There is a demand for the development of multidimensional energy theory — a discipline developed through specializing and deepening expertise, and fusing and restructuring complex learning related to energy, which makes it possible to gain an effective, comprehensive overview. Experts in this field are also in demand. In the Graduate Major in Energy Science and Engineering, we cultivate individuals to lead innovation and contribute to society with advanced expertise based on the disciplines of physics, chemistry, materials science, mechanical engineering, and electrical engineering. Such individuals possess the comprehensive skills to handle ever-changing energy problems from a multidimensional energy theory perspective, with independent problem extracting/solving skills and international leadership skills.
In the Master's Program, we train individuals with advanced expertise based on the disciplines of physics, chemistry, materials science, mechanical engineering, and electrical engineering, as well as the ability to solve energy problems from a multidimensional energy theory perspective.
The educational program is comprised of the Specialized Theory Lecture Group for acquiring advanced expertise in individual disciplines, and the Energy Theory Lecture Group for learning theory (multidimensional energy theory ) common to the study of energy. The program is structured so that students can acquire (1) advanced expertise in chemistry, physics, materials science, mechanical engineering, and electrical engineering and (2) the ability to look at the whole picture and make judgments from the perspective of multidimensional energy theory, independent problem extraction and solving skills, and international leadership skills by taking courses in the Energy Theory Lecture Group, which are common restricted electives, while also choosing courses from the Specialized Theory Lecture Group from the specialized fields of applied chemistry, chemistry, mechanical engineering, electrical and electronic engineering, and materials science.
400-Level courses
Course |
Course |
MEC.J431 |
Ultra-precision Measurement |
MEC.D431 |
Advanced Sound and Vibration Measurement |
CAP.A401 |
Scope of Chemical Science and Engineering IA |
GEG.P451 |
Project Design & Management S |
MAT.M401 |
Applied Diffraction Crystallography in Metals and Alloys |
EEE.C411 |
Mixed Signal Circuits |
ENR.A402 |
Interdisciplinary scientific principles of energy 2 |
CAP.T402 |
Introduction to Polymer Physics II |
MEC.E433 |
Advanced Thermal-Fluids Measurement |
EEE.S451 |
Wireless Communication Engineering |
CAP.A465 |
Advanced Bioinorganic Chemistry I |
CAP.A464 |
Advanced Molecular Design of Metal Complexes II |
ENR.J406 |
Organic Electronic Materials Physics |
ENR.H404 |
Advanced Electrochemistry II |
ENR.J404 |
Physical Chemistry for High Temperature Processes -Oxidation of Metals- |
EEE.S461 |
Optical Communication Systems |
EEE.P401 |
Electric Power and Motor Drive System Analysis |
CHM.B401 |
Basic Concepts of Inorganic Chemistry |
CHM.C401 |
Basic Concepts of Physical Chemistry |
CAP.C422 |
Advanced Chemical Reaction Engineering |
CAP.T401 |
Introduction to Polymer Chemistry I |
MAT.M404 |
Transport Phenomena at High Temperature |
CAP.E402 |
Environment Preservation and Chemical Safety II |
EEE.D481 |
Advanced Power Semiconductor Devices |
EEE.P411 |
Advanced Course of Power Electronics |
MAT.P401 |
Organic Optical Materials physics |
CAP.E401 |
Environment Preservation and Chemical Safety I |
ENR.A401 |
Interdisciplinary scientific principles of energy 1 |
MAT.C402 |
Quantum Physics in Optical Response of Materials |
CAP.A442 |
Advanced Electrochemistry II |
ENR.J405 |
Microstructure Evolution and Diffusion in Metals |
ENR.B431 |
Recent technologies of fuel cells, solar cells butteries and energy system |
ENR.H412 |
Advanced Organic Electrochemistry |
ENR.H419 |
Organic Electrode Process |
MAT.P421 |
Organic Materials Functional Design |
ACE.B442 |
Advanced Technology for Environmental Load Reduction II |
ENR.L401 |
Mechanical-to-electrical energy conversion |
EEE.D401 |
Fundamentals of Electronic Materials |
CAP.A424 |
Advanced Organic Synthesis II |
MAT.C405 |
Advanced Course of Instrumental Analysis for Materials |
ENR.A406 |
Interdisciplinary Energy Materials Science 2 |
MAT.M409 |
Thermodynamics for Phase Equilibria |
ENR.J403 |
Physical Chemistry for High Temperature Processes -Smelting and Refining Processes- |
CAP.P423 |
Advanced Polymer Structures I |
ENR.H414 |
Advanced Functional Polymer Materials II |
CAP.C431 |
Chemical Engineering for Advanced Materials and Chemicals Processing II |
ENR.K440 |
Advanced course of radiation transfer |
MAT.P404 |
Soft Materials Functional Physics |
MAT.M403 |
Environmental Degradation of Materials |
CAP.C441 |
Transport Phenomena and Operation |
CAP.T402 |
Introduction to Polymer Physics II |
CAP.C442 |
Advanced Separation Operation |
MAT.C404 |
Physics and Chemistry of Semiconductors |
ENR.A404 |
Interdisciplinary principles of energy devices 2 |
MEC.E431 |
Thermodynamics of Nonequilibrium Systems |
ENR.A403 |
Interdisciplinary principles of energy devices 1 |
EEE.P451 |
Plasma Engineering |
EEE.S401 |
Advanced Electromagnetic Waves |
ENR.J408 |
Energy Conversion Ceramics Materials |
MEC.E432 |
Properties of Solid Materials |
ACE.B441 |
Advanced Technology for Environmental Load Reduction I |
MAT.C400 |
Crystals Science |
CAP.A461 |
Advanced Solid State Chemistry I |
ENR.H401 |
Advanced Photochemistry I |
ENR.K430 |
Advanced course of turbulent flow and control |
GEG.E404 |
Technologies for Energy and Resource Utilization |
EEE.C441 |
VLSI Technology I |
CAP.I473 |
Nanotechnology and Nanoscience |
MAT.P491 |
Materials Engineering and Ecology |
CAP.P411 |
Advanced Polymer Synthesis I |
CAP.P421 |
Advanced Polymer Properties I |
ENR.L410 |
Introduction to Photovoltaics |
EEE.C442 |
VLSI Technology II |
CAP.I402 |
Scope of Chemical Science and Engineering IIB |
CAP.T403 |
Introduction to Polymer Chemistry II |
MAT.C406 |
Advanced Course of Magnetism |
MAT.P426 |
Thermal Properties of Materials |
CAP.P424 |
Advanced Polymer Structures II |
GEG.P452 |
Project Design & Management F |
GEG.S402 |
The economics and systems analysis of environment, resources and technology |
CAP.A466 |
Advanced Bioinorganic Chemistry II |
MAT.C403 |
Advanced Course of Ceramic Thin Film Technology |
EEE.D451 |
Bipolar Transistors and Compound Semiconductor Devices |
ENR.A405 |
Interdisciplinary Energy Materials Science 1 |
ENR.B430 |
Advanced Science and Technology in Energy and Environment |
ENR.A402 |
Interdisciplinary scientific principles of energy 2 |
MAT.P413 |
Soft Materials Functional Chemistry |
CAP.I401 |
Scope of Chemical Science and Engineering IB |
CAP.C411 |
Chemical Engineering for Advanced Materials and Chemicals Processing I |
CAP.I405 |
Environmental Chemistry |
CAP.I403 |
Advanced Coordination Chemistry |
CAP.A441 |
Advanced Electrochemistry I |
ENR.H403 |
Advanced Electrochemistry I |
ENR.H413 |
Advanced Functional Polymer Materials I |
MEC.H431 |
Advanced Mechanical Elements |
CAP.T401 |
Introduction to Polymer Chemistry I |
CHM.A435 |
Current Chemistry I |
MEC.M431 |
Space Systems Design |
CAP.C421 |
Advanced Energy Transfer Operation |
CAP.E411 |
Advanced Internship in Chemical Science and Engineering I |
ENR.H406 |
Advanced Inorganic Materials Chemistry II |
ENR.J407 |
Soft Materials Design |
MEC.G431 |
Mechanical Processing |
EEE.D411 |
Semiconductor Physics |
MAT.P423 |
Advanced Course in Composite Materials |
CAP.A402 |
Scope of Chemical Science and Engineering IIA |
CAP.I434 |
Advanced Nano-Materials Chemistry I |
CAP.C432 |
Physico-Chemical Property Analysis in Chemical Engineering |
CAP.E411 |
Advanced Internship in Chemical Science and Engineering I |
CAP.T403 |
Introduction to Polymer Chemistry II |
CAP.T431 |
Advanced Organometallic Chemistry and Catalysis I |
MAT.M402 |
Characterization of Nanomaterials |
ENR.H418 |
Inorganic Materials Science |
CHM.A436 |
Current Chemistry II |
MAT.M402 |
Characterization of Nanomaterials |
CAP.E422 |
Presentation Practice |
CAP.I435 |
Geochemistry |
ENR.A406 |
Interdisciplinary Energy Materials Science 2 |
EEE.G411 |
Electrical Modeling and Simulation |
ENR.A408 |
Economy of energy system |
MEC.C433 |
Solid Dynamics |
CAP.A423 |
Advanced Organic Synthesis I |
ENR.A405 |
Interdisciplinary Energy Materials Science 1 |
MEC.F431 |
Computational Thermo-Fluid Dynamics |
MAT.M408 |
Quantum Statistical Mechanics |
MAT.M405 |
Advanced Microstructure Design of Ferrous Materials |
CAP.A421 |
Advanced Design of Organic Reaction Processes I |
CAP.I407 |
Introduction to Chemical Engineering (Basics) |
CAP.E411 |
Advanced Internship in Chemical Science and Engineering I |
ENR.H405 |
Advanced Inorganic Materials Chemistry I |
ENR.H410 |
Topics in Properties of Semiconductors |
CHM.D401 |
Basic Concepts of Organic Chemistry |
MEC.C431 |
Mechanics of Composite Materials |
NCL.N403 |
Nuclear Materials and Structures |
EEE.G401 |
Utilization of Intelligent Information Resources and Patents |
EEE.P421 |
Advanced Electric Power Engineering |
MAT.M407 |
Advanced Solid State Physics |
MAT.M410 |
Deformation and Strength of Solids |
MAT.M406 |
Advanced Microstructure Design of Non-ferrous Materials |
MAT.P415 |
Chemistry of Organic Materials |
CAP.A422 |
Advanced Design of Organic Reaction Processes I |
CAP.A462 |
Advanced Solid State Chemistry II |
CAP.I413 |
Advanced Supramolecular Chemistry |
CAP.I415 |
Environmental Analytical Chemistry |
CAP.I416 |
Catalysis for the Environmental Issues |
CAP.I482 |
Introduction to the Frontiers of Environmental Chemistry II |
ENR.A404 |
Interdisciplinary principles of energy devices 2 |
ENR.H402 |
Advanced Photochemistry II |
MAT.P414 |
Soft Materials Function |
MAT.P403 |
Soft Materials Physics |
MAT.M407 |
Advanced Solid State Physics |
MAT.P422 |
Organic Materials Design |
MAT.M411 |
Phase Transformation and Microstructure Control |
CAP.E421 |
Advanced Data Analysis |
CAP.I417 |
Introduction to Chemical Engineering (Unit Operation) |
CAP.I423 |
Advanced Organic Materials Chemistry |
CAP.T404 |
Introduction to Polymer Physics II |
CAP.A463 |
Advanced Molecular Design of Metal Complexes I |
ENR.A407 |
Energy system theory |
ENR.H407 |
Advanced Solid State Chemistry Oriented for Energy and Environment Issues I |
ENR.K450 |
Advanced course of combustion physics |
ENR.J401 |
Advanced Metal Physics |
ENR.J402 |
Physical Chemistry for High Temperature Processes -Thermodynamics- |
CHM.A431 |
Laboratory Training of Synchrotron Radiation Science |
MEC.H433 |
Mechatronics Device and Control |
MEC.H434 |
Advanced Course of Actuator Engineering |
CAP.T404 |
Introduction to Polymer Physics II |
MAT.P492 |
Advanced Course in Organic Polymer Science |
MAT.C401 |
Advanced Course of Dielectric and Ferroelectric Materials |
CAP.I444 |
Advanced Nano-Materials Chemistry II |
CAP.A481 |
Advanced Instrumental Analysis |
CAP.P422 |
Advanced Polymer Properties II |
ENR.H409 |
Topics in Organic Electronics |
ENR.J409 |
Introduction to Intellectual Property System |
MEC.J432 |
Mechanism and Control for Ultra-precision Motion |
CAP.I481 |
Introduction to the Frontiers of Environmental Chemistry I |
ENR.Z491 |
Seminar in energy science S1 |
MAT.P402 |
Soft Materials Physical Chemistry |
CAP.C423 |
Computational Fluid Dynamics |
CAP.T431 |
Advanced Organometallic Chemistry and Catalysis I |
MEC.G432 |
Metalforming |
MEC.M433 |
Space Systems Analysis A |
EEE.P461 |
Pulsed Power Technology |
ENR.Z492 |
Seminar in energy science F1 |
CAP.E411 |
Advanced Internship in Chemical Science and Engineering I |
CAP.T432 |
Advanced Organometallic Chemistry and Catalysis II |
CAP.P412 |
Advanced Polymer Synthesis II |
ENR.H408 |
Advanced Solid State Chemistry Oriented for Energy and Environment Issues II |
ENR.H411 |
Topics in Applied Electrochemistry |
CAP.T432 |
Advanced Organometallic Chemistry and Catalysis II |
500-level
Course |
Course |
MEC.F531 |
Flying Object Engineering |
ENR.K530 |
Advanced course of multiscale thermal-fluid sciences |
ENR.I520 |
Advanced Lecture on Crystal Structure and Correlation with Properties of Solids |
EEE.D511 |
Magnetism and Spintronics |
EEE.P511 |
Environment and Electric Energy |
ENR.B502 |
Energy innovation co-creative project |
MEC.F532 |
Rarefied Gas Dynamics |
CAP.T531 |
Advanced Catalytic Reactions I |
MEC.M532 |
Space Systems and Missions |
CAP.P583 |
Advanced Polymer Science II |
MEC.M531 |
Space Systems Analysis B |
MEC.E531 |
Plasma Physics |
ENR.K580 |
Leading edge energy technology |
CAP.P581 |
Advanced Polymer Processing |
MEC.C531 |
Mechanics of High Temperature Materials |
CAP.I535 |
Material Cycle Analysis |
ENR.H502 |
Advanced Chemical Materials for Energy Issues II |
CAP.I539 |
Advanced Course in Macromolecular Materials I |
MAT.C504 |
Functional Devices |
MEC.G531 |
Precision Manufacturing Processes |
EEE.D551 |
Nano-Structure Devices |
CAP.T532 |
Advanced Catalytic Reactions II |
EEE.D501 |
Dielectric Property and Organic Devices |
MAT.C501 |
Advanced Course of Deformation and Fracture of Engineering Materials |
CHM.B533 |
Catalytic Chemistry on Solid Surface |
MAT.C500 |
Advanced Course of Materials Optics |
ENR.H501 |
Advanced Chemical Materials for Energy Issues I |
CAP.C521 |
Chemical Engineering in Global Business |
CAP.I537 |
Systematic Material Design Methodology |
CAP.P582 |
Advanced Polymer Science I |
CAP.T531 |
Advanced Catalytic Reactions I |
ENR.Z592 |
Seminar in energy science F2 |
CAP.I549 |
Advanced Course in Macromolecular Materials II |
ENR.L530 |
Advanced functional electron devices |
MAT.C502 |
Advanced Course of Material Development I |
CAP.A561 |
Advanced Chemistry of Transition Metal Complexes I |
ENR.H503 |
Advanced Polymer Design for Energy Materials |
MEC.D531 |
Experimental Modal Analysis for Structural Dynamics |
ENR.Z591 |
Seminar in energy science S2 |
MAT.C503 |
Advanced Course of Material Development II |
CAP.A562 |
Advanced Chemistry of Transition Metal Complexes II |
ENR.B501 |
Special lecture of economics and politics in energy |
CAP.A521 |
Advanced Molecular Design for Organic Synthesis I |
CAP.I547 |
Advanced Process Dynamics and Control |
CAP.C531 |
Advanced Chemical Equipment Design |
CAP.P511 |
Advanced Polymer Reactions |
CHM.D532 |
Advanced Organometallic Chemistry |
EEE.P501 |
Magnetic Levitation and Magnetic Suspension |
MEC.J532 |
Advanced Course of Micro and Nano Machining |
CAP.A522 |
Advanced Molecular Design for Organic Synthesis II |
CAP.T532 |
Advanced Catalytic Reactions II |
ENR.I510 |
Optical properties of solids |
CHM.B534 |
Advanced Course in Crystal Structure Science |
MEC.J533 |
Advanced Tribosystem |
CAP.C511 |
Life Cycle Engineering |
CAP.I533 |
Advanced Strategic Organic Synthesis |
CAP.E521 |
Scientific Ethics |
CAP.C532 |
Advanced Specific Environmental Process |
CHM.C532 |
Advanced Quantum Chemistry |
CAP.C541 |
Advanced Nanoscale Chemical Process |
CHM.B532 |
Global Environmental Chemistry |
EEE.D561 |
Terahertz Devices and Systems |
Eligibility
- Persons who have successfully completed 16 years of education outside Japan or who are expected to do so by March 31, 2017.
- Persons who have graduated from a university or college in Japan.
- Persons who have successfully completed 3 years or more of education at a university or college outside Japan and obtained a degree equivalent to Bachelor's degree or who are expected to do so by March 31, 2017.
- Persons who have successfully completed 15 years of education and obtained a degree equivalent to Bachelor's degree outside Japan or who are expected to do so by March 31, 2017 and are individually assessed and recognized by the relevant School of Tokyo Institute of Technology as having outstanding academic records.
- Persons whose countries do not require 16 years of education prior to obtain a university-level education but who satisfy both of the conditions noted below and are individually assessed and recognized by the Tokyo Institute of Technology Graduate School as having academic ability equivalent to or higher than that of graduates of a Japanese university.
- Persons who have spent at least one year as a research student or research fellow at a university or research institution in or outside Japan after successfully obtaining a Bachelor's degree.
- Persons who are at least 22 years old by March 31, 2017.
Application Requirements
- Application Form (attached form: original, no photocopies)
- Field of Study and Study Program [Research Proposal] (attached form)
- Official Academic Transcripts from both undergraduate and graduate schools (originals or certified copies)
- Certificate of Graduation or Expected Graduation from both undergraduate and graduate schools (originals or certified copies). If the applicant graduated or is graduating early or has skipped a grade or year, please submit an official document or letter issued by the school indicating such fact.
- Summary of Thesis or Research (free format)
1) For applicants to the Master's program: an outline of your study or research in your undergraduate course.
2) For applicants to the Doctoral program: a summary of your thesis or, if the applicant has not written a Master's thesis, please submit a summary of the Master's program research.
[Applicants for the Doctoral Program under eligibility condition B (3) are not required to submit this.] - English Proficiency Test Score Report (original, no photocopies)
- Evaluation Sheet with Recommendation (in a single document) from a supervisor or head of department or similar official of the last university attended to verify the potential of the applicant (attached form) (original, no photocopies)
- Consent of a Tokyo Institute of Technology Faculty Member. Attach a printout of email correspondence or any other proof to verify that a Tokyo Tech faculty member has consented to be the applicant's academic supervisor during the intended period of study at Tokyo Tech.
- Applicant's Passport (one photocopy of the page or pages with the applicant's name, nationality, date of birth and photo). *A Japanese citizen must also submit one photocopy of the page or pages of his/her passport that shows visas obtained in the country where he/she lives.
- Application Fee: ¥30,000 (JPY). Applicants must pay the stated application fee by credit card within the application payment period.
Payment Period : September 1, 2016 - November 1, 2016
Scholarships
MEXT Scholarship(University Recommendation -SGU-)
Applicants with outstanding academic performance records have the chance to apply for the Japanese Government (MEXT) Scholarship. The scholarship provides a monthly stipend, \147,000 (JPY) for Master's Program students and \148,000 (JPY) for Doctoral Program students. (*This stipend is subject to change as specified by the regulations of the MEXT Scholarship program.) Traveling expenses are not provided from MEXT. This scholarship will be paid from April 2017 to March 2018 (12 months). The scholarship period can be extended under some conditions specified by MEXT. Successful MEXT Scholarship recipients are not required to pay admission or tuition fees. The number of awards is very limited.
NOTE: The applicant will be required to withdraw from the scholarship if he/she is applying to more than one program which will be supported by MEXT scholarship or he/she is applying to Japan Student Services Organization (JASSO) scholarship and MEXT scholarship simultaneously.
JASSO
Applicants who enroll in Tokyo Tech without other scholarship have the chance to apply for the "Monbukagakusho Honors Scholarship for Privately Financed International Students" from the Japan Student Services Organization (JASSO).
Please note that those who are granted any other scholarship cannot apply to receive this scholarship simultaneously. The monthly amount of this scholarship is ¥48,000 (JPY). The monthly amount is subject to change as specified by JASSO. This scholarship will be paid from April, 2017 to March, 2018 (12 months). You should pay the admission and tuition fees even if you are selected as a recipient of this scholarship.