 61003 2 0 0 S o (5)
Utilization of Resources and Wastes for Environment IDE 70041 2 0 0 A a (5)
Basics and Applications of Stochastic Processes BE 92008 1 1 0 A a (6)
Earthquake and Tsunami Disaster Reduction BE 92046 1 0 0 A a (6)
Civil Engineering Analysis CE 61013 1 0 0 A o (7)
Introduction to Time-Frequency Analysis BE 92052 2 0 0 A a (1) (2) (3) (6) (7)
Principles of Construction Management CE 61046 2 0 0 A o (1) ~ (6)
Probabilistic Concepts in Engineering Design CE 61047 2 0 0 A o (1) (3) (5) (6)
Advanced Topics in Civil Engineering I CE 61054 2 0 0 S a (1) ~ (6)
Advanced Topics in Civil Engineering II CE 61055 2 0 0 A a (1) ~ (6)
Advanced Technical Communication Skills I CE 61062 1 1 0 S a -
Advanced Technical Communication Skills II CE 61063 1 1 0 A a -
International Collaboration I CE 61071 0 1 0 S a -
International Collaboration II CE 61072 0 1 0 A a -
International Internship 1 CE 61077 0 1 0 S a -
International Internship 2 CE 61078 0 1 0 A a -
Civil and Environmental Engineering Off-Campus Project I , II CE 61511
61512
0 0 4 S
A
a -
Special Experiments of Civil and Environmental Engineering I, II, III, IV CE 61711
61712
61713
61714
1 S
A
S
A
a Required for M. degree
Seminar of Civil and Environmental Engineering I, II, III, IV CE 61701
61702
61703
61704
1 S
A
S
A
a Required for M. degree
Seminar of Civil and Environmental a Engineering V, VI, VII, VIII, IX , X CE 61851
61852
61853
61854
61855
61856
2 S
A
S
A
S
A
a Required for D. degree
Special Lecture on Civil and Environmental Engineering I -VI CE 61851
61852
61853
61854
61855
61856
1 or 2 S
A
S
A
S
A
a
  * CE: Dept. Civil Engineering
IDE: Dept. International Development Engineering
MEI: Dept. Mechanics and Environmental Informatics
BE: Dept. Built Environment

Descriptions of the subjects listed above are provided at those either for “Development and Environmental Engineering Course of Sustainable Engineering Program: IGP(A)” (refer to P.28) or “Earthquake Engineering Program: IGP(A)” (refer to P.236).

 

Department of International Development Engineering [JDS Program (Master) and International Graduate Program (Master/Doctor)]

1. Program Outline

The goal of the education in the department is to produce the engineers who can take the leadership in the sustainable development of the global society by utilizing the science and technology. The areas of their contributions include the industry, public works, information and communication technologies, and environment. Toward this goal, several unique components are integrated into the course: first, skills on project formulation and management are emphasized. In addition to the case method, the ongoing international development projects are used as the course materials for the analyses of the problems and their solutions. The skills provide the vision of the high level “problem solution” to the engineering students. Second, advanced knowledge in engineering fields is provided with the focus on the sustainable development. Third, internship and field work are provided as an elective course. Fourth, thesis writing provides an opportunity for the training to build the capacity as the engineer. The searching for solution for a specific development problem is emphasized in addition to technology itself. Therefore, a co-advisor from different engineering fields may be appointed on request.

2. Faculty

Professors:

OTSUKI, Nobuaki, D. Eng.

Construction Materials

HINODE, Hirofumi, D. Eng.

Inorganic Materials and Properties, Catalyst and Chemical, Process, Chemical Engineering in General

TAKADA Jun-ichi, D. Eng.

Wireless Communications, ICT and Development

KANDA, Manabu, D. Eng.

Regional Atmospheric Environment

NAKASAKI, Kiyohiko, D. Eng.

Environmental Bioengineering

YAMAGUCHI Shinobu, Ph. D.

Education and IT, International Development and Cooperation, Sustainable Development of World Cultural Heritage

Associate Professors:

ABE Naoya, Ph. D.

Environmental Information, Policy and Management, Applied Economics, International Cooperation

HANAOKA Shinya, D. Info. Sci.

Transport Planning, Logistics, Transport Project Management

YAMASHITA, Yukihiko, D. Eng.

Computer Science, Intelligent Informatics

TAKAGI, Hiroshi, D. Eng.

Disaster Prevention Engineering, Coastal Engineering

EGASHIRA, Ryuichi, D. Eng.

Separation Engineering, Separation Process, Separation Operation

TAKAHASHI, Kunio, D. Eng.

Mechanical Engineering, Material Science, Material Processing, Mechanics

PIPATPONGSA Thirapong, D. Eng.

Geotechnical Engineering, Rock Mechanics, Coal Mining

3. Guide to Study

To acquire the degrees, students in the Department of International Development Engineering must satisfy several requirements as follows.

[Master’s degree]

The student is required to study for two years and to get 30 credits or more to complete the Master course. One 2-credit course consists of fifteen 90-minutes lectures including examination. In addition to 30 credits, the student can take the Minor certificate by getting 8 credits provided in a single department. Supervisors advise students for their course works, considering the background of individual students.

[Doctoral degree]
The student is required to study typically for three years and to take the Seminar credit in each semester. In addition, the candidate must complete and submit a thesis for the degree, and pass the final examination and evaluation of his/her thesis. The Seminar Courses must be taken.

Course List of Department of International Development Engineering
++: Compulsory Courses for Master Students
+: Graduate Research Courses
#: Departmental Courses
*: Seminar Courses

Course Lecturers Credits Semester
S: Spring
A: Autumn
++International Development Projects - Case Method Takada/Yamaguchi 2 A
+Sustainable Development and Integrated Management Approach Takada/Yamaguchi 2 S
+Environmental Engineering in International Development Hinode/Sasaki/Kanda 2 A
+Principles of International Co-existence Hinode 2 S
+Introduction to Economics for Engineers Abe 2 S
+Project Evaluation for Sustainable Infrastructure Hanaoka 2 S
+Utilization of Resources and Wastes for Environment Otsuki/Nakasaki/Egashira 2 A
+Mathematics and Statistics for International Development Eng. Yamashita 2 A
+International Development Engineering Fieldwork A Department Chair 1 S
+International Development Engineering Fieldwork B Department Chair 1 A
#Advanced Geotechnical Engineering Pipatpongsa 2 A
#Regional Atmospheric Environment Kanda 1 A
#Advanced Concrete Technology Otsuki 2 A
#Coastal Disaster Mitigation Takagi 2 S
#Rural Telecommunications Takada, Aoyagi 2 A
#Welding and Joining Technology Takahashi 2 S
#Perspective Understanding of Various Kinds of Material Takahashi 2 A
#Chemical Process for Development Egashira 1 A
*Seminar in International Development Engineering II Supervisor 2 (M1) A
*Seminar in International Development Engineering I Supervisor 2 (M1) S
*Seminar in International Development Engineering IV Supervisor 2 (M2) A
*Seminar in International Development Engineering III Supervisor 2 (M2) S
*Seminar in International Development Engineering VI Supervisor 2 (D1) A
*Seminar in International Development Engineering V Supervisor 2 (D1) S
*Seminar in International Development Engineering VIII Supervisor 2 (D2) A
*Seminar in International Development Engineering VII Supervisor 2 (D2) S
*Seminar in International Development Engineering X Supervisor 2 (D3) A
*Seminar in International Development Engineering IX Supervisor 2 (D3) S

 

4. Course Description

70037
International Development Projects - Case Method

Autumn Semester (0-2-0)
Prof. Jun-ichi Takada and Prof. Shinobu Yamaguchi
[Aims]
This course aims at introducing practical approaches to development projects. Traditional teaching in the classroom based on lectures and exams, often do not address the need for practical, problem-solving skills. The important and crucial ability for effective project management is the ability to think, analyze, discuss, and develop solutions to problems as professionals may encounter in the field. The case method is an effective approach to strengthening these skills.
[Outline]

  1. Introduction to the course
  2. Lecture/Discussion: Development & Human Development Indicator
  3. Case Method 1: “Ideal and Reality of Project for the Minority People by the Minority People”
  4. Lecture/Discussion: Rural Development and Participation Approach
  5. Case Method 2: “International Collaboration in Developing Countries”
  6. Lecture/Discussion: Rural Development Participation
  7. Paper Writing
  8. Case Method 3: “Academic Cooperation Program with Thailand”
  9. Lecture/Discussion: Risk Management of Technological Change
  10. Case Method 4: “Polio Immunizaion in Lang Tang Province”
  11. Lecture/Discussion: Community Development
  12. Case Method 5: “Run before You Get Shot down?”
  13. Group Presentation/Paper Writing

70019
Sustainable Development and Integrated Management Approach

Spring Semester (1-1-0)
Prof. Jun-ichi Takada, and Prof. Shinobu Yamaguchi
[Aims]
This course aims at introducing various approaches to sustainable development. The first half of the course looks at major theories of international development and how they are applied in practical situations. The latter part will take a close look at on-going development projects in selected countries with implication of role of engineering (and engineers). The students are expected to participate in discussion and analyze the project from engineering point of view within the context of “Sustainable Development” Then the course will be followed by the field trip to the development project site, possibly for conducting feasibility studies. The students are responsible to prepare, to contribute, and to express own opinions and ideas. This means, the students’ participation in classroom makes a difference.
[Outline]

  1. Introduction to the course
  2. Lecture/Discussion: Development vs. Sustainable Development
  3. Lecture/Discussion: Agenda 21, Capacity 21
  4. Lecture/Discussion: Feasibility Study as a Tool of Sustainable development
  5. Group Presentation: Sustainable Development
  6. Group Presentation: Sustainable Development
  7. Introduction to development project (1):
    “UN Human Security Funds (UNHSF) project “Rehabilitation of Boarding Schools and Provision of Refresher Training Course for Headmasters and Teachers in the Dzud affected Gobi Desert Provinces in Mongolia”
  8. In-class Group Exercises
  9. Introduction to development project (2):
    “Application of technology to development of the World Heritage site in Lao PDR”
  10. In-class Group Exercises
  11. Group Presentation: Mongolian Team
  12. Group Presentation: Lao PDR Team

70002
Environmental Engineering in International Development

Autumn Semester (2-0-0) (Odd Years Only)
Prof. Hirofumi Hinode, Prof. Masakazu Sasaki and Prof. Manabu Kanda
[Aims]
This lecture outlines international environmental problems from the engineering side.
[Outline]

  1. Introduction
  2. Population Growth
  3. Air Pollution
    1) Aid Rain
    2) Ozone Depletion
    3) Global Warming
  4. Marine Pest
  5. Deforestation and Desertification
  6. Energy Problem
    1) Fossil Fuel Energy and New Energy
    2) Energy Saving
  7. Waste Management
    1) Recycling
    2) Eco-business

70005
Principles of International Co-existence

Spring Semester (2-0-0) (Odd Years Only)
Prof. Hirofumi Hinode
[Aims]
Engineers sometimes encounter difficult ethical problems In order to co-exist with others, we should know about ourselves as well as others. In this lecture, we look into the relationship between others and us in the different levels of individual, races, corporations and nations.
[Outline]

  1. Introduction
  2. Relationship between Korea and Japan
  3. Relationship between China and Japan
  4. Humanitarian mind
  5. Religion in the U.S.
  6. Religion in the Mideast
  7. International enterprise
  8. Examples of establishing corporation in foreign countries (1)
  9. Examples of establishing corporation in foreign countries (2)
  10. Examples of establishing corporation in foreign countries (3)
  11. Collaboration at the international field
  12. Discussion
  13. Summary

70029
Introduction to Economics for Engineers

Spring Semester (2-0-0)
Assoc. Prof. Naoya Abe
[Aims]
This course aims to provide basic concepts and theories of microeconomics (and limited parts of macroeconomics) to potential engineering graduate students who have no economics background for their easy (and not complete) access to current economic topics and the fields of applied economics such as environmental economics and development economics.
[Outline]

  1. Introduction
  2. Consumer theory: preferences, indifference curves and utility function
  3. Consumer theory: types of goods and price indices
  4. Consumer theory: elasticity, price& income effects
  5. Consumer theory: demand curves and measurement of welfare change
  6. Producer theory: production function, short-run and long-run, and return-to-scale
  7. Producer theory: profit function, cost curves, and supply function
  8. Producer theory: monopoly and oligopoly
  9. Market mechanism: social surplus, Pareto efficiency and pure exchange
  10. Externalities and countermeasures
  11. Measurement of national income and other measurements for nation development
  12. Input-Output Analysis of an economy
  13. Inflation and foreign exchange rates
  14. Foreign aid and foreign direct investment

70030
Project Evaluation for Sustainable Infrastructure

Spring Semester (2-0-0)
Assoc. Prof. Shinya Hanaoka
[Aims]
This course aims to provide the methods necessary to undertake project evaluation and cost benefit analysis for sustainable infrastructure. The methods comprise of microeconomics background, cost benefit analysis, valuing market and non-market goods, and other technical issues. Case studies of various infrastructures are also provided.
[Outline]

  1. Introduction to Project Evaluation
  2. Basics of Microeconomic Theory
  3. Foundations of Cost Benefit Analysis
  4. Valuing Benefits and Costs in Primary Markets
  5. Valuing Benefits and Costs in Secondary Markets
  6. Discounting Benefit and Costs
  7. Existence Value
  8. Valuing Market Goods
  9. Valuing Non-Market Goods: Revealed Preference
  10. Valuing Non-Market Goods: Stated Preference
  11. Related Methods and Accuracy
  12. Case Studies: Transport Infrastructures
  13. Case Studies: Other Infrastructures

70041
Utilization of Resources and Wastes for Environment

Autumn Semester (2-0-0)
Prof. Nobuaki Otsuki, Prof. Kiyohiko Nakasaki and Assoc. Prof. Ryuichi Egashira
[Aims]
In order to achieve “sustainability” in our society, we have maximized resources productivity (product generated per unit resources) in industrial activities and minimized material/energy load (wastes) to the environment. In addition, wastes have been reused and recycled properly, even if wastes are generated. This lecture provides several examples of such industrial processes and technologies as above which effectually utilize resources and wastes.
[Outline]

  1. Introduction and fundamental information about waste
  2. Activities in construction industries
  3. Activities in cement and concrete field (1)
  4. Activities in cement and concrete field (2)
  5. Bio-refinery (1)
  6. Bio-refinery (2)
  7. Solid waste treatment (1)
  8. Solid waste treatment (2)
  9. Cascade biomass use
  10. Petroleum refinery (1)
  11. Petroleum refinery (2)
  12. Petroleum refinery (3)
  13. Water treatment
  14. Summary

70042
Mathematics and Statistics for International Development Engineering

Autumn Semester (2-0-0)
Assoc. Prof. Yukihiko Yamashita
[Aims]
This course aims at introducing basic mathematics and statistics used in international development engineering in succession to those of undergraduate study. For mathematics, advanced liner algebra and optimization techniques are lectured. For statistics, characterizations of normal distribution, test and estimation are lectured.
[Outline]

  1. Introduction and Eigenvalue problem
  2. Singular value decomposition
  3. Generalized inverses of matrices (Moore-Penrose generalized inverse)
  4. Octave (Program for linear algebra calculation)
  5. Maximum gradient method
  6. Conjugate gradient method
  7. Quasi-Newton’s method
  8. Conditional optimization
  9. Support vector machine
  10. Probability
  11. Normal distribution
  12. Estimation and test
  13. Cramer-Rao lower bound
  14. Statistical learning theory

70006/70018
International Development Engineering Field Work A and B

A : Spring Semester (0-0-1) / B : Autumn Semester (0-0-1)
Chair, Department of International Development Engineering
[Aims]
Students shall plan and practice the activities related to the international development engineering. Through the experience of these activities, the students can learn the connection between the course works and the real development.
[Outline]

  1. Approval of the working plan by supervisor and department head
  2. Activities (more than one week)
  3. Submission of the report to supervisor and department head
  4. Oral presentation of the report
(Examples of activities)

70008
Advanced Geotechnical Engineering

Autumn Semester (2-0-0)
Assoc. Prof. Thirapong Pipatpongsa
[Aims and Scope]
Theory of plasticity is used to describe mechanical behaviors of granular materials in many engineering and industrial applications. Sand, agricultural grains and chemical particles are granule in nature. Therefore, inelastic responses of granular media are important in construction, storage and process. This course provides the advanced subject in Geomechanics and Powder mechanics to understand load transfer mechanisms and predict stress distributions. Analytical methods based on a framework of continuum mechanics are given with applications to retaining wall, slope, dune, silo and hopper.
[Outline]

  1. Introduction
  2. Stress and notation
  3. Mohr-Coulomb yield criterion
  4. Rotation of stress components
  5. Equilibrium conditions
  6. Soil arching
  7. Stress distribution in granular media stored in silo
  8. Arch action in silo
  9. Stress distribution in granular media stored in hopper
  10. Arch action in hopper
  11. Stress distribution in granular media retained by wall
  12. Arch action along retaining wall
  13. Active arch action in sand dune
  14. Passive arch action in undercut slope
  15. Review and practice

[Evaluation]
Apart from the final examination, students are evaluated regularly through a series of homework assignments.
[Text] Teaching materials are distributed.
[Prerequisites] None

70009
Regional Atmospheric Environment

Autumn Semester (1-0-0)
Prof. Manabu Kanda
[Aims and Scope]
The purpose of this lecture is twofold. One is to understand the fundamental knowledge and theoretical concepts of Boundary-Layer Meteorology (BLM). The other is to review the recent applications of BLM to physical urban planning and civil engineering.
[Outline]

  1. Basic theory of Atmospheric Boundary Layer
    1.1 Definition of Atmospheric Boundary Layer
    1.2 Diurnal Change of Atmospheric Boundary Layer
    1.3 Constant Flux Layer
    1.4 Turbulent Transfer Process
    1.5 Radiative Transfer
    1.6 Energy Balance of Ground Surface
  2. Application to Physical Urban Planning
    2.1 Mesoscale Circulation
    2.2 Heat Island Phenomena
    2.3 Micrometeorology of Forest Canopy
    2.4 Micrometeorology of Urban Canopy
    2.5 Energy Balance of Human-body
    2.6 Numerical Prediction of Urban Climate

70043
Advanced Concrete Technology

Autumn Semester (2-0-0)
Prof. Nobuaki Otsuki
[Aims]
Lectures on the state of the art of concrete technology will be presented, including some topics related to developing countries.
[Outline]

  1. Introduction
  2. Cementitious materials - past, present and future
  3. Structure of hardened concrete
  4. Strength
  5. Cements (1)
  6. Cements (2)
  7. Admixtures (1)
  8. Admixtures (2)
  9. Aggregates
  10. Light weight Aggregates
  11. Flowable concrete, including anti-washout concrete
  12. Pre-stressed concrete
  13. Durability
  14. Maintenance

70044
Coastal Disaster Mitigation

Spring Semester (2-0-0)
Assoc. Prof. Hiroshi Takagi
[Aims]
Coastal disasters due to such as tsunamis, storm surges, and high waves lead to considerable loss of human life and property. The threat from coastal disasters may exacerbate because of the impact of climate change and economic development that accelerate rapid population increase in coastal areas. This course comprises lectures on basic theories, engineering, and management for mitigating such risks caused by coastal disasters.
[Outline]

  1. Introduction
  2. Basic of Water Wave Theory
  3. Theory of Astronomical Tides
  4. Earthquakes and Tsunamis
  5. Tropical Cyclones and Storm Surges
  6. High Waves
  7. Coastal Erosion
  8. Earth‘s Climate System and Climate Change
  9. Structures for Coastal Protection
  10. Coastal Management and Ecosystem
  11. Case studies
  12. Oral Presentation

70020
Rural Telecommunications

Autumn Semester (2-0-0)
Prof. Jun-ichi Takada and Prof. Takahiro Aoyagi
[Aims]
Information and communication technologies enable the transfer of information instantly between any points in the world. Moreover, it has become common understanding that the ICT infrastructure is indispensable for the development of the industry and economy. However, the reality is very severe in the developing world, especially in rural and remote areas. Imbalance of the distribution of ICT infrastructure in the world has been intolerable for the long time. This lecture overviews the history, technologies and applications of ICT infrastructure in rural and remote areas, both in the social and the technical aspects.
[Outline]

  1. Introduction
  2. Historical Aspects of Telecommunications 1 - Missing Link -
  3. Historical Aspects of Telecommunications 2 - 20 years after Missing Link -
  4. Communication technology
  5. Information Technology and Internetworking
  6. Free and Open Source Software
  7. Access Infrastructure 1 - Cellular Systems -
  8. Access Infrastructure 2 - Satellite Systems -
  9. Access Infrastructure 3 - Wireless Computer Network -
  10. Backbone Infrastructure - Optical link, Wireless backhaul, Satellite -
  11. E-learning 1 - Overview and Theory
  12. E-learning 2 - Instructional Design
  13. E-learning 3 - Information and Communication Technology
  14. E-learning 4 - Law and Economy
  15. E-learning 5 - Case study
  16. Case Presentation (in place of final exam)

70031
Welding and Joining Technology

Spring Semester (2-0-0)
Assoc. Prof. Kunio Takahashi
[Aims]
Welding and joining processes are the key technology in the industry. The processes will be reviewed including recent advanced processes. Phenomena and mechanisms of the processes will be explained based on material science, mechanics, and electrical engineering.
[Outline]

  1. History of welding and joining processes
  2. Required condition for welding and joining processes
  3. Method and its classification
  4. Arc welding phenomena
  5. Arc welding power sources and equipments
  6. Cutting
  7. Materials and their behavior in welding and joining
  8. Metallurgy of steel and heat treatment
  9. Heat input and cooling rate
  10. Weld defects
  11. Mechanical properties of weld joints
  12. Residual stress and weld deformation
  13. Weld design

70032
Perspective Understanding of Various Kinds of Material

Autumn Semester (2-0-0)
Assoc. Prof. Kunio Takahashi
[Aims]
Material properties such as latent heat, electric conductance, diffusion coefficient, elasticity, strength, etc... will be explained for variety of materials such as metals, ceramics, semiconductors, concretes, composites, etc... from the universal view point using bases of quantum mechanics, statistical mechanics, thermo-dynamics, etc...
[Outline]

  1. Physics for an universal feature of materials
  2. Electric properties of materials
  3. Mechanical properties of materials
  4. Thermal properties of materials
  5. Chemical properties of materials
  6. Metals
  7. Insulators
  8. Semi-conductors
  9. Ceramics
  10. Carbon steels
  11. Concrete

70014
Chemical Process for Development

Autumn Semester (1-0-0)
Assoc. Prof. Ryuichi Egashira
[Aims]
The viable applications of chemical unit process or operation for development are introduced through relatively new examples related to waste, water treatments, and energy.
[Outline]

  1. Introduction
  2. View of Chemical Process for Development
  3. Waste Treatment - Process for Management of Solid Waste in Developing Regions
  4. Water Treatment - Decolorization of Wastewater from Sugarcane Factory
  5. Water Treatment - Removal and Recovery of Metals, Organic Compounds, etc. from Water Using Liquid Phase Equilibrium
  6. Energy - GTL (gas-to-liquid): Chemical Liquefaction of Natural Gas
  7. Energy - Biofuel Process

70702
Seminar in International Development Engineering II

Autumn Semester (0-2-0) [Master Course First Year]
Supervisor
[Aims and Scope]
Each student is instructed to participate in presentations and workshops in the Department, or seminars, special lectures and conferences out of the Department in order to acquire the basic knowledge, experimental techniques, and analytical methods in her/his own research area, and to produce a summary report of participated events.

70701
Seminar in International Development Engineering I

Spring Semester (0-2-0) [Master Course First Year]
Supervisor
[Aims and Scope]
Each student is instructed to participate in presentations and workshops in the Department, or seminars, special lectures and conferences out of our the Department in order to grasp research trend and state of the art in her/his own research area, and produce a summary report of participated events. In addition, she/he should continue acquiring the basic knowledge and methodologies following Seminar in International Development Engineering II.

70704
Seminar in International Development Engineering IV

Autumn Semester (0-2-0) [Master Course Second Year]
Supervisor
[Aims and Scope]
Each student is instructed to conduct an interim poster presentation in the Department in order to understand the methodologies to solve problems in her/his own research, and to improve presentation and communications skills. In addition, she/he should continue acquiring related knowledge and methodologies following Seminars in International Development Engineering I and II.

70703
Seminar in International Development Engineering III

Spring Semester (0-2-0) [Master Course Second Year]
Supervisor
[Aims and Scope]
Each student is instructed to complete the master thesis with understanding of the significance and academic/ social contributions of her/his own research and by summarizing backgrounds and issues of related research areas from a broad perspective. She/he should utilize the knowledge and methodologies acquired through Seminars in International Development Engineering I, II and IV.

70801-70806
Seminar in International Development Engineering V-X

Spring Semester (V/VII/IX), Autumn Semester (VI/VIII/X) (0-2-0) [Doctoral Course]
Supervisor
[Aims and Scope]
Advanced and high level researches including colloquium, practice and experiment are required.

 

Department of Nuclear Engineering

1. Department Outline

Growing attention has been placed on nuclear energy as an ultimate measure for reduction of fossil fuel consumption and CO2 emission. Under the circumstances of global warming and the price hike of oil, gas and coal, a number of countries have been considering the implementation of nuclear power plants. The key factor of the nuclear energy development is the development of human resources. Our original course of international nuclear engineering has been established in 1993. Since then, a number of students have joined us from many countries and graduated from our course. They are actively contributing to the development of industries and technologies in Japan or in their own countries. This graduate course provides with core curriculum for nuclear reactor engineering and fuel cycle technologies and also covers extended nuclear energy, such as beam, accelerator, plasma sciences, nuclear fusion, energy and environment, and social relations.

2. Graduation Requirements

[Master’s degree]
For a Master’s degree, a student must take credits and satisfy the other requirements as follows:

(1) Total credits required for graduation

(2) Requirements in credits

(3) Thesis

A student must take a midterm examination and pass the final examination for a master thesis research.

*1: Seminar in each term must be taken. 8 credits are the requirement for the normal study period of master study, i.e., two years, or four semesters. If the student completes the master study in less than 4 semesters, the required credit is reduced according to the number of spent semesters, e.g., 4 credits for two semesters (minimum), and 6 credits for 3 semesters.

*2: Graduate

[Doctoral degree]
For a Doctoral degree, a doctoral candidate must take credits and satisfy the other requirements as follows:

(1) Credit from Seminar Courses in each term
(2) 6 credits or more from Departmental Courses in principle
(3) The candidate must take a midterm examination in English for a Doctoral thesis research.
(4) The candidate must make presentation of his/her doctoral thesis.
(5) The candidate must pass the final examination for his/her Doctoral thesis.
(6) The candidate who is enrolled in the doctor course in April in 2013 or later must take an external English examination and get the score higher than that corresponding to TOEIC 730.

The candidate who satisfies the above requirements is awarded a Doctoral degree.

 

3.Course List of The Department of Chemical Engineering

Course Department
offering
course*
Course
Number
Credit Semester
S: Spring
A: Autumn
Opening year
a: Annually
e: Even
o: Odd
Category*
Remarks
Seminar in Nuclear Engineering I, III NE 71701,
70703
0 1 0 S a (1), Required in Master’s Course
Seminar in Nuclear Engineering II, IV NE 71702,
70704
0 1 0 A a (1), Required in Master’s Course
Seminar in Nuclear Engineering V, VII, IX NE 71801,
71803,
71805
0 2 0 S a (1), Required in Doctoral Course
Seminar in Nuclear Engineering VI, VIII, X NE 71802,
71804
71806
0 2 0 A a (1), Required in Doctoral Course
International Internship in Nuclear Engineering I - IV NE 71101-71104 0 2 0 S a (2)
International Internship in Nuclear Engineering V - IIX NE 71105 - 71108 0 2 0 A a (2)
Internship in Nuclear Engineering I NE 71118 0 1 0 S a (2)
Internship in Nuclear Engineering II NE 71119 0 2 0 S a (2)
Internship in Nuclear Engineering III NE 71120 0 1 0 A a (2)
Internship in Nuclear Engineering IV NE 71121 0 2 0 A a (2)
Nuclear Reactor Physics NE 71090 2 1 0 S o (3), B
Nuclear Chemistry and Radiation Science NE 71043 2 0 0 A o (3), B
Reactor Thermal Hydrodynamics NE 71044 2 0 0 A o (3), A
Nuclear Energy Systems NE 71045 2 0 0 A e (3), B
Nuclear Reactor Design and Engineering** NE 71002 2 0 0 A e (3), A
Nuclear Reactor Safety NE 71046 2 0 0 S o (3), B
Energy Systems and Environment NE 71049 2 0 0 S e (3), B/I
Basic Nuclear Physics NE 71062 2 0 0 A o (3), B
Accelerators in Applied Research and Technology NE 71063 2 0 0 S o (3), A
Plasma Science NE 71064 2 0 0 A o (3), I
Nuclear Materials Science NE 71052 2 0 0 A e (3), A
Reactor Chemistry and Chemical Engineering NE 71083 2 0 0 S e (3), A
Biological Effects and Medical Application of Radiation NE 71128 2 0 0 A e (3), I
Radiation Physics NE 71137 2 0 0 A e (3), B
Experiments for Reactor Physics NE 71700 0 0 2 S a (3), B
Introductory Experiments in Nuclear Engineering NE 71092 1 0 1 S a (3), B
Nuclear Engineering Off-Campus Project I NE 71511 0 4 0 S a (3), B
Nuclear Engineering Off-Campus Project II NE 71512 0 4 0 A a (3), B
* B: Basic, A: Applied, I: Interdisciplinary,
(1): Seminar Courses, (2): Graduate Research Courses,
(3): Departmental Courses; ** Not open in 2012
NE: Dept. Nuclear Engineering

 

Department of Mechanical and Environmental Informatics

1. Program Outline

Department of Mechanical and Environmental Informatics offers broad range of advanced courses as well as fundamental subjects in the field of mechanical informatics and environmental informatics. The courses are categorized into three groups: fundamental courses, which cover basic topics necessary for understanding physical phenomenon and information processing; advanced courses, which provide the state-of-the-art results and techniques in the field; and pragmatical courses, in which students acquire practical skills of mechanical and environmental informatics. Along with master’s and doctoral research activities, students are expected to enhance the abilities of problem identification and resolution.

2. Course Outlines and Faculty

In this program, students are expected to acquire the following abilities on the basis of the outline described above.

1) Basic and cutting-edge expertise on various targeted areas in the field of mechanical and environmental informatics.
2) Technique to computerize and analyze environmental systems.
3) Maneuvering ability to apply the knowledge of mechanical and environmental informatics.
4) Problem setting and solving ability in the field of mechanical and environmental informatics.
5) Communication and presentation skills on the basis of logical thinking.
6) Adaptivity to rapidly progressing information society.

3. Guide to Study in the Department of Mechanical and Environmental Informatics

In this program, you will study on the basis of the following contents, in order to obtain knowledge mentioned above.

A) Basic and cutting-edge expertise
Study necessary basics for understanding of phenomena and processing of information, i.e., modeling, analysis, sensing, monitoring, design, planning, and information basic technology. Also study on cutting-edge knowledge on mechanical and environmental informatics such as production system, biological systems, robotics, architecture, urbanization, and environment).

B) Basic laboratory course
As basic education for obtaining hands-on skills of mechanical and environmental informatics, study on system design, computer programming skill, integrated technique and philosophy to computerize and analyze environmental systems.

C) Problem Based Learning (PBL) hands-on subject
Through PBL hands-on education by the courses of group laboratory, individual practice and internship, apply basics and cutting-edge knowledge of mechanical and environmental informatics to real problems. In addition, obtain communication and presentation skills, which are necessary in the process of problem-finding/-setting/-solving.

D) Master’s thesis research and research ability
Through the documentation of research process and the discussion with many professionals including a supervisor, obtain the basic research ability. At the same time, firmly obtain problem-setting and -solving ability through master’s thesis research.

E) Culture and international communication
Strengthen humanity and obtain adaptivity to different fields, through cultural and language subjects in addition to information ethics and project management.

4. Graduation Requirements

Department of Mechanical and Environmental Informatics

[Master’s degree]

[Doctoral degree]
For a Doctoral degree a doctoral candidate must satisfy the following requirements:

(1) Seminar Course in each term and Research Process must be taken.
(2) Activities outside school such as presentation at international conferences and journal publication.
(3) Complete a thesis for the degree and pass the final examination.

The candidate who satisfies the above requirements and passes the final examination is awarded the doctoral degree. The minimum period of study is three years in total, which include both the master’s and doctoral program for the both degrees. Note that the above requirements are minimal and some additional requirements may be conditioned depending on the special course. All students are strongly advised to consult with their own supervisors about the study plan.

4. Tables of Courses

Some of courses can be delivered in English by requests from the students. These courses are counted as the credits of the above degree requirements for master’s and doctoral degrees. Likewise, lectures given in Japanese are counted as the credits of the requirements, too. If there are any questions or anything that is not clear about the curriculum, please consult academic advisor(s) and lecturer(s) for details in advance since more detailed information may be described in the Japanese version of the course guide.

 

Research Courses (Œ¤‹†‰È–ÚŒQ)

Course
Number
Remarks*
(See footnotes)
Course Department
Offering
Course**
Credit Chair Semester
S: Spring
A: Autumn
Opening year
a: Annually
e: Even
o: Odd
77701 R, MP Seminar in Mechanical and Environmental Informatics I MEI 0-1-0 Academic Adviser S a
77702 R, MP Seminar in Mechanical and Environmental Informatics II MEI 0-1-0 Academic Adviser A a
77703 R, MP Seminar in Mechanical and Environmental Informatics III MEI 0-1-0 Academic Adviser S a
77704 R, MP Seminar in Mechanical and Environmental Informatics IV MEI 0-1-0 Academic Adviser A a
77801 R, DP Seminar in Mechanical and Environmental Informatics V MEI 0-2-0 Academic Adviser S a
77802 R, DP Seminar in Mechanical and Environmental Informatics VI MEI 0-2-0 Academic Adviser A a
77803 R, DP Seminar in Mechanical and Environmental Informatics VII MEI 0-2-0 Academic Adviser S a
77804 R, DP Seminar in Mechanical and Environmental Informatics VIII MEI 0-2-0 Academic Adviser A a
77805 R, DP Seminar in Mechanical and Environmental Informatics IX MEI 0-2-0 Academic Adviser S a
77806 R, DP Seminar in Mechanical and Environmental Informatics X MEI 0-2-0 Academic Adviser A a
77713 R, MP Mechanical and Environmental Informatics Research Process I MEI 0-1-1 Academic Adviser S a
77714 R, MP Mechanical and Environmental Informatics Research Process II MEI 0-1-1 Academic Adviser A a
77715 R, MP Mechanical and Environmental Informatics Research Process III MEI 0-1-1 Academic Adviser S a
77716 R, MP Mechanical and Environmental Informatics Research Process IV MEI 0-1-1 Academic Adviser A a
77717 R, DP Mechanical and Environmental Informatics Research Process V MEI 0-1-1 Academic Adviser S a
77718 R, DP Mechanical and Environmental Informatics Research Process VI MEI 0-1-1 Academic Adviser A a
77719 R, DP Mechanical and Environmental Informatics Research Process VII MEI 0-1-1 Academic Adviser S a
77720 R, DP Mechanical and Environmental Informatics Research Process VIII MEI 0-1-1 Academic Adviser A a
77721 R, DP Mechanical and Environmental Informatics Research Process IX MEI 0-1-1 Academic Adviser S a
77722 R, DP Mechanical and Environmental Informatics Research Process X MEI 0-1-1 Academic Adviser A a

*R: Required, MP: Master’s Program, DP: Doctoral Program
**MEI: Dept. Mechanical and Environmental Informatics

Courses by Departments (ê–å‰È–ÚŒQ)

Course
Number
Remarks1)
(See footnotes)
Course Department
Offering
Course2)
Credit Chair Semester
S: Spring
A: Autumn
Opening year
a: Annually
e: Even
o: Odd
77010   Metrology and Information Processing MEI(MG) 2-0-0 K. Sasajima S e
40046   Optimal Control OD (3mech) 1-0-0 M. Fujita S a
40080   Computer Vision OD (3mech) 2-0-0 M. Okutomi S a
77031   Advanced Course of Regional Planning MEI(EG) 2-0-0 A. Soshiroda S a
77065   GPU Computing MEI(EG) 1-1-0 T. Aoki S a
77019 Analysis of Vibration and Elastic Wave MEI(EG) 2-0-0 S. Hirose S o: English
e: Japanese
77057 Econometric Analysis MEI(EG) 2-0-0 R. Tanaka S a
75104   Basic Application of Computing and Mathematical Science -Algorithm- OD (MCS) 2-0-0 O. Watanabe S a
75102   Advanced Course on Internet Infrastructure ISE 2-0-0 M. Ota S a
76027 Speech Information Processing OD (CS) 2-0-0 Undecided S o
77037 Mathematical Processing of Measurement Information MEI(MG) 2-0-0 S. Hara A e: English
o: Japanese
77004   Advanced Course of Dynamical Systems MEI(MG) 2-0-0 K. Kimura A o
77006 Advanced Course of Inverse Problems MEI(MG) 1-0-0 K. Amaya A a
77054 Linear Systems and Control MEI(MG) 1-0-0 T. Hayakawaa A a
77055 Nonlinear and Adaptive Control MEI(MG) 1-0-0 T. Hayakawa A a
40067 Advanced Course of Mechanical Vibration OD (3mech) 2-0-0 H.Takahara
et al.
A a
77066 Advanced course in nonlinear dynamics MEI(MG) 2-0-0 H. Nakao S e
(from 2014)
68003   Advanced Theories and Practice of Urban Land Use Planning OD (SE) 2-0-0 N. Nakai
et al.
A a
77016 Theory & Applications of Urban Spatial Data MEI(EG) 2-0-0 T. Osaragi A o: English
e: Japanese
75015   Computational Complexity Theory OD (MCS) 2-0-0 O. Watanabe A a
75001   Mathematical Models and Computer Science OD (MCS) 2-0-0 K. Sasajima
K. Amaya
A a
75003   Grid Computing OD (MCS) 2-0-0 S. Matsuoka A a
75103   Advanced Course on Internet Application ISE 2-0-0 M. Ota A a
77044   Advanced Course of Aqua Biomechanisms MEI(MG) 1-0-0 M. Nakashima S a
77056   Robot Audition and Sound Processing MEI(MG) 2-0-0 K. Nakadai S a
77060 Introduction to Neural Engineering MEI(MG) 2-0-0 T. Yagi S e
77053 Introduction to Biomedical Instrumentation MEI(MG) 2-0-0 T. Yagi S o
(Offered in summer 2013)
77059 Control Theory for Robot Intelligence MEI(MG) 2-0-0 J. Imura S a
77062 Advanced Course of Bio-Robotics MEI(MG) 1-0-0 M. Nakashima S a
40035   Intelligent and Integrated Manufacturing OD (3mech) 2-0-0 Y. Saito
T. Tanaka
S a
40117 Robot Creation OD (3mech) 2-0-0 S. Hirose
F. Fukushima
S a
40112   Kinematic Synthesis of Mechanisms OD (3mech) 2-0-0 Y. Takeda S a
77026 Air Quality Engineering MEI(EG) 2-0-0 S. Fujii
N. Kagi
S e: English
(from2014)
o: Japanese
77020 Intellectual Infrastructure Systems MEI(EG) 2-0-0 T. Mikami S o: English
e: Japanese
77047 Regiona1 Information Analysis MEI(EG) 2-0-0 Y. Higuchi S a
77013   Conservation and Restoration of Ecological Environmental Systems MEI(EG) 2-0-0 K. Nadaoka S o
61014 Advanced Mathematical Methodologies for Infrastructure and Transportation Planning OD (CE) 2-0-0 D. Fukuda S o: English
e: Japanese
77063 Global Water Cycle and Terrestrial Environment MEI(EG) 2-0-0 S. Kanae S a
77501   Special Lecture on Mechano-Informatics A MEI 1-0-0 Undecided S a
77052   Special Lecture on Mechano-Informatics B MEI 1-0-0 Undecided S a
77043   Relationship and Management of CAD/CAM Data System MEI(MG) 2-0-0 K. Sasajima
Y. Nagasaka
A a
40118   Biomechanical systems OD (3mech) 1-0-0 N. Ino A e
70009 Regional Atmospheric Environment OD (IDE) 2-0-0 M. Kanda A a
77048 Advanced Course on Coastal Environments MEI(EG) 2-0-0 K. Nadaoka A e
77503   Special Lecture on Mechano-Informatics C MEI 1-0-0 Undecided A a
77040   Object-Oriented Design MEI(MG) 1-1-0 K. Amaya
M. Saeki
S. Hara
T. Yagi
S a
77058   Java Programming MEI(MG) 0-1-0 E. Onodera
et al.
S a
77051   Environmental Monitoring and Data Processing 1 MEI 2-0-0 K. Kimura
et al.
S a
77045   Numerical Simulation of Environments 1 MEI(EG) 2-0-0 Undecided S a
77663 , Mechanical and Environmental Informatics Project II MEI 0-1-1 Faculty Members S a
77664 Mechanical and Environmental Informatics International Off-Campus Project A MEI 0-1-2 Chair S a
76039   Internship on Information Science & Engineering 1A ISE 0-0-1 Chair S a
73040   Internship on Information Science & Engineering 2A ISE 0-0-2 Chair S a
77052   Environmental Monitoring and Data Processing 2 MEI 2-0-0 S. Fujii
T. Mikami
et al.
A a
77046   Numerical Simulation of Environments 2 MEI(EG) 2-0-0 S. Kanae
et al.
A a
77722 , Mechanical and Environmental Informatics Project I MEI 0-1-2 Faculty Members A a
77665 Mechanical and Environmental Informatics International Off-Campus Project B MEI 0-1-2 Chair A a
76041   Internship on Information Science & Engineering 1B ISE 0-0-1 Chair A a
76042   Internship on Information Science & Engineering 2B ISE 0-0-2 Chair A a
77067 Advanced Course of Digital Human Modeling MEI(MG) 2-0-0 Y. Miyazaki A o

1)
F International Graduate Program, F At least five credits are required in total
2)
ISE: Graduate School of Information Science and Engineering
MEI: Dept. Mechanical and Environmental Informatics
MG: Mechano-Informatics Group, EG: Environmental Informatics Group
OD: Other Departments
3mech: Three Deprtments of Mechanical Engineering
MCS: Dept. Mathematical and Computing Science, CS: Dept. Computer Science,
CE: Dept. Civil Engineering, SE: Dept. Social Engineering, IDE: Dept. International Development Engineering

Liberal Arts and General Education(G) (‘åŠw‰@‹³—{E‹¤’ʉȖڌQ)

  Remarks
International Communication (G)i‘åŠw‰@‘ۺЭƹ°¼®Ý‰È–Új
Interdisciplinary Courses (G)i‘åŠw‰@‘‡‰È–Új
Interdepartmental Courses (G)i‘åŠw‰@Lˆæ‰È–Új
Arts and Humanities (G)i‘åŠw‰@•¶–¾‰È–Új
Career Development Courses (G)i‘åŠw‰@ƒLƒƒƒŠƒA‰È–Új
Courses for Developing Creativity (G)i‘åŠw‰@‘n‘¢«ˆç¬‰È–Új
Courses for International Students (G)i‘åŠw‰@—¯Šw¶‰È–Új
Refer to P.337 and P.340

 

5. Syllabus of Selected Courses offered in English

77722
Mechanical and Environmental Informatics Project I

All faculty members of the department
Autumn Semester
Credits: 0-1-2
In this class, all students are expected to do the followings; 1) through the investigation, analysis and proposal about various projects existing in the real world, 2) development of the ability to integrate and utilize the information and technologies that straggle in various fields, 3) building of the ability to make an accurate decision based on environmental informatics, 4) analysis, design and implementation of a software system using Java language applying object oriented programming through the problem-based-learning style group work to develop creative power.

77663
Mechanical and Environmental Informatics Project II

All faculty members of the department
Spring Semester
Credits: 0-1-1
Although this class consists of two courses, IPG students must select "software development course". Each student is expected to do analysis, design and implementation of a software system for any topic related to his/her master thesis individually, using object-oriented language.

77054
Linear Systems and Control

Assoc. Prof. Tomohisa Hayakawa
Autumn Semester
Credits: 1-0-0
Introduction to linear systems theory and feedback control. This course provides a foundation of modern control theory and also covers several advanced topics in linear dynamical systems.

77006
Advanced Course of Inverse Problems

Prof. Kenji Amaya
Autumn Semester
Credits: 1-0-0
This course will provide full details on a variety of inverse problem-solving techniques, including examples and algorithms.

77037
Mathematical Processing of Measurement Information

Assoc. Prof. Seiichiro Hara
Autumn Semester, Even year
Credits: 2-0-0
Recently, because of the improvements of measuring instruments and computers, enormous measurement data can be acquired very easily. However it is not easy to interpret the information contained in such data correctly. In this course, mathematical processing method of extracting and recognizing the information contained in 1D and 2D measured data are explained comprehensively and practically.

77059
Control Theory for Robot Intelligence

Prof. Jun-ichi Imura
Spring Semester
Credits: 2-0-0
Modeling and control methods of hybrid systems, which are dynamical systems composed of continuous variables and discrete (logical) variables, are discussed as one of the mathematical approaches to control for realizing robot intelligence.

77055
Nonlinear and Adaptive Control

Assoc. Prof. Tomohisa Hayakawa
Autumn Semester
Credits: 1-0-0
Theory and application of adaptive control systems. Discussed are methods of on-line parameter identification and adaptive control for nonlinear systems with uncertain parameters. To this end, Lyapunov stability theory and Lyapunov functions for general nonlinear systems is examined in the first half of the course.

77062
Advanced Course of Bio-Robotics

Assoc. Prof. Motomu Nakashima
Spring Semester
Credits: 1-0-0
This course introduces examples of bio-robots, which have been developed inspired by the living animals. Their mechanical principles are also introduced.

77060
Introduction to Neural Engineering

Assoc. Prof. Tohru Yagi
Spring Semester, Even year
Credits: 2-0-0
Introduction to neural interface, a technology to link the nervous system and a machine. This course provides a foundation of neuroscience and also covers several update topics in neural engineering.

77053
Introduction to Biomedical Instrumentation

Assoc. Prof. Tohru Yagi
Spring Semester, Odd year (Offered in summer 2013)
Credits: 2-0-0
Introduction to biomedical instrumentation, a technology for medicine and health care. This course provides basics of physiology and covers several update topics in biomedical instrumentation.

77066
Advanced Course in Nonlinear Dynamics

Assoc. Prof. Hiroya Nakao
Spring Semester, Even year (from 2014)
Credits: 2-0-0
Nonlinear dynamical systems are used to model various real-world phenomena. In this lecture, starting with basic facts on dynamical systems theory, dynamical processes that lead to self-sustained rhythms, chaotic behavior, and spatiotemporal pattern formation will be explained, with applications in physics, chemistry, and engineering.

77067
Advanced Course of Digital Human Modeling

Assoc. Prof. Yusuke Miyazaki
Autumn Semester, Odd year
Credits: 2-0-0
This lecture provides updated topics regarding biomechanical models of human body. The topics include method to measure and model biomechanical characteristics of human body such as the anatomical structure, motion, material properties, tolerance level. Besides, the lecture also covers applications of the digital human models to estimate safety or amenity of products or living environment.

40117
Robot Creation

Prof. Shigeo Hirose & Assoc. Prof. Fumihiko E. Fukushima
Spring Semester
Credits: 2-0-0
Various projects including the design of new types of robot systems will be presented, and basic principles as well as creative thinking in the design of the robot systems will be explained.

40035
Intelligent and Integrated Manufacturing

Prof. Yoshio Saito & Assoc. Prof. Tomohisa Tanaka
Spring Semester, Odd year
Credits: 2-0-0
The aim of this course is to extend the understanding of the manufacturing system and to master the technologies concerning to intelligent and integrated manufacturing. Main part of production system is the machine tool with numerical control unit, that can be fully integrated by computer control.

77016
Theory and Applications of Urban Spatial Data

Prof. Toshihiro Osaragi
Autumn Semester, Odd year
Credits: 2-0-0
This course will focus on the theory and applications of spatiotemporal information for statistical-/ mathematical modeling of the sort typically used in urban and metropolitan policy, planning, and environmental analysis. Participants will learn example applications from their area of interest and then develop a simple application in the form of a model that incorporates spatiotemporal data.

77019
Analysis of Vibration and Elastic Wave

Prof. Sohichi Hirose
Spring Semester, Odd year
Credits: 2-0-0
Fundamental theories and analytical methods for vibrations and waves in solids are explained, and various engineering applications in seismic engineering, ultrasonic nondestructive testing and so forth will be presented.

77020
Intellectual Infrastructure Systems

Assoc. Prof. Takamasa Mikami
Spring Semester, Odd year
Credits: 2-0-0
Social infrastructure is becoming smart with the progress of information science and technology. This lecture gives an overview of the state of the art in intellectual infrastructure systems. This course also provides an opportunity to study advanced technologies on lifeline networks and related anti-disaster facilities. Your presentations and discussions will form an important part of this class.

77026
Air Quality Engineering

Prof. Shuji Fujii & Assoc. Prof. Naoki Kagi
Spring Semester, Even year (English from 2014)
Credits: 2-0-0
The objective in this course is to understand basics and cleaning techniques for air quality in indoor environment and atmospheric environment and etc. Through reviewing and discussing the previous research papers for air quality, the technologies for measuring, analyzing and cleaning of air were investigated.

77047
Regional Information Analysis

Prof. Yoichiro Higuchi
Spring Semester
Credits: 2-0-0
The gravity model has long been utilized as an efficient tool for identifying various determinants of interregional migration, industrial input-output table, inter-regional communication via telephone and internet, international trade, and so called spatial interactions. In this lecture, we study firstly linear algebra and matrix differentiation for econometric analyses, and secondly, the development process to overcome various technical problems in estimation of the gravity model. Students are requested to have already taken an introductory course of econometrics.

77048
Advanced Course on Coastal Environments

Prof. Kazuo Nadaoka
Autumn Semester, Even year
Credits: 2-0-0
Coastal zone is characterized with high primary production and rich biodiversity in its ecosystem, but it is highly vulnerable to various natural disasters and environmental impacts. This course introduces theories on physical and environmental processes in coastal zone with advanced modeling and monitoring technologies. Emphasis is put on significance of integrated watershed and coastal zone system assessment and management.

77057
Econometric Analysis

Assoc. Prof. Ryuichi Tanaka
Spring Semester
Credits: 2-0-0
Econometric Analysis introduces the first-year master students to multiple regression methods for analyzing cross-section and panel data (microeconometrics). The objective of the course is for the students to learn how to conduct and how to critique empirical studies in economics and related fields. Accordingly, the emphasis of the course is on empirical applications. In order to learn how to analyze data, the students will be assigned homework every week in which they are required to analyze data from the real world using econometrics software (Stata).

77063
Global Water Cycle and Terrestrial Environment

Assoc. Prof. Shinjiro Kanae
Spring Semester
Credits: 2-0-0
This lecture provides an opportunity to study advanced and contemporary topics in hydrology and water resources at global, regional, and river-basin scales. This class also covers social and terrestrial environmental aspects related to hydrology and water resources. The topics covered in this lecture consist of a) world water crisis, b) the nexus among water, food and energy, c) regional and local water management issues, d) the impact of climate change on water cycle, 3) water issues characteristic to Japan and Asia. Your presentations and discussions will form an important part of this class.

 

Department of Human System Science International Graduate ProgramiCj

 

No. Course Credit Instructor Semester Notes
65056 Introductory Cognitive Psychology 2-0-0 YAMAGISHI Spring  
65060 Presentation Skills 1-1-0 *MATSUMOTO
MAYEKAWA
Spring *part-time Instructor
65061 Introduction to Brain Science and fMRI 1-0-0 AKAMA
JIMURA
Autumn  
65062 Introduction to Cognitive Linguistics 1-0-0 AKAMA Autumn Offered in odd-numbered year
65063 Embodied Economics and Cognition 1-0-0 YAMAGISHI et al. Spring * part-time Instructor
Offered in odd-numbered year
65066 Introduction to Bayesian Statistics 1-0-0 MAYEKAWA Spring  
65067 Computational Brain Science and Complex Networks with Matlab (SPM) 0-2-0 WAKITA
AKAMA
Spring  
65068 Human Economic Science by Mathematica 0-2-0 AKAMA Spring  
65076 Web-based Learning System 2-0-0 MUROTA Autumn Odd year : in English
Even year : in Japanese
65077 Members of the European Parliament Special Internship for Tokyo Tech Students(MEP) 1-0-1 NOHARA Spring  
65078 Technology. Environment and Society 1-1-0 HOPE
NOHARA
Spring  
65801 Colloquium in Human System Science V 2 Academic Advisor Spring Doctoral Program
65802 Colloquium in Human System Science VI 2 Academic Advisor Autumn Doctoral Program
65803 Colloquium in Human System Science VII 2 Academic Advisor Spring Doctoral Program
65804 Colloquium in Human System Science VIII 2 Academic Advisor Autumn Doctoral Program
65805 Colloquium in Human System Science IX 2 Academic Advisor Spring Doctoral Program
65806 Colloquium in Human System Science X 2 Academic Advisor Autumn Doctoral Program
70020 Rural Telecommunications 2-0-0 TAKADA
AOYAGI
Autumn Department of International Development Engineering
  Fmandatory subject
FInternational Human Economic Science Special Course (IHES)

International Graduate Program (C) on Global Values, Decision Making, and Culture

Master and Doctoral Program

Program description

This program targets interdisciplinary studies on global values, decision making, and culture. Solving the social problems in the 21st century requires appropriate understanding of global values and cultures in the world, and prominent ability on value judgment and decision making. Lecture courses (Category I to IV) in this program give students essential knowledge of values, decision making, culture, and technologies. “Discussion and Presentation” courses (Category V) require that students have a presentation on your research once a year and brush up discussion skills through debates and group presentations. Special seminars (Category VI) provide basics on humanities, social sciences, mathematics, information sciences, and communication skills. Through “Projects, Workshops, and Internships” (Category VII) and Colloquium with supervisors, students can improve their expertise. Master thesis and Doctoral dissertation are mandatory for gaining master’s degree and doctoral degree, respectively.

Requirements

For the master degree, the following requirements must be met:
Total 30 credits or more from subjects offered by Graduate Schools, which must include 18 credits or more from Research Courses(Œ¤‹†‰È–ÚŒQ) or Courses by Departments(ê–å‰È–ÚŒQ) of your department (program) and 2 credits or more from Liberal Arts and General Education(G). (‘åŠw‰@‹³—{E‹¤’ʉȖڌQ)

 · 6 credits or more from the Categories I, II, III, or IV;

Category I: “Global Decision Making and Culture”;
Category II: “Global Values and Decision Making”;
Category III: “Special Lectures on Value, Decision and Culture”;
Category IV: “Global Decision Making and Technologies”;

 · 6 credits or more from the Categories V;

Category V: “Discussion and Presentation in Value and Decision Science”;

 · 6 credits or more from the Categories VI or VII;

Category VI: “Special Seminars in Value and Decision Science”;
Category VII: “Projects, Workshops, and Internship”;

 · Credits of Colloquium (from I to IV) in each semester (4 credits in total); and

 · Master thesis

For the doctoral degree, the following requirements must be met:

 · Credits of Colloquium (from V to X) in each semester (12 credits in total); and

 · Doctoral dissertation.

Course List

· Category I: “Global Decision Making and Culture”
Courses Credits Instructors Semester Remarks
A Comparative Study of Modern Japanese Culture 2 credits Leith Douglas Morton Autumn  
Global Environmental Governance 2 credits Norichika Kanie Spring  

· Category II: “Global Values and Decision Making”
Courses Credits Instructors Semester Remarks
Advances in Affective Cognitive Science 2 credits Akifumi Tokosumi Autumn Open in even number years
Social Systems Modeling 2 credits Takehiro Inohara Autumn

· Category III: “Special Lectures on Value, Decision and Culture”
Courses Credits Instructors Semester Remarks
Philosophy and Practice of Collaborative Deliberation 2 credits Mitsuyo Toyoda Autumn Special Lecture on Value, Decision and Culture I
International Management 2 credits Remy
Magnier-Watanabe
Spring Special Lecture on Value, Decision and Culture II
Values in Comparative Culture 2 credits Azusa Omura Autumn Special Lecture on Value, Decision and Culture III
Special Lecture on Value, Decision and Culture IV 2 credits to be arranged Spring to be arranged

· Category IV: “Global Decision Making and Technologies”
Courses Credits Instructors Semester Remarks
Organizational Design for Planning 2 credits Tatsuro Sakano Autumn Open in Department of Social Engineering

· Category V: “Discussion and Presentation in Value and Decision Science”
Courses Credits Instructors Semester Remarks
Discussion Program in Value and Decision Science I 2 credits Supervisor Spring  
Discussion Program in Value and Decision Science II 2 credits Supervisor Autumn  
Discussion Program in Value and Decision Science III 2 credits Supervisor Spring  
Discussion Program in Value and Decision Science IV 2 credits Supervisor Autumn  
Effective Presentations in English 2 credits Azusa Omura Autumn International Seminar on Decision Science and Technology
International Research Presentation I 2 credits Takehiro Inohara Spring  
International Research Presentation II 2 credits Takehiro Inohara Autumn  

· Category VI: “Special Seminars in Value and Decision Science”
Courses Credits Instructors Semester Remarks
Special Seminar in Value and Decision Science I 1 credits Supervisor Spring  
Special Seminar in Value and Decision Science II 1 credits Supervisor Autumn  
Special Seminar in Value and Decision Science III 1 credits Supervisor Spring  
Special Seminar in Value and Decision Science IV 1 credits Supervisor Autumn  

· Category VII: “Projects, Workshops, and Internship”
Courses Credits Instructors Semester Remarks
Decision Science and Technology International Off-Campus Project (VAL) I 4 credits Supervisor Autumn  
Decision Science and Technology International Off-Campus Project (VAL) II 4 credits Supervisor Spring  
Decision Science and Technology International Workshop (VAL) I 2 credits Supervisor Autumn  
Decision Science and Technology International Workshop (VAL) II 2 credits Supervisor Spring  
Decision Science and Technology International Workshop (VAL) III 2 credits Supervisor Autumn  
Decision Science and Technology International Workshop (VAL) IV 2 credits Supervisor Spring  
Decision Science and Technology International Workshop (VAL) V 2 credits Supervisor Autumn  
Decision Science and Technology International Workshop (VAL) VI 2 credits Supervisor Spring  
Decision Science and Technology International Workshop (VAL) VII 2 credits Supervisor Autumn  
Decision Science and Technology International Workshop (VAL) VIII 2 credits Supervisor Spring  
Decision Science and Technology International Workshop (VAL) IX 2 credits Supervisor Autumn  
Decision Science and Technology International Workshop (VAL) X 2 credits Supervisor Spring  
International Research Internship I 2 credits Takehiro Inohara Spring  
International Research Internship II 2 credits Takehiro Inohara Autumn  

· Obligatory Subjects
· Colloquium
Course Credits Instructors Semester Remarks
International Colloquium in Decision Science and Technology (VAL) I 1 credits Supervisor Autumn  
International Colloquium in Decision Science and Technology (VAL) II 1 credits Supervisor Spring  
International Colloquium in Decision Science and Technology (VAL) III 1 credits Supervisor Autumn  
International Colloquium in Decision Science and Technology (VAL) IV 1 credits Supervisor Spring  
International Colloquium in Decision Science and Technology (VAL) V 2 credits Supervisor Autumn  
International Colloquium in Decision Science and Technology (VAL) VI 2 credits Supervisor Spring  
International Colloquium in Decision Science and Technology (VAL) VII 2 credits Supervisor Autumn  
International Colloquium in Decision Science and Technology (VAL) VIII 2 credits Supervisor Spring  
International Colloquium in Decision Science and Technology (VAL) IX 2 credits Supervisor Autumn  
International Colloquium in Decision Science and Technology (VAL) X 2 credits Supervisor Spring  

Syllabus of Subjects in the Program

66046
A Comparative Study of Modern Japanese Culture

Autumn Semester (2-0-0)
Prof. Leith Morton

  1. Objective
    The chief objective of the course is to introduce students to texts fundamental to the construction of modern Japanese culture, and by reading, examining and discussing these texts in class in English provide students with a introduction to modern Japanese culture and the modern Japanese sensibility. Another objective is to enhance students’ ability to express their understanding of these texts through compulsory essays in English.
  2. Contents
    Class 1 will provide a general introduction to the course. All texts will be read in English translation.
    Classes 2 and 3 will examine Yanagita Kunio’s Tono Monogatari (The Legends of Tono, 1910).
    Classes 4 and 5 will examine Natsume Soseki’s Michikusa (Grass By the Wayside, 1915).
    Classes 6 and 7 will examine Kuki Shuzo’s Iki no Kozo (The Structure of Iki, 1930).
    Classes 8 and 9 will examine Tanikawa Shuntaro’s Tabi (Journeys, 1968).
    Classes 10 and 11 will examine Murakami Haruki’s Umibe no Kafka (Kafka on the shore 2002).
    Classes 12 and 13 will focus on general discussion.
    Class 14-15 will summarize the course.

66014
Global Environmental Governance

Spring Semester (2-0-0)
Assoc. Prof. Norichika KANIE

  1. Objective
    In order to solve global environmental issues such as climate change and depletion of Ozone layer, various environmental governance functions need to be satisfied with multiple actors as well as their trans-boundary networks.
    What lessons can we learn from the past experience on environmental governance in this respect? Using case studies on variety of issues on environmental governance, this course provides students with insights on the reality of environmental governance, and discuss lessons leant from the future institutions for the earth.

66002
Advances in Affective Cognitive Science

Autumn Semester (2-0-0)
Prof. Akifumi Tokosumi

  1. Objective
    The aim of the class is to give a general overview of the computational treatments of cognitive processes.
  2. Contents
    The class gives a bird’s-eye view of the computational cognitive sciences, with emphasis on; (i) Knowledge computation, (ii) Affective computation, and (iii) Value and aesthetic computation. Major topics of the class will be;

    Week 1-5: Knowledge representation, language understanding, text processing.
    Week 6-10: Cognitive theory of emotions, affective computing.
    Week 11-15: Aesthetic computing, beautiful visualization.

  3. Grading
    Marks will be given for attendance. Oral presentations and interviews will be used as assessment procedures.
    IV. Textbook and reference
    Pdf files to be handed out in class.

66030
Social Systems Modeling

Autumn Semester (2-0-0)
Prof. Takehiro INOHARA

  1. Objective
    Mathematical modeling methods and mathematical analysis methods for social systems are presented through lectures and exercises. This lecture gives definitions, examples and analysis methods of games in normal form, games in extensive form, option forms, graph models, simple games, games in characteristic function form, and so on, as models for analyzing decision making situations. Methods of coalition formation analysis and relation analysis are also introduced.
    Students are required to prepare and submit three reports: a report on the background and the detail of a real-world decision making situation (Background Report), that on the model of the situation (Model Report) and that on the analysis of the situation (Analysis Report). Also, they are required to prepare and make a presentation based on these reports in the end of the term.
    This lecture aims to cultivate the students’ ability of selecting an appropriate model for analyzing a focal decision making situation, that of describing a real-world decision making situation by a model, that of analyzing the model and taking out some insights on the situation from the results of the analysis and that of deriver the results of the analysis to others concisely.
  2. Contents
    • [Schedule]
      • The 1st week:
        • Lecture plan, Preliminaries on mathematical symbols, Classification of decision making situations
      • The 2nd week:
        • Competitive decision making situations 1: Games in normal form
      • The 3rd week:
        • Competitive decision making situations 2: Games in extensive form with perfect information
      • The 4th week:
        • Competitive decision making situations 3: Games in extensive form with imperfect information
      • The 5th week:
        • Competitive decision making situations 4: Option forms (the deadline of the submission of Background Report)
      • The 6th week:
        • Feedback of Background Report
      • The 7th week:
        • Competitive decision making situations 5: Graph models
      • The 8th week:
        • Social decision making situations 1: Simple games and committees
      • The 9th week:
        • Social decision making situations 2: Games in characteristic function form
      • The 10th week:
        • Advanced Analysis Methods 1: Coalition analysis of competitive decision making situations (the deadline of the submission of Model Report)
      • The 11th week:
        • Feedback of Model Report
      • The 12th week:
        • Advanced Analysis Methods 2: Attitude analysis of competitive decision making situations
      • The 13th week:
        • Advanced Analysis Methods 3: A mathematical model of consensus building
      • The 14th week:
        • Presentations
      • The 15th week:
        • Presentations (the deadline of the submission of Analysis Report)
  3. Evaluation
    Through three reports (25% each) and presentation (25%)
  4. Comments from lecturer
    This course is designated as one of the courses in the Education Program for Service Innovation (http://www.service-i.titech.ac.jp/), those in the Education Program for Consensus Building (http://www.ipcob.org/course/), and those in the Education Program for Digital Humanities and Technology. The students are recommended to be enrolled in one or more of these Education Programs. Detailed explanations on the enrollment in these courses can be found in each web site. Contact courses@valdes.titech.ac.jp for more inquiry.

66064
The Philosophy and Practice of Collaborative Deliberation

Autumn Semester (2-0-0)
Lecturer, Mitsuyo Toyoda

  1. Objective
    The aim of this seminar is to strengthen students’ understanding of the importance of collaborative deliberation through the practice of dialogical inquiry. The major expectations are: 1) students demonstrate their ability to participate in constructive dialogues, and 2) students deepen their understanding of the value of collaborative deliberation in public decision processes. Both individual and group works will be involved in this course.
  2. Contents
    This seminar is designed to help students deepen their understanding of the values of collaborative deliberation through the practice of dialogical inquiry. Students learn what conditions are necessary for constructive dialogue, and develop their attitudes and skills for participating in communicative deliberation. They will also explore the importance of collective thinking in public decision processes by studying the cases of democratic decision processes.

    [Schedule]
    • · Introduction
    • · Safety and community
    · Developing a community of inquiry
    • · Thinking and communicating
    • · Thinking and feeling
    • · Habits of mind
    • · Different modes of thinking
    · Democratic decision processes
    • · Philosophy of deliberative democracy
    • · Reflections
  3. Evaluation
    Attendance, Participation (60%)
    Presentation (40%)
  4. Comments from lecturer
    The contents of the course may change depending on students’ abilities and needs. The class will be mostly given in English. Students are expected to actively participate in class activities such as paired and group discussions. Reading and writing assignments will be given.
  5. Textbook and reference
    Handouts will be distributed in class.

66066
International Management

Spring Semester (2-0-0)
Lecturer, Magnier-Watanabe Remy

  1. Objective
    The International Management course is intended to be a challenging advanced management course for undergraduate and graduate students. Students will gain a general overview of the process and effect of internationalization in contemporary business, along with an introduction to theories, concepts and skills relevant to managing effectively in today’s global environment. Students will be challenged to integrate knowledge they have gained from other courses and apply their accumulated knowledge to business case studies. Students will engage in analytical problem-solving related to managing in the international environment and will frequently be called upon to brief their findings to the class.
    The course primarily uses a combination of lecture, class discussion, case analysis, group and individual assignments.
  2. Contents
    This course focuses on the challenges and opportunities associated with organizational management and business strategy in the global environment. Topics covered include globalization, the international environment, ethics and social responsibility, the meanings and dimensions of culture, managing across culture, organizational culture and diversity, cross-culture communication and negotiation, strategy formulation and implementation, entry strategies and organizational structures, managing political risk, government relations, and alliances, management decision and control, motivation across cultures, leadership across cultures, and human resource across cultures. This class is aimed at anyone who wants to understand the people, culture, geography, and politics of international business.

  3. [Schedule]
    Part I: Environmental Foundation
    1. Globalization and International Linkages
      • International Management Book, Chapter 1
      • Case (Discussion): Colgate’s Distasteful Toothpaste
    2. The Political, Legal, and Technological Environment
      • International Management Book, Chapter 2
      • Case (Discussion): Advertising or Free Speech? The Case of Nike and Human Rights
    3. Ethics and Social Responsibility
      • International Management Book, Chapter 3
      • Case (Student Group Presentation - Group A): Pharmaceutical Companies, Intellectual Property, and the Global AIDS Epidemic
    Part II: The Role of Culture
    1. The Meanings and Dimensions of Culture
      • International Management Book, Chapter 4
    2. Managing Across Culture
      • International Management Book, Chapter 5
      • Case (Discussion): Coca Cola in India
    3. Organizational Culture and Diversity
      • International Management Book, Chapter 6
      • Case(s) (Student Group Presentation - Group B): Euro Disneyland and Beyond Tokyo: Disney’s Expansion in Asia
    4. Cross-Culture Communication and Negotiation
      • International Management Book, Chapter 7
      • Case (Student Group Presentation - Group C): Wal-Mart’s Japan Strategy
    Part III: International Strategic Management
    1. Strategy Formulation and Implementation
      • International Management Book, Chapter 8
      • Case (Student Group Presentation - Group D): The HP-Compaq Merger and its Global Implications
    2. Entry Strategies and Organizational Structures
      • International Management Book, Chapter 9
      • Case (Discussion): The Last Rajah: Ratan Tata and Tata’s Global Expansion
    3. Managing Political Risk, Government Relations, and Alliances
      • International Management Book, Chapter 10
      • Case (Discussion): Microsoft Opens the Gates: Patent, Piracy, and Political Challenges in China
    4. Staffing, Training, and Compensation for Global Operations
      • International Management Book, Chapter 14
      • Case (Student Group Presentation - Group E): Can the Budget Air Model Succeed in Asia? The Story of AirAsia
    5. Group Project Presentations
    6. Group Project Presentations
    7. Final Exam
  4. Evaluation
    Participation (20%). All students are expected to participate actively in class discussion. This includes evidence of thorough prior preparation of course materials, engaging in exercises, etc. Attendance at all session is required except in previously arranged cases/emergencies.
    Group Case Presentation (20%). In groups of 2-4, you will present the main findings of one of the cases in our text, as assigned. Presentations should be 15-20 minutes maximum.

    Project (Group). Foreign Entry Strategy (30%). Your group will prepare a report, including recommendations, for an actual company¡Çs overall entry strategy into a foreign market. Your strategy should include attention to the social, political, cultural, and economic environment of the country you propose entering, the entry and organizational strategies the company should advance, including potential alliances with local firms, and a discussion of the ethical, negotiation, leadership, and management challenges associated with your recommendation. This analysis should integrate the readings and cases for the course in the context of the actions of a specific firm. This analysis will be approximately 4-6 single-spaced pages (with complete references). You will summarize your findings in a short 25 minute (+ 15 min. Q&A) presentation during the final week of class.

    Final Exam (30%). We will have a final exam that will cover all elements of the course, including the concepts, cases, exercises, and discussion.
  5. Textbook and reference
    The following textbook, which contains all reading and case materials, is required for this course:
    F. Luthans, and J.P. Doh. International Management: Culture, Strategy, and Behavior, 7th Ed., McGraw-Hill Irwin, 2009.

66065
Values in Comparative Culture

Autumn Semester (2-0-0)
Lecturer, Azusa Omura

  1. Objective
    The chief objective of the course is to consider the relationship between Japanese culture and Western culture. By examining descriptions of Western culture in Japanese literature, students will discover how the Japanese have perceived and transformed Western culture into their own culture through modernization.
    Another objective is to explore how Western people have observed Japan and the difference between images of ‘traditional Japan’ and ‘modern Japan’ in modern Western literature. The study of Western people’s attitudes toward ‘modern Japan’ will help students to understand present-day Japan as a part of the international society.
    This course will encourage students to understand Japanese culture in a comparative way.
  2. Contents
    This course offers a comparative study on modern Japanese culture (from the Meiji Restoration to the Second World War) from various perspectives, particularly focusing on the influence of Western culture. Students are required to attend all classes and submit three short essays in English. All texts are read and discussion is conducted in English.

    [Schedule]
    • Class 1 General Introduction to the Course
    • Class 2 The Background of Modern Japan
    • Class 3 The Image of eTraditional Japan’ in the West
    • Class 4 Western Culture in Modern Japanese literature
    • Class 5 The Translation of Western Literature 1: Background
    • Class 6 The Translation of Western Literature 2: Horiguchi Daigaku
    • Class 7 The Experience of Western Culture 1: Background
    • Class 8 The Experience of Western Culture 2: Takamura Kōtarō
    • Class 9 The Experience of Western Culture 3: Nagai Kafū
    • Class 10 Images of eModern Japan’ 1: Background
    • Class 11 Images of eModern Japan’ 2: Paul Morand
    • Class 12 East and West during World War II 1: Background
    • Class 13 East and West during World War II 2: Murano Shirō
    • Class 14 East and West during World War II 3: Yokomitsu Riichi
    • Class 15 Summary
  3. Evaluation
    The course evaluation is based on attendance, participation in discussion and three short essays. Students are required to submit three short essays (in class 6, class 9 and class 14) discussing topics that will be given later.

68008
Organizational Design for Planning

Autumn Semester (2-0-0) Even Year in English
Assoc. Prof. Tatsuro SAKANO

  1. Purpose
    The purpose of this course is to give students an insight to evaluate critically the validity and relevance of organized decision making and collective action called planning. By doing so, the course also aims at developing student’s capability to design and manage constructively the planning process and the organization in public domain.
  2. Course Description
    The limitation of objectivism and instrumental rationality in solving value conflicts and in overcoming limited rationality casts doubts on the efficiency and the legitimacy of modernistic style of planning and organization. The development of planning theory and organizational design for the last half century is a result of exploration of the alternative mode of rationality. It is also a search process to formulate a new conception of public governance and to design a new institution which facilitates solving collective action dilemmas. The course starts with the comparison of different procedural styles of planning and the corresponding modes of rationality. Then discussion expands to the issue of public governance and collective action dilemma, which leads to debates on their political and ethical implications.
    Second half will focus on organization theory.
  3. Course Outline
  4. · First half on Planning Theory · Second Half on Organization Theory

66045
Effective Presentations in English

Autumn Semester (1-1-0)
Lecturer, Azusa Omura

  1. Objective
    The chief objective of the course is to improve students’ skills in presenting their research in academic conferences and classes in English. By gaining a basic knowledge of academic presentations in English, students will be able to compose effective presentations with visual aids. And through the two required presentations, students will study how to respond to questions from audiences and capture the audiences’ attention with visual information.
    This course will encourage students to present their research in English in an effective way.
  2. Contents
    This course offers an effective way of giving presentations in English with visual aids. Students are required to attend all classes and give two presentations in English. All texts are read, and discussion and presentations are conducted in English.

    [Schedule]
    • Class 1 General Introduction to the Course
    • Class 2 Preparation for Presentations
    • Class 3 Introduction to Presentations
    • Class 4 Body of Presentations
    • Class 5 Conclusion of Presentations
    • Class 6 Languages for Presentations
    • Class 7 Students’ Presentations
    • Class 8 Evaluation of Presentations
    • Class 9 How to Use Visual Aids 1
    • Class 10 How to Use Visual Aids 2
    • Class 11 Delivering Presentations 1
    • Class 12 Delivering Presentations 2
    • Class 13 Strategy for Effective Presentations
    • Class 14 Students’ Presentations
    • Class 15 Summary
  3. Evaluation
    The course evaluation is based on attendance, participation in discussion and two presentations. Students are required to give two presentations on their own research (in class 7 and class 14).

Department of Social Engineering

♦ Economics Program

1.  Program Outline

Economics Program offers advanced courses in microeconomics, macroeconomics, econometrics, game theory, and cognitive psychology, among others. Students will also study basic fields such as mathematics, statistics, and optimization theory, if necessary. All students in this program are required to participate in the work-in progress seminars. Furthermore, they are encouraged to present papers at international conferences and to gain work or research experience in Japan and abroad by using the intern system.

2.  Graduation Requirements

Master’s degree

Doctoral degree
For a Doctoral degree, an advanced candidate must satisfy the following requirements:

 Public Policy Design Program

1.  Program Outline

In Public Policy Design Program, students are supposed to develop their faculties in their own disciplines and to gain a critical perspective on the disciplines by studying research topics in related areas.

2.  Graduation Requirements

Master’s degree

Doctoral degree
For a doctoral degree, an advanced candidate must satisfy the following requirements:

The minimum period of study is three years in total, which include both the Master’s and Doctoral program for the both degrees. Note that the above requirements are minimal and some additional requirements may be conditioned depending on the special course.

All students are strongly advised to consult with their own supervisors about courses provided in the program and their study plans.

 Environmental Design Program

1.  Program Outline

The Environmental Design Program aims to provide intellectual skills in designing the structure of public space, local community, and urban area. The program is also intended to develop students’ ability to explore a public problem and solve it.

2.  Graduation Requirements

Master’s degree

Doctoral degree
For a doctoral degree, an advanced candidate must satisfy the following requirements:

The minimum period of study is three years in total, which include both the Master’s and Doctoral program for the both degrees. Note that the above requirements are minimal and some additional requirements may be conditioned depending on the special course.

All students are strongly advised to consult with their own supervisors about courses provided in the program and their study plans.