The Graduate School of Engineering Science/ 2018 Campus Map Location and Transportation School of Engineering Science, Osaka University Table of Contents

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Graduate School of Engineering Science School of Engineering Science 1-3, Machikaneyama, Toyonaka, Osaka, Japan TEL +81- 6 - 6850 - 6111 FAX +81- 6 - 6850 - 6151 ki-syomu@oﬃce.osaka-u.ac.jp http://www.es.osaka-u.ac.jp/en/index.html Graduate School of Engineering Science Welcome to School of Engineering Science the Graduate School of Engineering Science/ 2018 Campus Map Location and Transportation School of Engineering Science, Osaka University Table of Contents

an important role of the developments. We basic science, engineering science and man- areas. We attempt to producefor Kobe, Hiroshima graduates for Kyoto Shin-Osaka Division of Materials Physics ...... 6 believe that fusing together as well as ufacturing. In addition, our graduate school who have a firm specialty and the potential ...... Juso Division of Chemistry 8 developing the fundamental disciplines are attempts to connect life science with the to pursue research and development in Awaji Kadoma-shi Division of Chemical Engineering ...... 10 necessary steps toward continuing to con- engineering science and further progress areas beyond their acquiredJR Kobe specialty. LIne Dean JR Osaka Loop Line ...... Osaka DivisionKeihan of Line Frontier Materials Science 12 Graduate School of tribute to developments in the future. In toward the integration of arts and science, (Umeda) Engineering Science Nishi- Dept. of Mechanical Science and Bioengineering ...... 15 Life Umeda Keihan Nakanoshima Line addition, we incorporate the fruits from which includes financial engineering and Nakanoshima Kyobashi School of Engineering Science, Science Division of Nonlinear Mechanics ...... 16 Nakanoshima Yodo Temma Osaka University humanity and social science research with insurance, robotics and data science. yabashi Kitahama bashi Center DivisionMorinomiya of Mechanical Engineering ...... 18 Honmachi those from science and engineering in In the School of Engineering Science, Division of BioengineeringSubway Chuo Line ...... 20 Science Engineering Engineering order to create true culture of the human which has ten courses, we have organized Science Dept. of Systems Innovation ...... 23 being. a characteristic curriculum for each course Tsuruhashi Namba Division of Advanced Electronics and JR for Nara Namba Optical Science ...... 24 Since the foundation of the School of Engi- to provide a deepB knowledge of basic sub- Social Main Entrance Science Division of Systems Science and neering Science in 1961, we have continu- jects, Asuch as mathematics, physics, chemis- Applied Informatics ...... 26 C Tennoji Dobutsuen- Division of Mathematical Science ...... 28 Mae E Division of Mathematical Science for H Social Systems ...... 30 D Tengachaya Main Gate F Facilities Atacched to Schools and Kansai Center for Science and J Research InstitutesJR Shinkansen Technology under Extreme G International Airport JR Lines Conditions Center forSu Sciencebway and Technology under Engineering Science Nankai Line Subway(mido-suji) ...... International Hall I Extreme ConditionsKita-Osaka Kyuko Line 33 Osaka Monorail Izumisano Center forHa Promotionnkyu Lines of AdvancedO Interdisciplinaryther Private Lines Research ...... 34 Research Center for Bus Lines Solar Energy Chemistry for Wakayama Center for Spintronics Research Network ...... 35 Center for Industry-University Collaboration ...... 36 School ...... 37 Building Major Dept. ㎡ For Takarazuka For Mino-o For Ibaraki Toyonaka Campus Dept. of Electronics and Materials Physics ...... 38 Mechanical Science and Bioengineering Ａ Dept. of Chemical Science andOsaka Engineering University ...... 39 Administration Offices Access from the nearest station Dept. of Systems Science ...... Toyonaka Campus 40 Ｂ Class Rooms Ishibashi Station Handai-shita By Train Dept. ofCrossing Information and Computer Science ...... 41 15-25 min. east on foot from on Hankyu Ishibashi Entrance Ｃ Materials Engineering Science 29,133 Ishibashi Handai Takarazuka Line. Facts and FiguresSlope ...... 43 Ｄ East Entrance Materials Engineering Science By Monorail Ｅ 10-15 min. west on foot from . Hankyu Systems Innovation Shibahara Takarazuka Line Ｆ For Itami Toyonaka From Shin-Osaka Station Main Municipal Hospital Gate Take the subway Midosuji Line to Senri-Chuo, transfer Shibahara Sta. of Ｇ Joint-Use Space etc. 3,468 Osaka Monorail Osaka Monorail to Osaka Monorail and exit at Shibahara. (about 1 hour) Osaka Chuo-kanjo-sen From Osaka Airport (Itami) Chugoku Highway Chugoku-Toyonaka IC Ｈ Laboratories 1,201 For Senri-Chuo Take Osaka Monorail to Shibahara. (about 30 min.) ( For Osaka University Suita Campus ) Ｉ 1,951 Joint-Use Space etc. From Kansai International Airport Mechanical Science and Bioengineering • Take JR line to Osaka, transfer to the subway Midosuji Line, exit at Senri-Chuo, change to Osaka Monorail Hanshin Highway Ｊ Systems Innovation 6,376 The symbol for the Graduate School of Engineering and exit at Shibahara. (about 2 hours) Hotarugaike Science/ School of Engineering Science Σ Graduate School of Frontier Biosciences • Take Nankai Line to Namba, transfer the subway Station Σ has the meaning of “summation”. This symbol was selected because Midosuji Line to Senri-Chuo, and take Osaka Monorail Osaka Others Engineering Science International Hall etc. 4,952 Airportthe ideal of the School of Engineering Science is represented by Σ to . (about 2 hours) Station Shibahara (Science and Engineering), namely, the initial S for science (a Greek Total 47,081 • Take Airport Bus to Osaka Airport, transfer to Osaka Osaka Airport (Itami) character), and the initial E of Engineering (E resembles the shape). Monorail to Shibahara. (about 2.5 hours) For Umeda

51 Graduate School of Engineering Science Welcome to School of Engineering Science the Graduate School of Engineering Science/ 2018 School of Engineering Science, Osaka University Table of Contents

As we well know, science and engineering ously created interdisciplinary research try, biology and informatics, as well as Message from the Dean ...... 1 had developed tremendously during the fields congruent with social needs and have major important subjects related to the A brief Introduction to the Graduate School and 20th century, so that subsequently our made a great contribution to the academy courses. Our education also develops wider School of Engineering Science...... 2 lives have been changed and improved and industry through research and educa- viewpoints and flexibility. In the Graduate History of the Graduate School and School of Engineering Science...... 3 drastically. The extension and formaliza- tion. Osaka University offers great and School, with eleven divisions, we provide Organization ...... 4 tion of the fundamental disciplines and unique opportunities of education and higher-level professional education and per- Graduate School their applications to manufacturing played research in the wide range of the fields of form fusion research with the different Dept. of Materials Engineering Science ...... 5 an important role of the developments. We basic science, engineering science and man- areas. We attempt to produce graduates Division of Materials Physics ...... 6 believe that fusing together as well as ufacturing. In addition, our graduate school who have a firm specialty and the potential Division of Chemistry ...... 8 developing the fundamental disciplines are attempts to connect life science with the to pursue research and development in Division of Chemical Engineering ...... 10 Dean necessary steps toward continuing to con- engineering science and further progress areas beyond their acquired specialty. Division of Frontier Materials Science ...... 12 Graduate School of tribute to developments in the future. In toward the integration of arts and science, Engineering Science Dept. of Mechanical Science and Bioengineering ...... 15 addition, we incorporate the fruits from which includes financial engineering and Life School of Engineering Science, Science Division of Nonlinear Mechanics ...... 16 Osaka University humanity and social science research with insurance, robotics and data science. Division of Mechanical Engineering ...... 18 those from science and engineering in In the School of Engineering Science, Division of Bioengineering ...... 20 Science Engineering Engineering order to create true culture of the human which has ten courses, we have organized Science Dept. of Systems Innovation ...... 23 being. a characteristic curriculum for each course Division of Advanced Electronics and ...... Since the foundation of the School of Engi- to provide a deep knowledge of basic sub- Optical Science 24 Social Science Division of Systems Science and neering Science in 1961, we have continu- jects, such as mathematics, physics, chemis- Applied Informatics ...... 26 Division of Mathematical Science ...... 28 Division of Mathematical Science for Social Systems ...... 30 Facilities Atacched to Schools and Research Institutes Center for Science and Technology under Extreme Conditions ...... 33 Center for Promotion of Advanced Interdisciplinary Research ...... 34 Center for Spintronics Research Network ...... 35 Center for Industry-University Collaboration ...... 36 School ...... 37 Dept. of Electronics and Materials Physics ...... 38 Dept. of Chemical Science and Engineering ...... 39 Dept. of Systems Science ...... 40 Dept. of Information and Computer Science ...... 41 Facts and Figures ...... 43

The symbol for the Graduate School of Engineering Science/ School of Engineering Science Σ Σ has the meaning of “summation”. This symbol was selected because the ideal of the School of Engineering Science is represented by Σ (Science and Engineering), namely, the initial S for science (a Greek character), and the initial E of Engineering (E resembles the shape).

1 Graduate School of Engineering Science/School of Engineering Science

Graduate School of Engineering Science

In the modern world, progress in technology is founded Engineering Science were reorganized by restructuring on the achievements in science, and these advances must the old departments into four departments: "Physical Sci- be supported by continually developing technology. ence", "Chemical Science and Engineering", "Systems and Technology and science are thus tightly knit together. Human Science", and "Informatics and Mathematical Sci- August 15,1973 The necessity of reflecting on this situation in research ence". and education, particularly at Osaka University which is In April 2002, some groups in "Systems and Human Sci- Historical Sketch located in a major industrial area, was emphasized by Dr. ence" and "Informatics and Mathematical Science" Kenjiro Shoda while he was president of the university. moved to the newly founded graduate schools of Osaka School/Graduate School of Engineering Science Department of Chemical Science and Engineering Plans were laid out by Dr. Shoda to establish a new University: Information Science and Technology, and Established in: Department of Informatics and Mathematical Science school for this purpose, rather than to extend the School Frontier Bioscience. They play important roles in educa- 1961 ― Department of Mechanical Engineering 1997 ― Department of Electronics and Materials Physics of Science and School of Engineering which had their tion and research of these new areas. Department of Chemistry (reorganized from Department of Electrical Engineering Department of Electrical Engineering and Department of Material Physics) own separate aims. Through his efforts and those of In April 2003, Graduate School of Engineering Science Common Chairs (Mathematical Science) Department of Systems Science former university President Dr. Shiro Akabori, together was reorganized in order to create new research fields in 1962 ― Department of Control Engineering (reorganized from Department of Mechanical Engineering, with support from the industry in and outside of Osaka, the multi- and inter-disciplinary areas. The new Graduate Department of Material Physics Department of Systems Science and Department of the School of Engineering Science came into existence in School of Engineering Science has three departments: 1963 ― Department of Chemical Engineering Biophysical Engineering) April 1961, and the Graduate School of Engineering Sci- "Department of Materials Engineering Science" dealing 1964 ― Graduate School of Engineering Science Graduate School of Engineering Science was ence was opened in April 1964. with physical and chemical materials from a unified view Mathematical Science Course reorganized as follows: The School and Graduate School are unique in name and point of materials science, "Department of Mechanical Physical Science Course Department of Physical Science character in Japan. Their purpose is to develop scientists Science and Bioengineering" dealing with mechanical Chemical Science Course Department of Systems and Human Science with a keen interest in practical technology and engi- science and bioengineering from the view point of 1967 ― Department of Biophysical Engineering 2002 ― Graduate School of Information Science and Technology neers with a firm grasp of the basic sciences, who may applied mechanics, and "Department of Systems Innova- 1970 ― Department of Information and Computer Sciences Graduate School of Frontier Bioscience use their expertise to develop new technology. tion" dealing with electronics, systems and mathematics 1992 ― Department of Systems Engineering 2003 ― Graduate School was reorganized as follows In April 1997, the departments of the Graduate School of from the view point of system creation. (reorganized from Department of Control Engineering) Department of Materials Engineering Science 1996 ― Department of Chemical Science and Engineering Department of Mechanical Science and Bioengineering (reorganized from Department of Chemistry and Department of Systems Innovation Department of Chemical Engineering) 2014 ― Center for Science and Technology School of Engineering Science Department of Information and Computer Sciences under Extreme Conditions (reorganized from Department of Information and Center for Promotion of The School of Engineering Science was established in There are four departments and each department has Computer Science and Common Chairs (Mathematical Science) Advanced Interdisciplinary Research April 1961. In April 1997, the School of Engineering Sci- two or three courses: Electronics and Materials Physics Graduate School of Engineering Science was 2016 ― Center for Spintronics Research Network ence was reorganized to develop engineering science （Division of Electronics, and Materials Physics）, Chemical reorganized as follows: 2017 ― Center for Industry-University Collaboration based on a new concept. The School of Engineering Sci- Science and Engineering（Division of Chemistry, and ence is characterized as an institution, which undertakes Chemical Engineering）, Systems Science（Division of Me- Successive Deans not only the exploration of novel aspects of engineering chanical Science, Systems Science and Applied Informat- that directly reflect modern developments in basic ics, and Biophysical Engineering） and Information and Shiro AKABORI (Apr. 1961 ～ Mar. 1962) Saburo TSUJI (Apr. 1992 ～ Mar. 1994) sciences, but the cultivation of new types of engineers Computer Sciences（Division of Computer Science, Soft- Kenjiro SHODA (Apr. 1962 ～ Mar. 1965) Koichi HATADA (Apr. 1994 ～ Mar. 1996) and scientists with a creative sense of technology. ware Science, and Mathematical Science）. Tokio UEMATSU (Apr. 1965 ～ Mar. 1969) Takao YOSHIKAWA (Apr. 1996 ～ Mar. 1998) Junkichi ITOH (Apr. 1969 ～ Jul. 1969) Hideo MIYAHARA (Apr. 1998 ～ Mar. 2000) Yoshifumi SAKURAI (Jul. 1969 ～ Mar. 1972) Satoshi HIYAMIZU (Apr. 2000 ～ Mar. 2002)

The inscription shown left is a congratulatory address written by Dr. Takeo NAGAMIYA (Apr. 1972 ～ Mar. 1974) Tadashi OKADA (Apr. 2002 ～ Mar. 2003) Shoda, the ﬁrst dean of the Faculty of Engineering Science, in cele- Toshio MAKIMOTO (Apr. 1974 ～ Mar. 1978) Naoshi SUZUKI (Apr. 2003 ～ Sep. 2003) bration of the tenth anniversary of the faculty. It reads： Shiichiro TERANISHI (Apr. 1978 ～ Mar. 1982) Shogo NISHIDA (Oct. 2003 ～ Aug. 2007) Fundamentally developing scientific technology by a fusion of science and Toshio FUJISAWA (Apr. 1982 ～ Mar. 1986) Yoshito TOBE (Aug. 2007 ～ Aug. 2011) engineering will create the true culture of humanity. Takashi KATAYAMA (Apr. 1986 ～ Mar. 1988) Yasuyuki OKAMURA (Aug. 2011 ～ Aug. 2013) November, 1971 Kenjiro SHODA Hidekazu FUKUOKA (Apr. 1988 ～ Mar. 1990) Genta KAWAHARA (Aug.2013 ～ Mar. 2017) Tadao KASAMI (Apr. 1990 ～ Mar. 1992) Yutaka KANO (Apr.2017 ～ )

2 Graduate School of Engineering Science/School of Engineering Science

Graduate School of Engineering Science

3 Graduate School of Engineering Science

Facilities Attached to Schools and Graduate School of Engineering Science Research Institutes Dept. Division Area Facilities Attached to Schools and Research Institutes Division Department of Electron Correlation Physics Materials Physics Center for Science and High-pressure Research Division Quantum Physics of Nanoscale Materials Technology under Advanced Electronics Division Materials Engineering Science Synthetic Chemistry Extreme Conditions Chemistry International Collaboration Division Molecular Organization Chemistry Materials Division of Quantum Optics Engineering Chemical Reaction Engineering Division of Emergent Materials Science Center for Promotion and Functions Chemical Engineering Environment and Energy System of Advanced Division of Collaborative Bioprocess Engineering Interdisciplinary Research with AIST Division of Collaborative Frontier Frontier Materials Research Research with NICT Materials Science Dynamics of Nanoscale Materials Division of Collaborative Research with SPring-8 Mechanics of Fluids and Thermo-fluids Nonlinear Mechanics Division of Spintronics Design Mechanics of Solid Materials and Development Research Center for Spintronics (Materials Design Facility) Mechanical Mechanical Propulsion Engineering Research Network Division of Spintronics Research Scienceand Engineering Mechano-informatics and Developments (Device Design Facility) The Department of Materials Engineering Science aims at interdisciplinary Bioengineering Biomechanical Engineering Industry-University Exchange researches and educations of skilled young scientists/engineers who can Facilities Atacched to Schools and Research Institutes Promotion Division Bioengineering Biophysical Engineering challenge new experimental and theoretical studies including developments Center for Industry- Industry-University Collaborative Biomedical and Biophysical Measurements University Collaboration Research Division and analyses of advanced new functional materials, new chemical processes, Industry-University Collaborative Advanced Electronics Solid State Electronics Education Division new technologies based on physics and chemistry. This department is com- and Advanced Quantum Devices and Electronics posed of 4 divisions, namely, Divisions of Materials Physics, Chemistry, Optical Science Optical Electronics Multidisciplinary Chemical Engineering and Frontier Materials Science. Research Laboratory System Theory Systems Systems Science and Applied Informatics System for Innovation Intelligent Systems Future Developments Mathematical Modelling ( ) Mathematical Science Division of Materials Physics Statistical Science

Mathematical Science Mathematical and Statistical Finance Advisement office for International Students for Social Systems Theoretical Systems Science Division of Chemistry

School of Engineering Science Related Facilities Division of Chemical Engineering Dept. Course Graduate School of Electronics Electronics and Materials Physics Information Science and Materials Physics Technology Division of Frontier Materials Science Chemistry Chemical Science and Engineering Graduate School of Chemical Engineering Frontier Bioscience Mechanical Science Collaboration Laboratories Systems Science Intelligent Systems Science Research Center for Solar Energy Chemistry Biophysical Engineering Computer Science Innovative quantum functions Information and Computer Sciences Software Science Mathematical Science Human Development and Environment Administration Staff Technical Staff General Affairs Section Technical Leader Technical Team (Mechanical) Mechanical Personnel Section （）Electronic Technical Team (Electronics) Accounting Section Technical Leader Research Development Section Technical Team (Materials and Biophysical) Head Assistant Head Material Biophysical Supplies Section （）Chemical Technical Team (Chemical) Student Affairs Section Graduate Students Section Departmental Offices As of October 1st, 2017

基礎工学部要覧_英文.indd 4 2018/02/19 19:27 Graduate School of Engineering Science

Mathematical Science Mathematical and Statistical Finance Advisement office for International Students for Social Systems Theoretical Systems Science Division of Chemistry

5 Department of Materials Engineering Science Division of Materials Physics

In this division, the cutting-edge studies of materials physics are performed in both experimental and theoretical fields. Along with the fundamental researches of the materials for advanced devices, studies of new materials and new phenomena, which are expected to contribute to the development of the frontier of physics, are widely carried out. The microscopic mechanisms of various interactions are investigated for a large class of materials in the bulk, surface, molecule, nanoscale and mesoscopic conditions, through new theoretical methods and models, and through the most advanced experimental methods such as synchrotron radiation spectroscopy and various probes under very low temperature. These results are also reflected in the development of new artificial materials of applicational interests. The characteristic feature of this area is the broad field of researches, which covers the creation of new materials and the development of new instruments and new methods, as well as the construction of new theories to clarify unknown phenomena and predict new observations. Futhermore, this feature is directly reflected on the education of new generations of researchers and engineers.

Area of Area of Quantum Physics of Electron Correlation Physics Nanoscale Materials ■Prof.：Satoshi FUJIMOTO, Akira SEKIYAMA, ■Prof.：Nobuyuki IMOTO, Yoshishige SUZUKI ■Assoc.Prof.：Takeshi MIZUSHIMA, ■Assoc.Prof.：Takashi YAMAMOTO, Takayuki KISS, Hidekazu MUKUDA Yusuke WAKABAYASHI, Shinji MIWA ■Assis.Prof.：Atsushi TSURUTA, ■Assis.Prof.：Rikizou IKUTA, Minori GOTO, Hidenori FUJIWARA, Mitsuharu YASHIMA, Hiromasa HANZAWA

Theory Group for Strongly Correlated Sys- Quantum Information and Quantum Optics tems: Basic research on materials science is devel- Group: Preparation, storage, processing, and trans- oped putting emphasis on the strongly correlated mission of quantum information are theoretically electron systems of metallic compounds including f-, studied, which also leads to new proposals of quan- d- and p-electrons. In particular, by clarifying the tum information processing. For this purpose, quan- mechanisms of unconventional behaviors of super- tum optics is also investigated including light-matter conductivity and magnetism that those compounds interaction and entanglement control. Experimental exhibit, new physical concepts and mechanisms are demonstrations of such proposals are also performed. Students grow ultra-thin metallic ﬁlms by molecular beam epitaxy. tried to be found. Experimental Group for Exploration of Func- Takao ONO (Add.) Condensed Matter Physics Group: First-Princi- Experiment Group for Spectroscopy of Cor- tional Materials: We investigate various electronic ples electronic structure calculations are carried out related Materials: In order to investigate detailed properties such as magnetism, electrical conductivity, Semiconductor Electronics Group: Semiconduc- to predict the materials properties appearing in vari- bulk electronic structures of strongly correlated elec- lattice distortion, and dielectric property in correlated tor quantum structures including hetero-interfaces ous condensed matter and surface systems. Develop- tron systems, such studies as photoemission and electron systems. By employing mutual interactions are fabricated, and their atomic and electronic struc- ments of theoretical and computational approaches soft-X ray absorption and their dichroisms, are per- among the above-mentioned properties, we develop tures are studied optically for applications to new are also performed. formed. New techiniques of cutting-edge bulk-sensi- novel magnetoelectric functionality. For this purpose, devices based on quantum eﬀects. tive photomission spectroscopy are also developed. we also perform materials design and synthesis.

Experimental Research Group for Elec- Experiment Group for Nano-spintronics: tron-correlated Matter Science: By means of Spin-transport and dynamics are investigated using microscopic NMR probe, the studies of correlated nano-sized crystals, molecules and single spin-state in electrons matter and giant molecules are performed, diamond. Based on fundamental understandings of focusing on the new phenomena such as high-tem- nano-sized magnets, novel spintronics devices are perature superconductivity, permanent magnetism, created and characterized. extremely slow dynamics in self-organized process of giant molecules and so on. Via these studies, a new Collaborative Chairs/ approach is proposed for the synthesis of frontier Area of materials. Quantum Materials Physics Condensed matter theory seminar ■Prof.：Kazuhiko MATSUMOTO (Add.), Tamio OGUCHI (Add.) ■Assoc.Prof.： Koichi INOUE (Add.), Koun SHIRAI (Add.) Study of ferroelectric materials in high-pres- ■Assis.Prof.： Kunihiko YAMAUCHI (Add.), sure and high-magnetic ﬁeld conditions Hiroyoshi MOMIDA (Add.), Yasushi KANAI (Add.), using superconducting magnet.

基礎工学部要覧_英文.indd 6 2018/01/26 19:25 Department of Materials Engineering Science Division of Materials Physics

7 Department of Materials Engineering Science

Division of Chemistry

Chemistry continues to be a fundamental field of science which is indispensable for the creation of materials with new functions and better performance, and is becoming more important with the advances of all fields of science and technology. Moreover, it will play a crucial role in the 21st century as a key technology to solve the important problems which confront contemporary life such as resources, environment, and energy. From these viewpoints, the Division of Chemistry is engaged in researches involving broad disciplines of chemical science and technology, including development of synthetic methods, creation of new materials with intelligent functions, and exploration of molecular organizations on surfaces as well as in biological systems in close collaboration with the Research Center for Solar Energy Chemistry. On the basis of the high level of research activities, the division is actively involved in graduate education with the focus on cultivating students' ability required not only in chemistry but also in the wide range of related fields.

Area of Synthetic Chemistry Area of Molecular Organization Chemistry Synthetic Organic Chemistry Group ■Prof.：Takeshi NAOTA Surface Chemistry Group ■Assoc.Prof.：Shuichi SUZUKI ■Prof.：Ken-ichi FUKUI ■Assis.Prof.：Soichiro KAWAMORITA ■Assoc.Prof.：Akihito IMANISHI This research group aims to provide a new chemis- ■Assis.Prof.： Ichiro TANABE try for the synthesis and synthetic methodologies of Our research interests are focused on the functions the highly functionalized organic and organometallic of interfaces that covert and store the energy. The molecules. The elucidation of selective organic trans- electric double layer (EDL) formed at electro- formations, studies on the chemical control of reac- lyte/electrode interfaces provides a field for electron tive intermediates, and creation of innovative organic transfer in batteries (electric energy) and reactions functional materials are categories of our interests. for catalysts (chemical energy). We aim to develop novel methodologies to obtain spatially and temporal- Physical Organic Chemistry Group ly resolved information of the EDL on the structure ■Prof.：Ryo SHINTANI and the electronic states at the molecular scale to Based on the development of new organic and cata- obtain the basic concepts which enable to develop Experiments in an organic chemistry laboratory lytic reactions, our research group focuses on the efficient energy storage devices. synthesis and functionalization of novel organic and To resolve the global problem continuously dwindling devices and environmental photocatalysts, we are main group organometallic compounds that are diffi- Biological Chemistry Group energy resources and environmental problems, we trying to develop novel photo-electrochemical energy cult to access by existing methods. In particular, for ■Prof.：Shigenori IWAI are studying fundamentals and applications of materi- conversion systems by the use of photo-functional the development of reactions, we aim to achieve pre- ■Assoc.Prof.：Junpei YAMAMOTO als and/or systems that will enable efficient utilization materials and photosynthetic organisms. cise controls through mechanistic studies. In addition ■Assis.Prof.：Miyako SHIRAISHI of solar energy, from the view point of electrochemis- to the synthesis of novel organic compounds, we also To understand the underlying principles of life, we try, photochemistry, and catalytic material chemistry. try to understand the relationship between molecu- are studying recognition and catalytic reactions of Specifically, aiming to apply photoelectric conversion lar structures and their functions through detailed biomolecules such as nucleic acids and proteins, from examination of their physical properties. a chemical point of view. Our aim is the elucidation of substrate recognition and reaction mechanisms of Synthetic Supramolecular Chemistry Group enzymes using synthetic chemistry of nucleic acids, ■Assoc.Prof.：Keiji HIROSE techniques in molecular biology, and analysis by To create new functional organic materials of optic spectroscopic measurements. One of our important and electronic interest, we investigate the synthesis targets is DNA damage (especially those formed by and functions of topologically novel π-electronic sys- ultraviolet light or reactive oxygen species) and tems, giant π-systems of a nanometer size regime, repair, and we hope to apply our basic research to and formation and function of two-dimensional pat- medical science. terns formed by self-assembly of π-conjugated molecules on surfaces based on molecular design. In addi- Collaborative Chairs/ tion, we study on the molecules which change their Area of molecular information responding to the external impetus to develop molecular machines and switches. Solar Energy Chemistry Research Center for Solar Energy Chemistry, Group of Solar Energy Conversion ■Prof.：Shuji NAKANISHI (Add.) Molecular structural study using a 500 MHz NMR spectrometer ■Assis.Prof.：Kazuhide KAMIYA (Add.)

8 Department of Materials Engineering Science

Division of Chemistry

9 Department of Materials Engineering Science Division of Chemical Engineering

The Division of Chemical Engineering covers the fundamental studies on elucidation of the phenomena in chemical conversion processes, which deal with material synthesis and separation, energy conversion and storage, and design and development of functional materials with high conversion eﬃciencies, as well as the application studies on the development of novel industrial processes including studies on solving energy and global environmental problems. The research projects are being conducted based on the latest information in chemistry, biochemistry, physics, mathematics, nanotechnology, biotechnology, computational science and quantum science, and the ﬁnal results obtained are integrated as new knowledge and methodologies, targeting the development of a sustainable society with recycle and reuse system which is friendly to environment on Earth. As the core of the research group, Program for Leading Graduate Schools "Interactive Materials Science Cadet Program", intensive researches and high-level education are being conducted to bring up young scientists and/or engineers who pioneer a new era, while keeping in close collaborations with the Research Center for Solar Energy Chemistry.

Area of Area of Environment and Chemical Reaction Engineering Energy System ■Prof.： Norikazu NISHIYAMA, ■Prof.： Nobuyuki MATUBAYASI, Absorptions of Masayoshi NAKANO, Koichiro JITSUKAWA Yasunori OKANO carbon dioxide into ionic liquid and of Assoc.Prof.：Yoshiaki UCHIDA, Assoc.Prof.：Kang KIM, Takato MITSUDOME ■ ■ hydrophobic solute Yasutaka KITAGAWA, Tomoo MIZUGAKI ■Assoc.Prof.：Takahiko BAN into micelle ■Assis.Prof.： Yuichiro HIROTA, Ryohei KISHI, ■Assis.Prof.：Ryosuke ISHIZUKA, Zen MAENO Atsushi SEKIMOTO, Takeshi SUGAHARA The Nanoreaction Engineering Group has the The Molecular-Aggregate Chemical Engineer- aim of developing new reaction and separation pro- ing Group focuses on aggregates of molecules such cesses using nano-structured materials. This group as solution, micelle, lipid membrane, protein, and glass. sophisticated bioreaction system, and it conducts ric chemosensors and probes for selective detection of focuses on (1) the synthesis of nanostructured materi- Through development of statistical-mechanical theory research on such topics as understanding and control hazardous ionic species and metal cations, as well as als such as nanoporous inorganic materials and liquid of solutions and large-scale molecular simulation, anal- of microbial consortia and intracellular metabolisms the development of novel nano-structured photofunc- crystals via self-organization and self-assembly, (2) yses of intermolecular interactions and tranport prop- for bio-production, reconstruction of three-dimensional tional materials. development of nano-scale reaction fields, and (3) erties are conducted to reveal and apply the principle tissues from individuall cells, and design of biocidal development of membrane separation and adsorption connecting the properties of individual molecules and materials and inactivation kinetics under heteroge- processes, (4) development of molecular technology to the functions of the aggregates. The Transport neous systems. design soft-mater, based on physical chemistry, reac- Phenomena Control Group develops the smart tion engineering and separation engineering. The control technology of transport phenomena encoun- Collaborative Chairs/ Quantum Chemical Engineering Group has tered in various chemical engineering processes by investigated quantum nonlinear optical and magnetic using the external forces such as rotation, magnetic Area of Solar Energy Chemistry properties of molecular systems, quantum dynamics, and electric fields. Furthermore, the phase interface ■Prof.：Takayuki HIRAI (Add.) and quantum transport phenomena of electrons and phenomena related with the Marangoni convection ■Assoc.Prof.：Yasuhiro SHIRAISHI (Add.) energy in supramolecular systems in view of their along interface between different phases, the self-pro- The Environmental Photochemical Engineering chemical structural dependence and interaction with pelled liquid and the stress relaxation on solid-liquid Group has the aim of advancing the research that environments by utilizing quantum chemistry and sta- interface are also investigated. will resolve the problems concerning energy resourc- tistical physics. The group aims to construct novel es and environmental pollution through the use of concepts in theoretical chemistry and to develop solar energy. This group researches the revolutionary guidelines for theoretical proactive design of quantum Area of Bioprocess Engineering technologies that use photochemical and photocatalyt- materials in the future electronics, photonics, spintron- ■Prof.：Hiroshi UMAKOSHI, Masahito TAYA, ic reactions towards the selective conversion of organ- ics, and biomaterials. The High Performance Cata- Shinji SAKAI ic materials, development of fluorescent and colorimet- lyst Group designs nano-structured metal catalysts ■Assoc.Prof.：Yukihiro OKAMOTO using inorganic crysatl composites and structurally ■Assis.Prof.：Keishi SUGA, Yang LIU, ordered organic polymers. The catalyst surface is Masaki NAKAHATA characterized at the atomic level using the latest The Bio-Inspired Chemical Engineering Group spectroscopic techniques. This group aims at the aims to establish a new chemical engineering inspired development of environmentally acceptable chemical by biological and bionic systems. This group focuses reactions utilizing the above catalysts, which can pro- on the creation of a new separation engineering utiliz- vide clean and simple alternative methods to replace ing “molecular recognition” based on physical chemis- hazardous synthetic routes with low atom utilization. try of “self-assembly system” (i.e. liposome membrane). This group exploits the self-assembly system as a “platform” to achieve the molecular recognition and is expanding it to the design and development of a variety of bio-inspired materials, such as artificial enzyme Spatial Correlation of Open-Shell Character, (nano-biomaterial), artificial organ (medical device), and Aromaticity, and Nonlinear Optical Property of nano-bioreactor (microfluidics). The Bioreaction En- Chemical Engineering Inspined by Bio-System. Indenofluorene gineering Group has the aim of establishing a

10 Department of Materials Engineering Science Division of Chemical Engineering

11 Department of Materials Engineering Science Division of Frontier Materials Science

optical devices with new functionalities by nanomate- Area of Frontier Materials rials. Further, we develop schemes for mechanically ■Prof.：Hirokazu TADA, Kazushi MASHIMA, manipulating nanomaterials by light, which would be Hajime ISHIHARA a new utilization of light in condensed matter phys- ■Assoc.Prof.：Ryo YAMADA, Hayato TSURUGI, ics and photochemistry. Creation of nanoscale struc- Koichi KUSAKABE tures of nanomaterials by the optical manipulation is ■Assis.Prof.：Tatsuhiko OHTO, Haruki NAGAE, our important aim. Tomohiro YOKOYAMA Area of Dynamics of Molecular Electronics Research Group: We are studying electric properties of molecular-based Nanoscale Materials and molecular-scale electronic devices. Our interest ■Prof.：Masaaki ASHIDA, Hiroshi MIYASAKA is focused on junction behavior at the interface ■Assoc.Prof.：Masaya NAGAI, Syoji ITO between molecules and electrodes for better under- ■Assis.Prof.：Yosuke MINOWA, standing of carrier injection and transport mecha- Hikaru SOTOME nisms in molecular systems. The well defined mole- Experimental Research Group for Coherence of cule-electrode interfaces are prepared and studied at Nanoscale Materials: In view of light-matter intermolecular-level with newly designed equipments action, we experimentally investigate the dynamics including scanning probe microscopes. and coherence of excited electrons, phonons and Organometallic Chemistry Group: Organometal- spins in nanoscale and low-dimensional materials of lic chemistry is transdisciplinary field between semiconductors, insulators and metals, strongly cor- organic and inorganic chemistry. New organometallic related electron systems, etc., by means of various compounds of transition metals have a rich chemis- kinds of spectroscopic methods. For example, try due to their unique chemical aspects including time-resolved spectroscopy, nonlinear optical spec- Femtosecond laser system with 15fs pulse duration chemical bonding, coordination modes, structure, and troscopy, coherent spectroscopy, single-particle spec- reactivity. Based on these fundamental works, we troscopy, cathodoluminescence spectroscopy, THz tion under a low-temperature and strong magnetic have developed chiral metal catalysts for synthesiz- time-domain spectroscopy, etc. have all been used. field, and the crystal structure analysis under high ing important building blocks of pharmaceutical com- Based on the above investigation, we also fabricate pressure are executed. There is a strong collabora- pounds along with functional organic compounds, new optical functional nanostructured materials. tion with the high-pressure division in the Center for and multinuclear metal cluster catalysts showing Experimental Research Group for Fluctuation Science and Technology under Extreme Conditions, unique chemoselectivity. Dynamics in Condensed Phase: The focus of our which has succeeded the long tradition of synthesiz- Theoretical Group for Materials Science: research is the ultrafast and space-resolved spectro- ing new materials and studying their properties by Developing methods and computational programs for scopic studies of photophysical and photochemical pro- means of the apparatus producing pressures exceed- first-principles electronic structure calculations, stud- cesses in solution and glasses. To elucidate the dynam- ing 1 Mbar. ies utilizing the numerical simulations are being ics of the solute-solvent interactions and fluctuation Fabrication of semiconductor single-crystalline microspheres made on the theoretical design of new materials and regulating the reaction profiles in chemical as well as with high sphericity by laser ablation in superfluid helium Collaborative Chairs/ White light lasing and transmission electron microscope devices with new functions and also on the search biological processes, solvation dynamics, energy relax- Area of Quantum Materials for and understanding of new physical phenomena ation, electron transfer, photo-dissociation, photochro- images with lattice fringes under extreme conditions. As results of the studies, mism and photoconductivity are under investigation. Engineering Science we have performed the design of nano-spintronics ■Prof.：Hidekazu TANAKA (Add.) materials based on transition metal compounds, Area of Quantum Science in ■Assoc.Prof.：Teruo KANKI (Add.) design of molecular electronics materials based on ■Assis.Prof.：Azusa HATTORI (Add.), carbon materials and organic molecules, and predic- Extreme Conditions Mahito YAMAMOTO (Add.) tion and understanding of structural phase transition, ■Prof.：Katsuya SHIMIZU (Add.) Experimetal Research Group for Materials superconducting transition, magnetic transition, etc. ■Assoc.Prof.：Tomoko KAGAYAMA (Add.) Engineering Science in Nano-structure: The induced by high pressure. ■Assis.Prof.：Yoshimi MITA(Add.) purpose of this group is to create function harmo- Theoretical Group for Photophysics in Nano- Experimental Research Group for Material nized nano-materials and nano-devices by using typi- materials: The nature of solids is determined by Science in Extreme Conditions: We performed cal "Bottom-up Nanotechnology” of ultra thin film/ constituent atoms and crystal structures. However, if the generation of combined extreme conditions (high artificial lattices, and "Top-down nanolithography" the size of solid is on the order of nanometers, mate- pressure, low temperature, and strong magnetic techniques toward new functional oxide nano-elec- rials show peculiar size- and shape-dependence as field) and the measurements of physical-properties at tronics based on strongly correlated oxides. “different materials.” Our research subjects are to these conditions. Educational research on the pres- investigate such peculiar properties of nanomaterials sure-induced superconductivity under a low-tempera- The glovebox to prepare organic devices with light and to realize novel properties of light and ture and high-pressure, the magnetic phase transi-

12 Department of Materials Engineering Science Division of Frontier Materials Science

In order to create the basic science and engineering in the twenty-first century, it is necessary to investigate the fabrication of frontier materials and their new functionality in combination with physics and chemistry, especially in the research field of nanoscale materials. In this Division, based on materials physics and molecular chemistry which have excellent theoretical and experimental frameworks, we not only investigate various kinds of electronic and optical properties of materials and their new phenomena but also fabricate new kinds of materials, thus providing active research and educational programs to graduate school students who will be able to open the frontier fields of multidisciplinary materials science and its applications as researchers and engineers of wide outlooks. optical devices with new functionalities by nanomate- Area of Frontier Materials rials. Further, we develop schemes for mechanically ■Prof.：Hirokazu TADA, Kazushi MASHIMA, manipulating nanomaterials by light, which would be Hajime ISHIHARA a new utilization of light in condensed matter phys- ■Assoc.Prof.：Ryo YAMADA, Hayato TSURUGI, ics and photochemistry. Creation of nanoscale struc- Koichi KUSAKABE tures of nanomaterials by the optical manipulation is ■Assis.Prof.：Tatsuhiko OHTO, Haruki NAGAE, our important aim. Tomohiro YOKOYAMA Area of Dynamics of Molecular Electronics Research Group: We are studying electric properties of molecular-based Nanoscale Materials and molecular-scale electronic devices. Our interest ■Prof.：Masaaki ASHIDA, Hiroshi MIYASAKA is focused on junction behavior at the interface ■Assoc.Prof.：Masaya NAGAI, Syoji ITO between molecules and electrodes for better under- ■Assis.Prof.：Yosuke MINOWA, standing of carrier injection and transport mecha- Hikaru SOTOME nisms in molecular systems. The well defined mole- Experimental Research Group for Coherence of cule-electrode interfaces are prepared and studied at Nanoscale Materials: In view of light-matter intermolecular-level with newly designed equipments action, we experimentally investigate the dynamics including scanning probe microscopes. and coherence of excited electrons, phonons and Organometallic Chemistry Group: Organometal- spins in nanoscale and low-dimensional materials of lic chemistry is transdisciplinary field between semiconductors, insulators and metals, strongly cor- organic and inorganic chemistry. New organometallic related electron systems, etc., by means of various compounds of transition metals have a rich chemis- kinds of spectroscopic methods. For example, try due to their unique chemical aspects including time-resolved spectroscopy, nonlinear optical spec- Femtosecond laser system with 15fs pulse duration chemical bonding, coordination modes, structure, and troscopy, coherent spectroscopy, single-particle spec- reactivity. Based on these fundamental works, we troscopy, cathodoluminescence spectroscopy, THz tion under a low-temperature and strong magnetic have developed chiral metal catalysts for synthesiz- time-domain spectroscopy, etc. have all been used. field, and the crystal structure analysis under high ing important building blocks of pharmaceutical com- Based on the above investigation, we also fabricate pressure are executed. There is a strong collabora- pounds along with functional organic compounds, new optical functional nanostructured materials. tion with the high-pressure division in the Center for and multinuclear metal cluster catalysts showing Experimental Research Group for Fluctuation Science and Technology under Extreme Conditions, unique chemoselectivity. Dynamics in Condensed Phase: The focus of our which has succeeded the long tradition of synthesiz- Theoretical Group for Materials Science: research is the ultrafast and space-resolved spectro- ing new materials and studying their properties by Developing methods and computational programs for scopic studies of photophysical and photochemical pro- means of the apparatus producing pressures exceed- first-principles electronic structure calculations, stud- cesses in solution and glasses. To elucidate the dynam- ing 1 Mbar. ies utilizing the numerical simulations are being ics of the solute-solvent interactions and fluctuation Fabrication of semiconductor single-crystalline microspheres made on the theoretical design of new materials and regulating the reaction profiles in chemical as well as with high sphericity by laser ablation in superfluid helium Collaborative Chairs/ White light lasing and transmission electron microscope devices with new functions and also on the search biological processes, solvation dynamics, energy relax- Area of Quantum Materials for and understanding of new physical phenomena ation, electron transfer, photo-dissociation, photochro- images with lattice fringes under extreme conditions. As results of the studies, mism and photoconductivity are under investigation. Engineering Science we have performed the design of nano-spintronics ■Prof.：Hidekazu TANAKA (Add.) materials based on transition metal compounds, Area of Quantum Science in ■Assoc.Prof.：Teruo KANKI (Add.) design of molecular electronics materials based on ■Assis.Prof.：Azusa HATTORI (Add.), carbon materials and organic molecules, and predic- Extreme Conditions Mahito YAMAMOTO (Add.) tion and understanding of structural phase transition, ■Prof.：Katsuya SHIMIZU (Add.) Experimetal Research Group for Materials superconducting transition, magnetic transition, etc. ■Assoc.Prof.：Tomoko KAGAYAMA (Add.) Engineering Science in Nano-structure: The induced by high pressure. ■Assis.Prof.：Yoshimi MITA(Add) purpose of this group is to create function harmo- Theoretical Group for Photophysics in Nano- Experimental Research Group for Material nized nano-materials and nano-devices by using typi- materials: The nature of solids is determined by Science in Extreme Conditions: We performed cal "Bottom-up Nanotechnology” of ultra thin film/ constituent atoms and crystal structures. However, if the generation of combined extreme conditions (high artificial lattices, and "Top-down nanolithography" the size of solid is on the order of nanometers, mate- pressure, low temperature, and strong magnetic techniques toward new functional oxide nano-elec- rials show peculiar size- and shape-dependence as field) and the measurements of physical-properties at tronics based on strongly correlated oxides. “different materials.” Our research subjects are to these conditions. Educational research on the pres- investigate such peculiar properties of nanomaterials sure-induced superconductivity under a low-tempera- The glovebox to prepare organic devices with light and to realize novel properties of light and ture and high-pressure, the magnetic phase transi-

13 Department of Materials Engineering Science Graduate School of Engineering Science

Department of Mechanical Science and Bioengineering

The Department of Mechanical Science and Bioengineering constitutes one department specializing a study of mechanical or dynamical "function" of man-made objects and/or nature including human bodies, along with the other two departments specializing "materials" and "systems." This Department organizes itself to endow students 1 2 with various programs of education and research on mechanical science and bioengi- 3 4 neering, and consists of three divisions: Division of Nonlinear Mechanics, Division of Mechanical Engineering and Division of Bioengineering. The programs at all three divisions emphasize the acquirement of fundamental knowledge and scientiﬁc skills with ethics. At the Division of Nonlinear Mechanics, discipline on various mechanics of ﬂuids, solids, etc. is bestowed from a viewpoint of nonlinear mechanics. Environ- ment/energy issues, functions of emerging materials, and mechanical behavior of structures are among the topics. At the Division of Mechanical Engineering, fundamental knowledge of mechanics are applied to developments of novel machines and reliable functions required for near-future space mission, robotics, intelligent material processing and manufacturing. At the Division of Bioengineering, biomechanical and biophysical studies are performed on the analyses of the structure and function of nano- to human-scaled living systems and their applications to biological and medical sciences, clinical medicine, assistive and rehabilitation technology, applied mechanics, photonics, and engineering.

Division of Nonlinear Mechanics

1 Preparation of organic devices

2 Apparatus for high-resolution hard x-ray excited photoemission spectroscopy Division of Mechanical Engineering

3 Bio-printing system for fabricating 3D tissue constructs with human cells 4 A cluster simulator to analyze atomic structures in nano-meter space. Division of Bioengineering Graphene functionalized by reactions at an oxide surface is displayed.

Collaboration Laboratories

Design Bionics

14 Department of Materials Engineering Science Graduate School of Engineering Science

Department of Mechanical Science and Bioengineering

Division of Nonlinear Mechanics

1 Preparation of organic devices

2 Apparatus for high-resolution hard x-ray excited photoemission spectroscopy Division of Mechanical Engineering

Collaboration Laboratories

Design Bionics

15 Department of Mechanical Science and Bioengineering Division of Nonlinear Mechanics

Research and education in the Division of Nonlinear Mechanics aim at establishing new fields of nonlinear mechanics from various mechanical phenomena and problems arising from man-made objects and/or nature, to create novel functions and machines, and at fostering students with such capabilities. Nonlinear mechanics uncover laws and principles underlying apparently complicated phenomena to describe the real world more precisely than the "linear mechanics." Specific examples range over chaos in turbulence, solitons in nonlinear waves, mesoscopic mechanics from micro- to nano-scales, localization of deformation, crack, fracture and so on. The Division consists of four groups specializing thermal engineering and science, fluid mechanics, fracture mechanics and solid mechanics with contributions to energy and environmental problems, new materials, and security against failure of mechanical systems. Visualization of hydrogen accumulation at the grain boundary in an aluminum alloy.

Mechanics of Fluids and Mechanics of Solid Materials Thermo-fluids Strength of Structure and Materials Group Thermal Engineering and Science Group ■Prof.：Hidetoshi KOBAYASHI ■Prof.：Genta KAWAHARA ■Assoc.Prof.：Keitaro HORIKAWA ■Assis.Prof.：Hideshi ISHIDA, Masaki SHIMIZU ■Assis.Prof.：Kenichi TANIGAKI This group performs fundamental researches on This group studies mechanical behavior of structure thermo-fluid phenomena and their application to and structural materials focusing on the effects of engineering problems. Research topics include eluci- impact loading and hydrogen. Specific topics are me- dation and control of structures, dynamics and statis- chanical behavior of materials and light structure tical properties of fully developed turbulent flows, such as metal and polymaer foams under impact prediction and control of subcritical transition to tur- loading, biomimetics for plant structure and materi- bulence, elucidation of transfer mechanisms of heat als, hydrogen embrittlment in aluminum alloys for and momentum in turbulent flows and its application high pressure hydrogen gas tank, elucidation of to heat transfer enhancement and drag reduction, hydrogen diffusion in metallic materials by means of description and control of turbulence dynamics using hydrogen microprint technique, development of unstable periodic motion, and chaotic behavior in nat- hydrogen permeation membranes, electromagnetic Mixing driven by the precession of Originally developed tripod-needle transducers. A quartz specimen ural convection fields. phenomena of rocks during impact deformation and a fluid container. is measured. phenomena induced by high-speed penetration into Fluid Mechanics Group granular medium and creation of new function in ■Prof.：Susumu GOTO ordinary materials by using catastrophic impact. ■Assoc.Prof.：Takao YOSHINAGA ■Assis.Prof.：Yosuke WATANABE, Solid Mechanics Group This group studies various nonlinear phenomena in ■Assis.Prof.：Nobutomo NAKAMURA fluid mechanics for their deep understanding and for Resonance of sound and ultrasound is studied to their engineering applications by means of effective evaluate functional and nano-scale materials, develop combination of mathematical analyses, laboratory novel sensors using resonance of piezoelectric mate- experiments and numerical simulations. The current rial, and investigate acoustical properties of glass. group studies the following specific topics: (1) trans- For example, we are working on development of the port and mixing in flows, (2) flows of complex fluids, non-contacting sensor that detects the morphological (3) turbulent flows at high Reynolds numbers, (4) change from discontinuous to continuous structure interfacial flows, (5) nonlinear waves and vibrations during film deposition and visualization of acoustic in fluid-structure systems, and so on. wave propagating in solid using a system consisting of micro glass beads. We are elucidating the physical acoustic phenomena for solids on the scale of 10-8 ‒ 10-2 m from the mechanical viewpoint.

Description of near-wall turbulence using unstable periodic motion.

基礎工学部要覧_英文.indd 16 2018/01/26 19:25 Department of Mechanical Science and Bioengineering Division of Nonlinear Mechanics

Mechanics of Fluids and Mechanics of Solid Materials Thermo-fluids Strength of Structure and Materials Group Thermal Engineering and Science Group ■Prof.：Hidetoshi KOBAYASHI ■Prof.：Genta KAWAHARA ■Assoc.Prof.：Keitaro HORIKAWA ■Assis.Prof.：Hideshi ISHIDA, Masaki SHIMIZU ■Assis.Prof.：Kenichi TANIGAKI This group performs fundamental researches on This group studies mechanical behavior of structure thermo-fluid phenomena and their application to and structural materials focusing on the effects of engineering problems. Research topics include eluci- impact loading and hydrogen. Specific topics are me- dation and control of structures, dynamics and statis- chanical behavior of materials and light structure tical properties of fully developed turbulent flows, such as metal and polymaer foams under impact prediction and control of subcritical transition to tur- loading, biomimetics for plant structure and materi- bulence, elucidation of transfer mechanisms of heat als, hydrogen embrittlment in aluminum alloys for and momentum in turbulent flows and its application high pressure hydrogen gas tank, elucidation of to heat transfer enhancement and drag reduction, hydrogen diffusion in metallic materials by means of description and control of turbulence dynamics using hydrogen microprint technique, development of unstable periodic motion, and chaotic behavior in nat- hydrogen permeation membranes, electromagnetic Mixing driven by the precession of Originally developed tripod-needle transducers. A quartz specimen ural convection fields. phenomena of rocks during impact deformation and a fluid container. is measured. phenomena induced by high-speed penetration into Fluid Mechanics Group granular medium and creation of new function in ■Prof.：Susumu GOTO ordinary materials by using catastrophic impact. ■Assoc.Prof.：Takao YOSHINAGA ■Assis.Prof.：Yosuke WATANABE, Solid Mechanics Group This group studies various nonlinear phenomena in ■Prof.：●●●●● fluid mechanics for their deep understanding and for ■Assoc.Prof.：●●●●● their engineering applications by means of effective ■Assis.Prof.：Nobutomo NAKAMURA combination of mathematical analyses, laboratory Resonance of sound and ultrasound is studied to experiments and numerical simulations. The current evaluate functional and nano-scale materials, develop group studies the following specific topics: (1) trans- novel sensors using resonance of piezoelectric mate- port and mixing in flows, (2) flows of complex fluids, rial, and investigate acoustical properties of glass. (3) turbulent flows at high Reynolds numbers, (4) For example, we are working on development of the interfacial flows, (5) nonlinear waves and vibrations non-contacting sensor that detects the morphological in fluid-structure systems, and so on. change from discontinuous to continuous structure during film deposition and visualization of acoustic wave propagating in solid using a system consisting of micro glass beads. We are elucidating the physical acoustic phenomena for solids on the scale of 10-8 ‒ 10-2 m from the mechanical viewpoint.

Description of near-wall turbulence using unstable periodic motion.

17 Department of Mechanical Science and Bioengineering Division of Mechanical Engineering

The goal of this area is to help progress "Engineering Science" by focusing on challenges requiring fundamental solutions, such as the highly reliable engine systems which play important roles in space development in the near future, the development of DNA devices for bionanotechnology, the intelligent information processing necessary for creating new artiﬁcial commodities, and the advanced material processing and manufacturing technologies.

man-like musculoskeletal robots, human skills trans- Propulsion Engineering fer to robots, robotic orthosis, assistance system for Molecular Fluid Dynamics Group single-incision laparoscopic surgery. ■Prof.：Satoyuki KAWANO ■Assoc.Prof.：Kentaro DOI Theoretical Solid Mechanics Group ■Assis.Prof.：Tetsuro TSUJI ■Prof.：Shigenobu OGATA Kawano laboratory carries out research on the ■Assoc.Prof.：Hajime KIMIZUKA motion of plasma flow, including electrons, ions and ■Assis.Prof.：Akio ISHII atoms. We are trying to develop the mathematical We are developing predictive nonlinear multiscale models and the computational scheme for advanced and multiphysics theory and modeling for solid-state technology with industrial applications. We aim to materials, which realizes fundamental understanding make further scientific research and contribute of materials behavior under various physical fields directly to the industrial field through the develop- and predicting and designing new functional solid ments of multi-scale/ multi-physics analysis of bio-na- structures and materials. We are now focusing on 1) no fluid dynamics, numerical design for electronic understanding physical, chemical, and mechanical devices and micro medical devices. properties of nano-scale devices using theoretical chemo-bio-electromechanics multiscale and multiph- Musculoskeletal robots as a testbed for studying motor control by humans Fluids Engineering Research Group ysics modeling, 2) predicting material properties ■Prof.：Kazuyasu SUGIYAMA under extreme pressure, speed and temperature con- ■Assoc.Prof.：Hironori HORIGUCHI ditions, 3) designing new functional nanocomposite ■Assis.Prof.：Tomoaki WATAMURA polymers and bio-materials, and 4) controlling brittle We are developing prediction and measurement materials processing. methods for a variety of fluid flow problems associated with practical applications. We are experimentally, theoretically and numerically studying on the phenomena in view of the avoidance of the negative effect, the utilization of the passive/positive functions, and the optimized control. The research inter- Schematic illustrations of double-stranded DNA (left) Flow pattern driven by bubbles in drinks and the transi- ests include the elucidation of multiphase/cavitating and base sequencing of single-stranded DNA by using tion mechanism flow phenomena, the development of large-scale/mul- nanogap electrodes (right). tiscale analysis and data assimilation method, and the development of state-of-the-art fluid machineries.

Mechano-informatics Robotics and Mechatronics Group ■Prof.：Fumio MIYAZAKI ■Assoc.Prof.：Hiroaki HIRAI ■Assis.Prof.：Mitsunori UEMURA This group uses robots as a testbed for studying the functions of living organisms including humans with the ultimate aim of utilizing these functions in inte- Massively parallel computing of gas-liquid-solid Experimental measurement system of molecular ﬂow grated systems. Research interests are on human-ro- Multi-Scale and Multi-Physics Solid-State Materials three-phase ﬂows dynamics using micro/nano-channels (left) and sche- Modeling bot interface, analysis of human movements, hu- matics of the experiments (right).

18 Department of Mechanical Science and Bioengineering Division of Mechanical Engineering

19 Department of Mechanical Science and Bioengineering Division of Bioengineering

We are mainly focusing on bioengineering analyses of the structure and function of living systems in nano- to Biomedical and macro-scopic multiple scales and their applications to biological and medical sciences, clinical medicine, applied mechanics, and engineering. Our major research and educational fields are as follows: structural analyses, Biophysical Measurements biophysics, and biomechanics of biological materials and tissues; analyses of the principles and mechanisms of Molecular BioMeasurement Group biological functions, and structure-function relationships in bio-machinary units; model analyses of living systems ■Prof.：Shinji DEGUCHI and systemic analyses of human body motion; biomedical and biophysical measurements, cellular and molecular ■Assoc.Prof.：Tsubasa MATSUI bioengineering, and medical informatics; Big data analysis of medical and biological information, healthcare ■Assis.Prof.：Shuichiro FUKUSHIMA applications of wearable IoT devices; and developments of optimal design methods and techniques based on The research topics that we are investigating are: 1) biomimetics. Molecular and biophysical mechanisms underlying the cellular response and adaptation to physical environment, 2) biophysical properties of individual cells and protein complexes, 3) experimental and Biomechanical Engineering Biophysical Engineering image-based visualization of intracellular forces that Biomechanics Group Bio-Dynamics Group individual cells or cell clusters generate, 4) develop- ■Prof.：Shigeo WADA ■Prof.：Taishin NOMURA ment of high-throughput screening systems to identi- ■Assoc.Prof.：Kenichiro KOSHIYAMA ■Assis.Prof.：Yasuyuki SUZUKII, fy genes/drugs that regulate cellular mechanobiologi- ■Assis.Prof.：Naoki TAKEISHI Masanori SHIMONO, Hirohiko NIIOKA, cal functions, and 5) biomechanics of animal vocaliza- We are investigating the biomechanical structure Seiichi TAGAWA tion. and functions from cells to organisms by means of We aim at establishing a bridge between changes in Large database analysis of heart rate variability and computational and experimental approaches. The state of living organisms and emergence of bio-func- Bioimaging Group meteorological observation current topics are: 1) Microbiomechanics of tissue tions. We focus on bio-dynamics associated with ■Prof.：Osamu OSHIRO and cells, 2) Multi-scale analysis of blood flow, 3) dynamic stability and their destabilization. Research ■Assoc.Prof.：Yoshihiro KURODA Rule-based simulation of vascular disease progres- topics include biosignal acquisition and analysis, ■Assis.Prof.：Shunsuke YOSHIMOTO sion, 4) Advance in clinical diagnosis of lung and mathematical modeling of bio-functions including We will challenge to generate the transdisciplinary heart diseases by computational biomechanics. human motor control (biped standing and locomo- field based on biomedical engineering and ICT. The tion), and development of an open-platform for physi- main researches focus on the active presentation of Mechanical and ome. Medical applications are also addressed. various biomedical organization, for example, DNA, Bioengineering Systems Group protein, cell, tissue, organ and so on. Furthermore, ■Prof.：Masao TANAKA Biophysics and Data Science Group we have been studying to construct the complex ■Assoc.Prof.：Yo KOBAYASHI ■Prof.：Ken KIYONO space with CG / VR technology, simulate biomedical ■Assis.Prof.：Tomohiro OTANI The main research focus of our group is to develop phenomenon based on phsical theory and share bio- The topics studied include: 1) Modeling and analysis methods to analyze biosignal and clinical big data informatics via Internet. for orthopedic and orthodontic biomechanics, 2) Coro- from the viewpoint of mathematical physics and data nary microcirculation and artificial red blood cells, 3) science. In addition, through the real-time integration Human body motion analysis for design/evaluation of of biosignal information measured by wearable IoT assistive rehabilitation devices, 4) Optimality analysis devices, clinical big data and environmental informa- New technologies to measure molecular and biophysical of bone tissue/structure and design optimization of tion, we are developing healthcare cyber-physical properties of individual cells and protein complexes adaptive structural system, 5) Assistant system for systems to achieve effective health and safety man- smart structure/mechanism design, and so on. agements.

Human Mechano-Informatics Group ■Guest Prof.：Yasukazu YOSHIDA A study on the estimation of a stress state or a living state of a person by analyzing a long term record of a physiological response or the living behavior in everyday life is carried out. This study aims to enable the realization of a personal health care and a personal life support by detecting the change of individual living state in a daily life.

Measuring human biped gait for understanding functions of erector spinae muscles using multi-link rigid body Computer aided-medicine of the lung respiration Bioimaging modeling

基礎工学部要覧_英文.indd 20 2018/01/26 19:26 Department of Mechanical Science and Bioengineering Division of Bioengineering

We are mainly focusing on bioengineering analyses of the structure and function of living systems in nano- to Biomedical and macro-scopic multiple scales and their applications to biological and medical sciences, clinical medicine, applied mechanics, and engineering. Our major research and educational fields are as follows: structural analyses, Biophysical Measurements biophysics, and biomechanics of biological materials and tissues; analyses of the principles and mechanisms of Molecular BioMeasurement Group biological functions, and structure-function relationships in bio-machinary units; model analyses of living systems ■Prof.：Shinji DEGUCHI and systemic analyses of human body motion; biomedical and biophysical measurements, cellular and molecular ■Assoc.Prof.：Tsubasa MATSUI bioengineering, and medical informatics; Big data analysis of medical and biological information, healthcare ■Assis.Prof.：Shuichiro FUKUSHIMA applications of wearable IoT devices; and developments of optimal design methods and techniques based on The research topics that we are investigating are: 1) biomimetics. Molecular and biophysical mechanisms underlying the cellular response and adaptation to physical environment, 2) biophysical properties of individual cells and protein complexes, 3) experimental and Biomechanical Engineering Biophysical Engineering image-based visualization of intracellular forces that Biomechanics Group Bio-Dynamics Group individual cells or cell clusters generate, 4) develop- ■Prof.：Shigeo WADA ■Prof.：Taishin NOMURA ment of high-throughput screening systems to identi- ■Assoc.Prof.：Kenichiro KOSHIYAMA ■Assis.Prof.：Yasuyuki SUZUKII, fy genes/drugs that regulate cellular mechanobiologi- We are investigating the biomechanical structure Masanori SHIMONO, Hirohiko NIIOKA, cal functions, and 5) biomechanics of animal vocaliza- and functions from cells to organisms by means of Seiichi TAGAWA tion. computational and experimental approaches. The We aim at establishing a bridge between changes in Large database analysis of heart rate variability and current topics are: 1) Microbiomechanics of tissue state of living organisms and emergence of bio-func- Bioimaging Group meteorological observation and cells, 2) Multi-scale analysis of blood flow, 3) tions. We focus on bio-dynamics associated with ■Prof.：Osamu OSHIRO Rule-based simulation of vascular disease progres- dynamic stability and their destabilization. Research ■Assoc.Prof.：Yoshihiro KURODA sion, 4) Advance in clinical diagnosis of lung and topics include biosignal acquisition and analysis, ■Assis.Prof.：Shunsuke YOSHIMOTO heart diseases by computational biomechanics. mathematical modeling of bio-functions including We will challenge to generate the transdisciplinary human motor control (biped standing and locomo- field based on biomedical engineering and ICT. The Mechanical and tion), and development of an open-platform for physi- main researches focus on the active presentation of Bioengineering Systems Group ome. Medical applications are also addressed. various biomedical organization, for example, DNA, ■Prof.：Masao TANAKA protein, cell, tissue, organ and so on. Furthermore, ■Assoc.Prof.：Yo KOBAYASHI Biophysics and Data Science Group we have been studying to construct the complex ■Assis.Prof.：Tomohiro OTANI ■Prof.：Ken KIYONO space with CG / VR technology, simulate biomedical The topics studied include: 1) Modeling and analysis The main research focus of our group is to develop phenomenon based on phsical theory and share bio- for orthopedic and orthodontic biomechanics, 2) Coro- methods to analyze biosignal and clinical big data informatics via Internet. nary microcirculation and artificial red blood cells, 3) from the viewpoint of mathematical physics and data Human body motion analysis for design/evaluation of science. In addition, through the real-time integration assistive rehabilitation devices, 4) Optimality analysis of biosignal information measured by wearable IoT of bone tissue/structure and design optimization of devices, clinical big data and environmental informa- New technologies to measure molecular and biophysical adaptive structural system, 5) Assistant system for tion, we are developing healthcare cyber-physical properties of individual cells and protein complexes smart structure/mechanism design, and so on. systems to achieve effective health and safety man- agements. Human Mechano-Informatics Group ■Guest Prof.：Yasukazu YOSHIDA A study on the estimation of a stress state or a living state of a person by analyzing a long term record of a physiological response or the living behavior in everyday life is carried out. This study aims to enable the realization of a personal health care and a personal life support by detecting the change of individual living state in a daily life.

Measuring human biped gait for understanding functions of erector spinae muscles using multi-link rigid body Computer aided-medicine of the lung respiration Bioimaging modeling

21 Department of Mechanical Science and Bioengineering Graduate School of Engineering Science

Department of Systems Innovation

The Department of Systems Innovation aims at interdisciplinary education and research to train the skilled people who can play an important part in the progress of the current information society with the wide knowledge ranging from device engineering to systems integration. In this department, education and research covering a wide range from hardware technology to systems design and analysis, such as elec- 1 2 tronics, systems science and mathematical science, are carried out. This department 3 is composed of the Division of Advanced Electronics and Optical Science, the Division of Systems Science and Applied Informatics, the Division of Mathematical Science, and the Division of Mathematical Sciences for Social Systems newly started as an interdisciplinary division. The Division of Advanced Electronics and Optical Science is mainly devoted to develop novel electronics technology which serves as a base of the developing a high information society. In this division, education and research in advanced technology extending from nanoelectronics to echo-friendly electronics, such as novel solid state devices and processing, functional quantum devices and quantum information, optical and quantum electronics, are carried out. The Division of Systems Science and Applied Informatics aims to obtain intelligence and high quality functions for rapidly growing and complicated systems. It focuses on the education and research of basic theories and their applications which offer tools for analysis and design of intelligent systems and complicated systems, where human beings play important roles, by integrating system theory, information processing, media, sensing, and robotics technologies. The Division of Mathematical Science carries out training and research in order to understand practical phenomena which occur in the fields of natural science, social 1 Evaluation of Mechanical Characteristics of Clever Structures in Plants science, technology, medical science and so on. The methodologies are concocted by left-upper ) Corrugated hornbeam leaf constructing mathematical models, analyzing them, diagnosing the models and reana- left-lower ) Paper model of a corrugated leaf lyzing them based on the recent development of computer hardware and software. right-upper ) Vein structure observed in Santa Cruz water lily leaf The Division of Mathematical Sciences for Social Systems is concerned mainly with right-lower ) Santa Cruz water lily leaves covering water surface research and education in advanced mathematical approaches to analyze and design complicated social systems, such as financial economics and networked society by integrating stochastic analysis, statistical inference and decision theory, systems 2 Fluid flows including gas-liquid interface theory, and operations research. upper) Experimental snapshot of cavitation in an inducer lower) Simulated snapshot of bubbly turbulent flow in a channel

3 Rehabilitation engineering. Division of Advanced Electronics and Optical Science Left: Stiﬀness measurement of ankle joint. Center: Prototype of iAFO (intelligent ankle foot orthosis). Division of Systems Science and Applied Informatics Right: Walk model and simulation with prosthetic left limb. Division of Mathematical Science Division of Mathematical Science for Social Systems Collaboration Laboratories Advanced Sensor Electronics

22 Department of Mechanical Science and Bioengineering Graduate School of Engineering Science

Department of Systems Innovation

23 Department of Systems Innovation Division of Advanced Electronics and Optical Science

The future prospects for society in the twenty first century are to construct a stable network of information and ■Assis.Prof.：Shintaro HISATAKE energy with high quality. This division is devoted firstly to the creation and innovation of new structures, new Microwaves and lightwaves have been widely used phenomena and new functions related to electronic and photonic devices, and the elucidation of physics of for mobile phones and optical fiber communications, materials used in the devices. Next, advanced research and development of process technology and device design respectively. The electromagnetic-wave regions are being carried out widely. Moreover, the smart system, utilizing the developed devices, is created for the located between these waves are referred to as milli- human interface. By education through these research, excellent researchers and technical experts supporting meter waves and terahertz waves, which have future science and civilization as well as fusion of science and technology are cultivated. remained undeveloped in this 21-st century. We aim at developing these new electromagnetic-wave regions by employing advanced electronics and photonics technologies to explore applications in future communications and sensing. Area of Area of Advanced Quantum Solid State Electronics Devices and Electronics Quantum electronics Group ■Assoc.Prof.：Utako TANAKA Terahertz wireless communication systems and their Nano-electronics Group Advanced Quantum Device System Group ■Assis.Prof.：Kenji TOYODA integrated devices ■Prof.：Akira SAKAI ■Assoc.Prof.：Hideo AKABA The following subjects are studied in this group: (i) ■Assoc.Prof.：Tetsuya TOHEI ■Assis.Prof.：Yuji MIYATO Trapping and laser cooling of ions, and high-resolu- ■Assis.Prof.：Shotaro TAKEUCHI Research and development of quantum sensing tech- tion spectroscopy of trapped ions, with the aim of The nanoelectronics group focuses on the research nologies such as high sensitive magnetic sensing application to frequency standards of the next gener- and education of science and technology associated with superconducting quantum interference devices, ation and quantum information processing. (ii) Devel- with thin film and nano-structure growth of novel material inspection with nuclear magnetic resonance opment of light sources for laser cooling, especially electronic and optoelectronic materials, atomic scale or nuclear quadrupole resonance, and liquid scanning those in the deep UV region. characterization of material properties, and with near infrared absorption spectroscopy.（These nano-scale fabrication and substrate engineering for technologies will be useful for various applications of Area of Advanced Electronics next generation wide-bandgap semiconductors. non-destructive testing and stand-off sensing repre- Under Extreme Conditions sented by baggage screening in security check.） Nanostructure Physics Group ■Prof.：Masayuki ABE (Add.) ■Prof.：Yoshiaki NAKAMURA Advanced Quantum Information Device Group ■Assoc.Prof.：Fujio WAKAYA (Add.) ■Assoc.Prof.：Kiminori HATTORI ■Prof.：Masahiro KITAGAWA ■Assis.Prof.：Satoshi ABO (Add.), ■Assis.Prof.：Kentaro WATANABE, ■Assis.Prof.：Akinori KAGAWA, Makoto NEGORO, Hayato YAMASHITA (Add.) Yasushi SOBAJIMA Naoki ICHIJO The group focuses on developing methods for The group designs and fabricates state-of-the-art The group is engaged in the pioneering research of observing nano-structure and single atoms using nano-structural materials with novel physical proper- quantum computers which may revolutionize infor- scanning probe, electron beam, ion beam, and laser ties using nanotechnology based on semiconductor mation processing by taking full advantage of quan- beam. These methods are applied not only to materi- physics, and quantum physics. For utilization and tum mechanics. The group focuses on the research, al science but also to nano-biology field. The group control of waste heat energy, the group focuses on development and education of quantum information aims at construction of new scientific principle in thermoelectric power generation material research devices for nuclear and/or electron spins in mole- these fields. for green energy and nano-material development for cules and novel NMR / ESR methodology and devic- thermal management. The group is also involved in es. leading-edge measurement method development. Area of Optical Electronics Nano-physics Device Group ■Prof.：Kohei HAMAYA Microwave Photonics Group ■Assoc.Prof.：Takeshi KANASHIMA ■Prof.：Atsushi SANADA ■Assis.Prof.：Shinya YAMADA ■Assoc.Prof.：Hiroshi MURATA For developing ultra-low power consumption devices, ■Assis.Prof.：Hidehisa SHIOMI we have studied spin-based electronics, i.e., spintron- The research group focuses on science and engineer- triplet-DNP/NMR magnetic field cycling system. ics. In particular, study of semiconductor spintronics ing of artificial metamaterials. Theory and applications is a main research target of our group. As recent for innovative materials with unusual properties that research subjects, we focus on the technology based cannot be found in natural materials such as invisibili- on crystal growth of spintronics-material thin films ty cloaks are explored in the microwave to optical and on exploring novel functional physics based on frequency regions. the spintronics materials. Information Photonics Group ■Prof.：Tadao NAGATSUMA Nanobeam X-ray diffraction experiment in SPring-8 ■Assoc.Prof.：Masayuki FUJITA

24 Department of Systems Innovation Division of Advanced Electronics and Optical Science

The future prospects for society in the twenty first century are to construct a stable network of information and Microwaves and lightwaves have been widely used Uncompressed 4K video Diplexer RTD Tx THz integrated circuit based on energy with high quality. This division is devoted firstly to the creation and innovation of new structures, new for mobile phones and optical fiber communications, photonic crystals wireless transmission using RTD Tx and Rx 1 mm 1 mm phenomena and new functions related to electronic and photonic devices, and the elucidation of physics of respectively. The electromagnetic-wave regions 4K Monitor materials used in the devices. Next, advanced research and development of process technology and device design located between these waves are referred to as milli- 5 mm RTD Rx 100 RTD are being carried out widely. Moreover, the smart system, utilizing the developed devices, is created for the meter waves and terahertz waves, which have μm

1 mm RTD RTD human interface. By education through these research, excellent researchers and technical experts supporting remained undeveloped in this 21-st century. We aim 1 mm Tx Rx Grating 1 cm future science and civilization as well as fusion of science and technology are cultivated. at developing these new electromagnetic-wave coupler THz receiver for 330-GHz band regions by employing advanced electronics and pho- Eye diagram of THz wireless communication tonics technologies to explore applications in future 100 m transmission (50 Gbps) communications and sensing.

High gain antenna Area of Area of Advanced Quantum Quantum electronics Group Solid State Electronics Devices and Electronics ■Prof.：Takashi MUKAIYAMA ■Assoc.Prof.：Utako TANAKA Terahertz wireless communication systems and their Nano-electronics Group Advanced Quantum Device System Group ■Assis.Prof.：Kenji TOYODA integrated devices ■Prof.：Akira SAKAI ■Assoc.Prof.：Hideo AKABA The following subjects are studied in this group: (i) ■Assoc.Prof.：Tetsuya TOHEI ■Assis.Prof.：Yuji MIYATO Trapping and laser cooling of ions, and high-resolu- ■Assis.Prof.：Shotaro TAKEUCHI Research and development of quantum sensing tech- tion spectroscopy of trapped ions, with the aim of The nanoelectronics group focuses on the research nologies such as high sensitive magnetic sensing application to frequency standards of the next gener- and education of science and technology associated with superconducting quantum interference devices, ation and quantum information processing. (ii) Devel- with thin film and nano-structure growth of novel material inspection with nuclear magnetic resonance opment of light sources for laser cooling, especially electronic and optoelectronic materials, atomic scale or nuclear quadrupole resonance, and liquid scanning those in the deep UV region. characterization of material properties, and with near infrared absorption spectroscopy.（These nano-scale fabrication and substrate engineering for technologies will be useful for various applications of Area of Advanced Electronics next generation wide-bandgap semiconductors. non-destructive testing and stand-off sensing repre- Under Extreme Conditions sented by baggage screening in security check.） Nanostructure Physics Group ■Prof.：Masayuki ABE (Add.) ■Prof.：Yoshiaki NAKAMURA Advanced Quantum Information Device Group ■Assoc.Prof.：Fujio WAKAYA (Add.) ■Assoc.Prof.：Kiminori HATTORI ■Prof.：Masahiro KITAGAWA ■Assis.Prof.：Satoshi ABO (Add.), ■Assis.Prof.：Kentaro WATANABE, ■Assis.Prof.：Akinori KAGAWA, Makoto NEGORO, Hayato YAMASHITA (Add.) Yasushi SOBAJIMA Naoki ICHIJO The group focuses on developing methods for The group designs and fabricates state-of-the-art The group is engaged in the pioneering research of observing nano-structure and single atoms using nano-structural materials with novel physical proper- quantum computers which may revolutionize infor- scanning probe, electron beam, ion beam, and laser ties using nanotechnology based on semiconductor mation processing by taking full advantage of quan- beam. These methods are applied not only to materi- physics, and quantum physics. For utilization and tum mechanics. The group focuses on the research, al science but also to nano-biology field. The group control of waste heat energy, the group focuses on development and education of quantum information aims at construction of new scientific principle in thermoelectric power generation material research devices for nuclear and/or electron spins in mole- these fields. for green energy and nano-material development for cules and novel NMR / ESR methodology and devic- thermal management. The group is also involved in es. leading-edge measurement method development. Area of Optical Electronics Nano-physics Device Group ■Prof.：Kohei HAMAYA Microwave Photonics Group ■Assoc.Prof.：Takeshi KANASHIMA ■Prof.：Atsushi SANADA ■Assis.Prof.：Shinya YAMADA ■Assoc.Prof.：Hiroshi MURATA For developing ultra-low power consumption devices, ■Assis.Prof.：Hidehisa SHIOMI we have studied spin-based electronics, i.e., spintron- The research group focuses on science and engineer- triplet-DNP/NMR magnetic field cycling system. ics. In particular, study of semiconductor spintronics ing of artificial metamaterials. Theory and applications is a main research target of our group. As recent for innovative materials with unusual properties that research subjects, we focus on the technology based cannot be found in natural materials such as invisibili- on crystal growth of spintronics-material thin films ty cloaks are explored in the microwave to optical and on exploring novel functional physics based on frequency regions. the spintronics materials. Information Photonics Group ■Prof.：Tadao NAGATSUMA Nanobeam X-ray diffraction experiment in SPring-8 ■Assoc.Prof.：Masayuki FUJITA

基礎工学部要覧_英文.indd 25 2018/02/19 19:28 Department of Systems Innovation Division of Systems Science and Applied Informatics

This division aims to obtain intelligence and high quality functions for rapidly grown and complicated systems. Pattern Measurement Group According to our educational policy, graduate students are qualiﬁed to obtain various aspects of knowledge on ■Prof.：Kosuke SATO systems science and powerful computer literacy based on applied mathematics, technical English, a variety of ■Assoc.Prof.：Daisuke IWAI liberal arts, and to master the abilities of developing unique ideas with their own observations, making ■Assis.Prof.：Haruka MATSUKURA persuasive presentation, and creating a new area of engineering science. Research interests are intelligent sensing systems for pattern analysis and media/human understanding. Research activities include mixed and augmented reality, human-computer interaction, haptic interface, and 3D digital archives with 3D and human sensing.

Area of System Theory Area of Intelligent Systems Systems science plays a fundamental role in model- The area focuses on research and education of sensing, analysis, design, control, optimization, and evalu- ing, pattern recognition, environment understanding, ation of large and complex systems that often arise adaptive control, and coordinated motion to create in engineering and scientific problems. This area intelligent systems like autonomous robots as well as focuses on research and education on systems human interface, communication, and media technol- Integrated Limb Mechanism Robot ASTERISK. theory, control theory, and signal processing theory ogies to achieve the smooth interactions of human The Integrated Limb Mechanism (ILM) concept deals with a dual arm-leg integrating the leg for locomotion with applications to mechanical, electrical, electronic， with another or a computer in both aspects of soft- and the arm for manipulation, while it enables a robot, or other systems to create flexible and intelligent ware and hardware. for example, to operate flexibly in different work and systems based on a systems science approach. situations, dual use requires that components are com- Applied Robotics Group pact and mobile. Adaptive Robotics Group ■Assoc.Prof.：Yasushi MAE ■Prof.：Koh HOSODA ■Assis.Prof.：Masaru KOJIMA ■Assoc.Prof.：Masahiro SHIMIZU Novel mechanisms and intelligent controls for smart ■Assis.Prof.：Shuhei IKEMOTO robots and their applications are studied to achieve Evaluation System of Human Sense of Security for This group studies adaptive behavior emerging from "Human and Earth Friendly Society, including Robots a bio-mimetic compliant body, on muscular-skeletal dependable robotics, micro robotics applied in bio robots, bio-machine hybrid robots, and bio-inspired fields, humanoid, arm & leg integrated robot, human information processing. Concretely, it focuses robots robot interaction, mental safety robotics, etc. with bio-mimetic muscular-skeleton system and reflexes, Bio-robot with living cells, and bio-inspired Intelligent Robotics Group information processing utilizing noise. ■Prof.：Hiroshi ISHIGURO ■Assoc.Prof.：Yuichiro YOSHIKAWA Systems Analysis Group ■Assis.Prof.：Yoshihiro NAKATA ■Prof.：Youji IIGUNI This group studies intelligent robots, humanoids, ■Assoc.Prof.：Arata KAWAMURA androids, intelligent visual recognition and pattern ■Assis.Prof.：Hiromi YOSHIDA recognition. Concretely, it focuses on tele-operated Our research group is interested in theory and prac- and autonomous androids that have very humanlike Interactive robots and androids tice of signals and systems, including smart signal appearance, field experiments of robots using sensor processing algorithms with application to speech and networks, and intelligence and sociality of robots. image processing, and signal and image analysis with application to noise reduction, signal separation, Robotic Manipulation Group image interpolation, image conversion and feature ■Prof.：Kensuke HARADA Humanoid Robot driven extraction. ■Assis.Prof.：Ixchel RAMIREZ by Pneumatic Artificial This group studies the robotic manipulation Muscles where a robotic manipulator dexterously manipu- lates an object grasped by the hand. From both academic/practical points of view, our research interest includes but not limited to motion planning, motion analysis, motion understanding and machine learning.

Grasp and manipulation of an object by dual-arm manipulators

2 Department of Systems Innovation Division of Systems Science and Applied Informatics

Area of System Theory Area of Intelligent Systems Systems science plays a fundamental role in model- The area focuses on research and education of sensing, analysis, design, control, optimization, and evalu- ing, pattern recognition, environment understanding, ation of large and complex systems that often arise adaptive control, and coordinated motion to create in engineering and scientific problems. This area intelligent systems like autonomous robots as well as focuses on research and education on systems human interface, communication, and media technol- Integrated Limb Mechanism Robot ASTERISK. theory, control theory, and signal processing theory ogies to achieve the smooth interactions of human The Integrated Limb Mechanism (ILM) concept deals with a dual arm-leg integrating the leg for locomotion with applications to mechanical, electrical, electronic， with another or a computer in both aspects of soft- and the arm for manipulation, while it enables a robot, or other systems to create flexible and intelligent ware and hardware. for example, to operate flexibly in different work and systems based on a systems science approach. situations, dual use requires that components are com- Applied Robotics Group pact and mobile. Adaptive Robotics Group ■Assoc.Prof.：Yasushi MAE ■Prof.：Koh HOSODA ■Assis.Prof.：Masaru KOJIMA ■Assoc.Prof.：Masahiro SHIMIZU Novel mechanisms and intelligent controls for smart ■Assis.Prof.：Shuhei IKEMOTO robots and their applications are studied to achieve Evaluation System of Human Sense of Security for This group studies adaptive behavior emerging from "Human and Earth Friendly Society, including Robots a bio-mimetic compliant body, on muscular-skeletal dependable robotics, micro robotics applied in bio robots, bio-machine hybrid robots, and bio-inspired fields, humanoid, arm & leg integrated robot, human information processing. Concretely, it focuses robots robot interaction, mental safety robotics, etc. with bio-mimetic muscular-skeleton system and reflexes, Bio-robot with living cells, and bio-inspired Intelligent Robotics Group information processing utilizing noise. ■Prof.：Hiroshi ISHIGURO ■Assoc.Prof.：Yuichiro YOSHIKAWA Systems Analysis Group ■Assis.Prof.：Yoshihiro NAKATA ■Prof.：Youji IIGUNI This group studies intelligent robots, humanoids, ■Assoc.Prof.：Arata KAWAMURA androids, intelligent visual recognition and pattern ■Assis.Prof.：Hiromi YOSHIDA recognition. Concretely, it focuses on tele-operated Our research group is interested in theory and prac- and autonomous androids that have very humanlike Interactive robots and androids tice of signals and systems, including smart signal appearance, field experiments of robots using sensor processing algorithms with application to speech and networks, and intelligence and sociality of robots. image processing, and signal and image analysis with application to noise reduction, signal separation, Robotic Manipulation Group image interpolation, image conversion and feature ■Prof.：Kensuke HARADA Humanoid Robot driven extraction. ■Assis.Prof.：Ixchel RAMIREZ, by Pneumatic Artificial This group studies the robotic manipulation Muscles where a robotic manipulator dexterously manipu- lates an object grasped by the hand. From both academic/practical points of view, our research interest includes but not limited to motion planning, motion analysis, motion understanding and machine learning.

Grasp and manipulation of an object by dual-arm manipulators

27 Department of Systems Innovation Division of Mathematical Science

Mathematical Science is the science in which mathematical and statistical models are constructed, developed mathematically and diagnosed empirically in order to understand practical phenomena which occur in the ﬁelds of natural science, social science, technology, biology and so forth. For the purpose, one needs to utilize computers with advanced levels to make computer simulations, computer graphics and to develop algorithms, among others. This area consists of two large groups. One is a group of applied mathematics and the other a group of statistical science, each having two smaller subgroups. In this area, emphasis is placed on research and education of diﬀerential equations, mathematical physics, statistical analysis and data science.

Area of Area of Statistical Science Mathematical Modelling The Area of Statistical Science comprised of the The Area of Mathematical Modelling comprised of following two research groups is concerned with the following two research groups is concerned with research and education on analyzing and modelling research and education of mathematical theory and statistical data with errors, correlations and complex applications on modelling phenomena occured in sev- nonlinear structures. eral fields of natural science, social science and engineering. Statistical Analysis Group ■Prof.：Joe SUZUKI Diffetential Equation Group ■Assoc.Prof.：Fuyuhiko TANAKA ■Prof.：Takayuki KOBAYASHI ■Assis.Prof.：Shinpei IMORI (Add.) ■Assoc.Prof.：Satoshi MASAKI Statistical science, machine learning, and Bioinfor- ■Assis.Prof.：Hajime KOBA (Add.) matics are studied in this group. Statistical analysis We study nonlinear partial differential equations of complex networks is also an important topic. You appearing in the various fields of Mathematical. For can easily find groups of good friends in social net- example, we are focusing on the following topics: works with one hundred people, but it is yet a big An example of Data Analysis 1:Mathematical analysis on fluid dynamcis and quan- challenge to understand the structure of very big tum mechanics. networks. We also work on statistical analysis of 2:Mathematical modeling of physical phenomenons. DNA sequences and gene expressions. For estimat- ing the evolutionary tree of life from DNA sequenc- Applied Analysis Group es, in particular, a statistical method developed by ■Assoc.Prof.：Michinori ISHIWATA our group has been used in labs worldwide. ■Assis.Prof.：Hajime KOBA (Add.) This group is engaged in the following study and Data Science Research Group education. ■Prof.：Yutaka KANO 1. Mathematical formulation of problems in natural ■Assoc.Prof.：Etsuo HAMADA science, engineering, economics, and medical ■Assis.Prof.：Shinpei IMORI (Add.) science based on physical principle and phenome- An important purpose of multivariate statistical anal- na. ysis is to identify any relations among many vari- Study Room of Graduate Students 2. Numerical simulation, numerical scheme, and ables based on statistical data. Multivariate analysis mathematical analysis based on the theory of par- is often applied to analyze observational or correla- tial differential equations and nonlinear functional tional data, and gives a statistical basis for the analy- analysis. ses of high-dimensional data and big data, both of 3. Investigation of mathematical structure for self-in- which have recently received considerable attention teracting particles and biological functions such as in many fields of empirical studies. In this research the kinetic equation, system of chemotaxis, and group, we apply mathematics and computers exten- tumour growth model. sively to study structural equation modeling, graphi- cal modeling, missing data analysis and statistical causal inference as well as model selection and statistical information. Our research includes methodologi- cal and application aspects.

Journal Library

基礎工学部要覧_英文.indd 28 2018/01/26 19:27 Department of Systems Innovation Division of Mathematical Science

Area of Area of Statistical Science Mathematical Modelling The Area of Statistical Science comprised of the The Area of Mathematical Modelling comprised of following two research groups is concerned with the following two research groups is concerned with research and education on analyzing and modelling research and education of mathematical theory and statistical data with errors, correlations and complex applications on modelling phenomena occured in sev- nonlinear structures. eral fields of natural science, social science and engineering. Statistical Analysis Group ■Prof.：Joe SUZUKI Diffetential Equation Group ■Assoc.Prof.：Fuyuhiko TANAKA ■Prof.：Takayuki KOBAYASHI ■Assis.Prof.：Shinpei IMORI(Add.) ■Assoc.Prof.：Satoshi MASAKI Statistical science, machine learning, and Bioinfor- ■Assis.Prof.：Hajime KOBA matics are studied in this group. Statistical analysis We study nonlinear partial differential equations of complex networks is also an important topic. You appearing in the various fields of Mathematical. For can easily find groups of good friends in social net- example, we are focusing on the following topics: works with one hundred people, but it is yet a big An example of Data Analysis 1:Mathematical analysis on fluid dynamcis and quan- challenge to understand the structure of very big tum mechanics. networks. We also work on statistical analysis of 2:Mathematical modeling of physical phenomenons. DNA sequences and gene expressions. For estimat- ing the evolutionary tree of life from DNA sequenc- Applied Analysis Group es, in particular, a statistical method developed by ■Assoc.Prof.：Michinori ISHIWATA our group has been used in labs worldwide. This group is engaged in the following study and education. Data Science Research Group 1. Mathematical formulation of problems in natural ■Prof.：Yutaka KANO science, engineering, economics, and medical ■Assoc.Prof.：Etsuo HAMADA science based on physical principle and phenome- ■Assis.Prof.：Shinpei IMORI(Add.) na. An important purpose of multivariate statistical anal- 2. Numerical simulation, numerical scheme, and ysis is to identify any relations among many vari- Study Room of Graduate Students mathematical analysis based on the theory of par- ables based on statistical data. Multivariate analysis tial differential equations and nonlinear functional is often applied to analyze observational or correla- analysis. tional data, and gives a statistical basis for the analy- 3. Investigation of mathematical structure for self-in- ses of high-dimensional data and big data, both of teracting particles and biological functions such as which have recently received considerable attention the kinetic equation, system of chemotaxis, and in many fields of empirical studies. In this research tumour growth model. group, we apply mathematics and computers extensively to study structural equation modeling, graphi- cal modeling, missing data analysis and statistical causal inference as well as model selection and statistical information. Our research includes methodologi- cal and application aspects.

Journal Library

29 Department of Systems Innovation Division of Mathematical Science for Social Systems

The development of science and technology which cope with rationalization and internationalization of financial assets management could be done through research of financial engineering and mathematical finance. To analyze random and complex fluctuation according to time development and consider optimization under such random phenomena, we need the latest results of advanced mathematics concerning the theory of stochastic differential equations or statistical inference. Moreover, when we apply the theoretical results to actual technology for capital assets management, techniques of numerical analysis on a large scale at high speed are indispensable. On the other hand, due to the recent rapid technological advances in computer engineering, large scale networked systems and embedded systems with high quality functions have been developed. To analyze, design, and control such systems, extensions of the systems theory and optimization theory are required. Moreover, computational intelligence techniques are important for developing flexible intelligent systems. In an area of mathematical science for social systems, we achieve the education of competent persons who contribute to the development of such technology by means of advanced mathematical methods and also research development.

（b） Area of Mathematical and Area of Theoretical Systems Statistical Finance Science We perform education and research on mathematical The Area of Theoretical Systems Science comprised modelling of natural and social phenomena or nonlin- of the following two research groups is concerned ear ones arising from financial economics and their with research and education of systems theory and analysis. operations research, which offer key technology for analysis, design, and control of complicated systems Research Group of Statistical Inference interacting with human beings. ■Prof.：Masayuki UCHIDA ■Assoc. Prof.：Kengo KAMATANI Research Group of Complex Systems ■Assis.Prof.：Yoshikazu TERADA ■Prof.：Toshimitsu USHIO The relationship among the parameter space X, the In order to explicate the phenomena of economics ■Assoc.Prof.：Takafumi KANAZAWA sample space X, the action space A and the decision and natural sciences, we study and educate the sta- ■Assis.Prof.：Takuya AZUMI space D in statistical inference and decision prob- tistical inference and data analysis for stochastic We carry out research on systems theory for com- lem. differential equations and time series models by plex systems and its applications. Our main research using the quasi-likelihood analysis from the view- is concerned with analysis and control of hybrid/ point of both theory and practice. Monte Carlo statis- discrete event systems and nonlinear systems, applica- tical methods and statistical learning theory are also tion of machine learning to control engineering, control our main research topics. of multi-agent systems, control of selfish routing, and applications of evolutionary game theory in social Research Group of Mathematical Modeling in systems. Finance ■Prof. : Jun SEKINE Research Group of ■Assoc.Prof.：Hidehiro KAISE Systems Optimization and Decision Making ■Assis.Prof.：Dai TAGUCHI ■Prof.：Masahiro INUIGUCHI Researches and Education on stochastic models relat- ■Assoc.Prof.：Tatsushi NISHI ed with mathematical finance and stochastic control ■Assis.Prof.：Hirosato SEKI are main activities. Some keywords of our research We carry out research on mathematical models and activities are as follows: long-term optimal investment computational methods for systems optimization and portfolio insurance, equilibrium processes, market decision making. Especially, we investigate the fun- liquidity, dynamic programming equations. damental theories of decision making, games, mathematical programming, algorithms, scheduling theory, Brownian dynamics approximating Langevin dynamics Research Group of Stochastic Analysis discrete optimization and soft computing (fuzzy sys- ■Prof.：Masaaki FUKASAWA tems, rough sets). Furthermore, we apply them to ■Assis.Prof.：Nobuaki NAGANUMA systems analysis, optimization, social systems, man- Stochastic Analysis is the calculus of random trajec- agement of uncertainly and so on. tories such as Brownian motions. It is an infinite The result of clustering and rough set analysis of data dimensional analysis that includes the theory of table "zoo" obtained from UCI machine learning repository. differentiation and integration with respect to trajec- The statements written on the right- and left-sides of the tories. Through studies of stochastic analysis and branch of the classification tree show the conditions of related fields, we develop frameworks for analyzing classifications. natural and social phenomena. 30

基礎工学部要覧_英文cc2014.indd 30 2018/02/21 16:00 Department of Systems Innovation Division of Mathematical Science for Social Systems

（b） Area of Mathematical and Area of Theoretical Systems Statistical Finance Science We perform education and research on mathematical The Area of Theoretical Systems Science comprised modelling of natural and social phenomena or nonlin- of the following two research groups is concerned ear ones arising from financial economics and their with research and education of systems theory and analysis. operations research, which offer key technology for analysis, design, and control of complicated systems Research Group of Statistical Inference interacting with human beings. ■Prof.：Masayuki UCHIDA ■Assoc. Prof.：Kengo KAMATANI Research Group of Complex Systems ■Assis.Prof.：Yoshikazu TERADA ■Prof.：Toshimitsu USHIO The relationship among the parameter space X, the In order to explicate the phenomena of economics ■Assoc.Prof.：Takafumi KANAZAWA sample space X, the action space A and the decision and natural sciences, we study and educate the sta- ■Assis.Prof.：Takuya AZUMI space D in statistical inference and decision prob- tistical inference and data analysis for stochastic We carry out research on systems theory for com- lem. differential equations and time series models by plex systems and its applications. Our main research using the quasi-likelihood analysis from the view- is concerned with analysis and control of hybrid/ point of both theory and practice. Monte Carlo statis- discrete event systems and nonlinear systems, applica- tical methods and statistical learning theory are also tion of machine learning to control engineering, control our main research topics. of multi-agent systems, control of selfish routing, and applications of evolutionary game theory in social Research Group of Mathematical Modeling in systems. Finance ■Prof. : Jun SEKINE Research Group of ■Assoc.Prof.：Hidehiro KAISE Systems Optimization and Decision Making Researches and Education on stochastic models relat- ■Prof.：Masahiro INUIGUCHI ed with mathematical finance and stochastic control ■Assoc.Prof.：Tatsushi NISHI are main activities. Some keywords of our research ■Assis.Prof.：Hirosato SEKI activities are as follows: long-term optimal investment We carry out research on mathematical models and portfolio insurance, equilibrium processes, market computational methods for systems optimization and liquidity, dynamic programming equations. decision making. Especially, we investigate the fundamental theories of decision making, games, mathe- Research Group of Stochastic Analysis matical programming, algorithms, scheduling theory, Brownian dynamics approximating Langevin dynamics ■Prof.：Masaaki FUKASAWA discrete optimization and soft computing (fuzzy sys- ■Assis.Prof.：Nobuaki NAGANUMA tems, rough sets). Furthermore, we apply them to Stochastic Analysis is the calculus of random trajec- systems analysis, optimization, social systems, man- tories such as Brownian motions. It is an infinite agement of uncertainly and so on. dimensional analysis that includes the theory of The result of clustering and rough set analysis of data differentiation and integration with respect to trajec- table "zoo" obtained from UCI machine learning repository. tories. Through studies of stochastic analysis and The statements written on the right- and left-sides of the related fields, we develop frameworks for analyzing branch of the classification tree show the conditions of natural and social phenomena. classifications.

31 Department of Systems Innovation Facilities Attached to Schools and Research Institutes

Center for Science and Technology under Extreme Conditions

The Center for Science and Technology under Extreme Conditions is creating extreme conditions by combining advanced science and engineering technologies, and aims, on the one hand, at exploring the properties of materials under such conditions, and on the other hand, at developing new materials using the results of the above-mentioned research. The Center is promoting the development of new materials science, while pioneering basic technology for the 21st century. The Center includes 3 divisions of “High-pressure Research” , “Advanced Electronics” , and “International Collaboration” . The High-pressure Research Division is trying to search for new phenomena and to clarify the mechanism by creating complex extreme conditions, i.e. ultra-high pressure, ultra-high magnetic ﬁelds, very low temperatures. The Advanced Electronics Division focuses on developing novel methods for observing nano-structure and single atoms using scanning probe, electron beam, ion beam, and laser beam. The International Collaboration division conducts the international collaborative research in above 2 divisions. Director: Prof. Masahiro KITAGAWA (Add)

1 2 High-pressure Research 3 4 Division ■Prof.：Katsuya SHIMIZU ■Assoc. Prof.：Tomoko KAGAYAMA, Masafumi SAKATA ■Assis.Prof.：Yoshimi MITA, Takahiro ISHIKAWA, Mari EINAGA, Gayan Prasad HETTIARACHCHI ■Technical Staﬀ：Yuki NAKAMOTO

Advanced Electronics Division ■Prof.：Masayuki ABE, Hiroshi TOKI ■Assoc. Prof.：Fujio WAKAYA ■Assis.Prof.：Satoshi ABO, Hayato YAMASHITA

Head of noncontac atomic force microscope (NC-AFM) developed in the Advanced Electronics Division. International Collaboration 1 Thin Film Silicon Solar Cell Division 2 Laser Cooling of Trapped Ions Diamond anvil 3 3D Measurement of Step Pyramid, Saqqara, Egypt cell (DAC) generates very 4 A very human-like automous android robot high pressure with two diamonds.

32 Department of Systems Innovation Facilities Attached to Schools and Research Institutes

Center for Science and Technology under Extreme Conditions

Advanced Electronics Division ■Prof.：Masayuki ABE, Hiroshi TOKI ■Assoc. Prof.：Fujio WAKAYA ■Assis.Prof.：Satoshi ABO, Hayato YAMASHITA

33 Facilities Attached to Schools and Facilities Attached to Schools and Research Institutes Research Institutes

Center for Promotion of Center for Spintronics Advanced Interdisciplinary Research Research Network (CSRN)

Center for Spintronics Research Network (CSRN) in the Graduate School of Engineering Science of Osaka The Graduate School of Engineering Science has launched a new research center, called “Center for Promotion of University was established in 2016, based on the acceptance of the proposal of the “Large-scale Scientiﬁc Advanced Interdisciplinary Research (C-Pair)” in 2014, which aims to create innovative research areas through Research Projects‒Roadmap 2014” in 2014 by Ministry of Education, Culture, Sports, Science and Technology the promotion of collaborative research activities. C-Pair consists of 5 divisions as follows: Division of Quantum (MEXT) of Japan. During this project, we established a CSRN in each of four base universities: The University of Optics, Division of Emergent Materials and Functions, Division of Collaborative Research with the large Tokyo, Tohoku University, Osaka University, and Keio University. These have allowed us to form a nationwide network connecting various research institutions in Japan. Through this network, we aim to promote synchrotron radiation facility (SPring-8) managed by RIKEN and the Japan Synchrotron Radiation Research collaborations among research groups and institutions, strengthen competitive power in research and industry Institute (JASRI), Division of Collaborative Research with National Institute of Advanced Industrial Science and for the development of technological innovations, and cultivate the next generation of young researchers and Technology (AIST), and Division of Collaborative Research with National Institute of Information and engineers. The four base universities have the following general responsibilities: The University of Tokyo focuses Communications Technology (NICT). Director: Prof. Hirokazu TADA (Add) on spintronics materials and devices; Tohoku University focuses on spintronics devices and integration; Osaka University focuses on design of spintronics materials and devices; and Keio University focuses on quantum Division of Quantum Optics Division of Collaborative spintronics. CSRN in Osaka University have 10 Departments under the 2 Divisions of Division of Spintronics Research with AIST Design and Development Research (Materials Design Facility) and Division of Spintronics Research and ■Prof.：Hiroshi MIYASAKA (Add.), Developments (Device Design Facility). Director: Prof. Yoshishige Suzuki Nobuyuki IMOTO (Add.) ■Prof.：Masayoshi NAKANO (Add.), ■Assoc. Prof.：Takashi YAMAMOTO (Add.), Yasukazu YOSHIDA (Guest Prof.), Division of Spintronics Design Division of Spintronics Syoji ITO (Add.) Kensuke HARADA (Add.), Kazushi MASHIMA (Add.) and Development Research Research and Developments ■Assis.Prof.：Rikizou IKUTA (Add.) ■Assoc. Prof.：Keiji HIROSE (Add.) (Materials Design Facility) (Device Design Facility) Division of Emergent Division of Collaborative ■Prof.： Tamio OGUCHI (Add.), ■Prof.： Kohei HAMAYA (Add.), Yoshitada MORIKAWA (Add.), Tatsuki ODA (Guest Prof.), Kensuke KOBAYASHI (Add.), Materials and Functions Research with NICT Noriaki HAMADA (Specially Appointed Professor (Part time)) Tsuyoshi KIMURA (Guest Prof.), ■Prof.：Satoshi FUJIMOTO (Add.), ■Prof.：Masaaki ASHIDA (Add.), ■Assoc. Prof.：Kazunori SATO (Add.), Masayoshi NAKANO (Add.), Hirokazu TADA (Add.), Fumio MIYAZAKI (Add.), Hirokazu TADA (Add.), Tadao NAGATSUMA (Add.), Teruo KANKI (Add.), Yoshishige SUZUKI, Norikazu NISHIYAMA (Add.), Iwao HOSAKO (Guest Prof.) Koji NAKAMURA (Guest Assoc. Prof.), Katsuhiro KITAGAWA (Add.), Masaaki FUKASAWA (Add.), Takashi SUZUKI (Add.) ■Assoc. Prof.：Masaya NAGAI (Add.), Yoshio MIURA (Guest Assoc. Prof.), Teruo ONO (Guest Prof.), ■Assoc. Prof.：Tatsushi NISHI (Add.), Takashi YAMAMOTO (Add.), Utako TANAKA (Add.), Akira MASAGO (Specially Appointed Associate Professor (Full time)) Norikazu MIZUOCHI (Guest Prof.), Hisekazu MUKUDA (Add.), Akihito IMANISHI (Add.) Kazuhiro HAYASAKA (Spec. Appt.), ■Assis.Prof.：Hidetoshi KIZAKI (Add.), Masashi SHIRAISHI (Guest Prof.) ■Assis.Prof.：Masaru KOJIMA (Add.), Shukichi TANAKA (Guest Assoc.Prof) Haruki KIYAMA (Add.) ■Assoc. Prof.：Yusuke WAKABAYASHI (Add.), Keishi SUGA (Add.), Liu YANG (Add.), ■Assis. Prof.：Kenji TOYODA (Add.) Yasutaka KITAGAWA (Add.), Ryo YAMADA (Add.), Yuuji MIYATO (Add.), Tomohiro OTANI (Add.), Kiminori HATSUTORI (Add.), Shunpei NOBUSUE (Spec. Appt.), Division of Collaborative Yasuhiro NIIMI (Add.), Shinji MIWA, PHAM Song Toan (Spec. Appt.) Research with SPring-8 Ikutaro HAMADA (Add.) ■Assis.Prof.：Shinya YAMADA (Add.), ■Prof.：Akira SEKIYAMA (Add.), Tomonori ARAKAWA (Add.), Tatsuhiko KIDA (Add.), Koichiro JITSUKAWA (Add.), Minori GOTO, Akinori KAGAWA (Add.), Kenji TAMASAKU (Guest Prof.), Makoto NEGORO (Add.) Toyohiko KINOSHITA (Guest Prof.) ■Assoc. Prof.：Takayuki KISS (Add.), Yusuke WAKABAYASHI (Add.), Kenichi KATO (Guest Assoc.Prof)

Yamada Science Foundation Focused Ion Junjiro Kanamori Memorial Inter- Beam (FIB) national Symposium System ‒ New Horizon of Magnetism ‒ is used for September 27 - 29, 2017 nanoscale Koshiba Hall, The University of fabrication of Tokyo, Tokyo, Japan various materials with a 30 kV Ga+ ions beam. Kick-oﬀ Symposium for the Spintron- ics Research network of Japan Electron Beam (EB) Lithography System (Spin-RNJ) and the Center for Spin- is used for lithography with a dimension of 5-10 nm with tronics Research network (CSRN) at an electron beam accelerated up to 100 kV. the University of Tokyo, 2016.

基礎工学部要覧_英文.indd 34 2018/02/19 22:47 Facilities Attached to Schools and Facilities Attached to Schools and Research Institutes Research Institutes

Center for Promotion of Center for Spintronics Advanced Interdisciplinary Research Research Network (CSRN)

基礎工学部要覧_英文.indd 35 2018/02/19 22:47 Facilities Attached to Schools and Research Institutes

Center for Industry-University School of Collaboration Engineering Science

Industry-University Industry-University Exchange Promotion Division Collaborative Education Department of Chemical Science and Engineering Division ■Prof.：Akira SAKAI (Add.), Hiroshi YAMACHIKA (Specially Appointed Prof.), ■Prof.：Koichiro JITSUKAWA (Add.), Shinzo UDA (Specially Appointed Prof.), Tadao NAGATSUMA (Add.), Department of Systems Science Kenji ARIMA (Guest Prof.) Akira SEKIYAMA(Add.), Kenichi FUKUI (Add.), Masaaki ASHIDA(Add.), Takashi SUZUKI (Add.) Industry-University Department of Information and Computer Sciences Collaborative Research Division

Frontier Intelligent System Collaborative Laboratory ■Specially Appointed Assoc. Prof.： Itaru KURAMOTO ■Visiting Researcher：Jun BABA ■Collaborator：Hiroshi ISHIGURO (Prof.)

Impulse Science Collaborative Laboratory ■Specially Appointed Assoc. Prof.： Naoto OKUYAMA Industry-University Exchange Meeting： ■Guest Prof.：Akihisa TAKABE For the purpose of industrial application and information ■Visiting Researcher：Toru KITAGUCHI, dissemination of our research results at the Graduate Yuto MAKINO School of Engineering Science and promotion of exchanges with the industry and researchers, we hold ■Collaborator：Hidetoshi KOBAYASHI (Prof.), industry-university exchange meetings about once a year. Shigeo WADA (Prof.), Hiroshi UMAKOSHI (Prof.), Katsuya SHIMIZU (Prof.), Masaaki ASHIDA (Prof.), Koichi KUSAKABE (Assoc. Prof.), Tomoko KAGAYAMA (Assoc. Prof.), Kenichiro KOSHIYAMA (Assoc. Prof.), Kenichi TANIGAKI (Assis.Prof.)

Biomedical Engineering & Health Informatics Laboratory ■Specially Appointed Prof. : Toru NAKAMURA ■Specially Appointed Researcher：Li Li ■Guest Prof.：Yoshiharu YAMAMOTO ■Collaborator：Taishin NOMURA (Prof.)

基礎工学部要覧_英文.indd 36 2018/01/26 19:30 Facilities Attached to Schools and Research Institutes

Center for Industry-University School of Collaboration Engineering Science

At the Graduate School of Engineering Science, in April 2003, we established an Industry-University Collaborative Office to promote the industry-university collaboration in order to revitalize the industry and contribute to the society by utilizing our research results and knowledge. Since then, we have actively carried out various industry-university collaborative activities, such as patenting support for research results of faculty members, practical application support by transferring research results/knowledge, implementation of research/technical consultation, promotion of human interactions through our industry-university exchange meetings, promotion of collaborative research and industry-university cooperative projects, and so on. Since April 2017, we have expanded this collaborative framework into the “Center for Industry-University Collaboration” . This center consists of: (1) Industry-University Exchange Promotion Division, (2) Industry-University Collaborative Research Division, and (3) Industry-University Collaborative Education Division. (1) The Industry-University Exchange Promotion Division is expected to continue to work at the existing Department of Electronics and Materials Physics Industry-University Collaborative Office, with a focus on exchanges with the industrial world, as well as to expand the consultation and exchanges with the industry. (2) The Industry-University Collaborative Research Division has been set up with some industry-university Department of Chemical Science and Engineering collaborative laboratories. Nowadays, “Impulse Science Collaborative Laboratory” , “Frontier Intelligent System Collaborative Laboratory” , and “Biomedical Engineering & Health Informatics Laboratory” are established, aiming at the fruitful collaboration between our university and the industry for creating cutting-edge technologies and social implementations. Department of Systems Science (3) The Industry-University Collaborative Education Division also aims at creating new research fields in cooperation with the industry as well as providing educational collaborations, based on social needs, including "learning of working members of the society" and "practical learning of students". Department of Information and Computer Sciences Director. Prof. Shigeo WADA (Add.)

Industry-University Toru KITAGUCHI(Visiting Researcher), Exchange Promotion Division Yuto MAKINO(Visiting Researcher) ■Prof.：Akira SAKAI(Add.), Industry-University Hiroshi YAMACHIKA(Specially Appointed Prof.), Collaborative Education Shinzo UDA (Specially Appointed Prof.), Division Kenji ARIMA(Guest Prof.) ■Prof.：Koichiro JITSUKAWA(Add.), Industry-University Tadao NAGATSUMA(Add.), Collaborative Research Akira SEKIYAMA(Add.), Kenichi FUKUI(Add.), Division Masaaki ASHIDA(Add.), Takashi SUZUKI(Add.)

■Prof.：Hiroshi ISHIGURO(Add.), Hidetoshi KOBAYASHI(Add.), Shigeo WADA(Add.), Hiroshi UMAKOSHI(Add.), Katsuya SHIMIZU(Add.), Masaaki ASHIDA(Add.), Taishin NOMURA(Add.), Toru NAKAMURA(Specially Appointed Prof.), Akihisa TAKABE(Guest Prof.), Yoshiharu YAMAMOTO(Guest Prof.) ■Assoc.Prof.：Koichi KUSAKABE(Add.), Tomoko KAGAYAMA(Add.), Itaru KURAMOTO(Specially Appointed Assoc. Prof.), Naoto OKUYAMA (Specially Appointed Assoc. Prof.), Industry-University Exchange Meeting： Kenichiro KOSHIYAMA(Add.) For the purpose of industrial application and information ■Assis. Prof：Kenichi TANIGAKI(Add.) dissemination of our research results at the Graduate ■Researcher： School of Engineering Science and promotion of Li Li(Specially Appointed Researcher), exchanges with the industry and researchers, we hold industry-university exchange meetings about once a year. Jun BABA(Visiting Researcher),

37 School of Engineering Science School of Engineering Science Department of Department of Electronics and Materials Physics Chemical Science and Engineering

We are living in a resource-saving and intellectual information-oriented society with the basic respect for human Chemistry has been playing a key role in all fields of science and technology to create materials with new life and dignity. In order to further develop such a society capable of efficiently controlling and co-owning a great functions or enhanced performance and to solve such important problems as those concerning environment, deal of information, it becomes important to actualize the efficient production, storage, transmission and control of resources, and energy. The Department of Chemical Science and Engineering is organized to cover the most information and energy, and to supply, with severe selection, the material resources to maintain the society. important and rapidly growing fields in science and technology related to chemistry and chemical engineering, These requirements would be effectively fulfilled by the advanced science and technology of electrons and light. such as design and synthesis of new materials and construction and assessment of the systems for chemical It will become more and more necessary to investigate the new properties and useful functions of electrons and conversion of materials and energy, in a variety of areas ranging from the molecular level to the living and global light, and to promote their materials development and the applications for devices and systems. systems. In the first year, all students who take subjects for general education extend their knowledge of natural From the viewpoints mentioned above, we have combined "electrical engineering" and "materials physics" taking science and social science including foreign languages. After successfully completing the first year, students into account the human factors, and have organized the "Department of Electronics and Materials Physics", choose to proceed to the Course of Chemistry or the Course of Chemical Engineering. The second and third which covers a vast area from basic research to application. As for the education of students, a new curriculum years provide essential grounding in chemical principles and chemical engineering principles. Formal lecture has been organized to comply with the needs of the future society, with the aim of developing wider viewpoints courses are supported by tutorial (exercise) work and laboratory work which are carried out in small groups. In and flexibility, as well as providing deeper knowledge. The freshmen all complete general classes for their basic the final year, all students must complete a thesis (research project), which is carried out under direct contact major subjects, and the sophomores are divided into two sets of courses, i.e., the Division of Electronics and with academic and research staff. Division of Materials Physics. Course of Chemistry Course of Chemical Engineering Chemistry continues to be a fundamental field of Research and education on fundamental engineering technological applications. The principles of modern science, which is indispensable to create materials sciences and advanced technologies for material and Electronics Course physics on electricity, magnetism, light, heat, force with new functions or better performance, and is energy conversion systems are indispensable for develop- The Division of Electronics offers a curriculum which and motion are learned in the first and second peri- getting more and more important with the advances ing an environmentally friendly and sustainable society provides students with a firm foundation for more ods of the course. Experiments and exercises are in all fields of science and technology. Moreover, its with recycling systems on Earth. The research section advanced study as well as for entering the profes- included to get a deeper understanding of these sub- role in the 21st century will be tremendous as a key of the Course of Chemical Engineering covers not only sional field after graduation. Subjects are systemati- jects. Then such main subjects in modern physics technology to solve such important problems as fundamental studies on elucidation of the phenomena in cally and carefully selected in close collaboration as quantum mechanics, statistical physics,and con- those concerning environment, resources, and chemical conversion processes, which deal with material with the material science course, and cover funda- densed-matter physics are studied. In the next energy. The research in the Course of Chemistry synthesis and separation, energy conversion and storage, mentals of electrical and electronic circuits, electro- stage, subjects of applied materials physics, such as includes important topics of fundamental and applied and design and development of functional materials with magnetic field theory, material science for electron- semiconductor physics, laser spectroscopy, magne- chemistry, such as the development of environmen- high conversion efficiencies, but also application studies ics, laser science and technology, and semiconductor tism, superconductivity and nano-science, are pre- tally benign chemical reactions, the creation and on development of novel industrial processes including electronics. Students also carry out a year length sented. In the final period, various cutting-edge development of functions of intelligent materials studies on solving energy and global environmental prob- research project, joining each specialized laboratory problems on electrons, photons and their various based on organic molecules, polymers, organometallic lems. The research projects are being conducted based in the electronics course. mutual interactions will be studied as graduation compounds and nano-particles that sustain the bot- on the latest information in chemistry, biochemistry, ■Prof.：Akira SAKAI, Hiroaki OKAMOTO, subjects. In this way, the Division provides many tom-up approach of nanotechnology, and the elucida- physics, mathematics, nanotechnology, biotechnology, Kohei HAMAYA, Yoshiaki NAKAMURA, young researchers and engineers of materials phys- tion and application of the biological functions of key computational science and quantum science, and the final Masahiro KITAGAWA, Atsushi SANADA, ics through the well-considered educational pro- molecules involved in heredity and photosynthesis. results obtained are integrated as new knowledge and Tadao NAGATSUMA, Masatuki ABE grams conducted by the world first-class research- Moreover, in close collaboration with the Research methodologies into chemical engineering education. In ■Assoc.Prof.：Kiminori HATTORI, ers. Center for Solar Energy Chemistry, investigations on modern technological society, chemical engineers play an Takeshi KANASHIMA, ■Prof.：Masaaki ASHIDA, chemical utilization of solar energy are keenly con- essential role in the analysis, design, and development of Hideo AKABA, Hiroshi MURATA, Nobuyuki IMOTO, Hajime ISHIHARA, ducted. Accordingly, the education in this course is material and energy conversion systems in various Masayuki FUJITA, Fujio WAKAYA Yoshishige SUZUKI, Akira SEKIYAMA, mainly focused on the basics of chemical bonding industrial and environmental processes. A high-level ■Assoc.Prof.：Utako TANAKA Hirokazu TADA, Satoshi FUJIMOTO, and chemical reactions, but also on the related area education is being conducted in our undergraduate ■Assis.Prof.：Shotaro TAKEUCHI, Katsuya SHIMIZU, Tamio OGUCHI, in physics and biology, to promote self-established course so that each student grows to be a self-estab- Kentaro WATANABE, Yasushi SOBAJIMA, Hidekazu TANAKA, Kazuhiko MATSUMOTO graduates who are capable of developing new fields lished researcher and/or engineer in the field of chemical Shinya YAMADA, Yuji MIYATO, ■Assoc.Prof.：Takayuki KISS, of chemistry and its interdisciplinary area. engineering. Our activity closely collaborates with the Akinori KAGAWA, Makoto NEGORO, Koichi KUSAKABE, Masaya NAGAI, ■Prof.：Takeshi NAOTA, Ryo SHINTANI, Research Center for Solar Energy Chemistry. Kenji TOYOＤA, Hidehisa SHIOMI, Shinji MIWA, Takeshi MIZUSHIMA, Ken-ichi FUKUI, Shigenori IWAI, http://www.cheng.es.osaka-u.ac.jp Satoshi ABO, Hayato YAMASHITA Hidekazu MUKUDA, Ryo YAMADA, Kazushi MASHIMA, Hiroshi MIYASAKA, ■Prof.：Norikazu NISHIYAMA, Masayoshi NAKANO, Takashi YAMAMOTO, Yusuke WAKABAYASHI, Shuji NAKANISHI Koichiro JITSUKAWA, Nobuyuki MATUBAYASI, Tomoko KAGAYAMA ■Assoc.Prof.：Shuichi SUZUKI, Keiji HIROSE, Yasunori OKANO, Hiroshi UMAKOSHI, Materials Physics Course ■Assis.Prof.：Rikizou IKUTA, Tatsuhiko OHTO, Akihito IMANISHI, Hayato TSURUGI, Syoji ITO Masahito TAYA, Shinji SAKAI, Takayuki HIRAI In the field of materials physics, the experimental Atsushi TSURUTA, Hiromasa HANZAWA, ■Assoc.Prof.：Junpei YAMAMOTO ■Assoc.Prof.：Yoshiaki UCHIDA, and theoretical studies are performed on the search Hidenori FUJIWARA, Yoshimi MITA, ■Assis.Prof.：Soichiro KAWAMORITA, Yasutaka KITAGAWA, Tomoo MIZUGAKI, for new phenomena, the creation of new materials Yosuke MINOWA, Minori GOTO, Ichiro TANABE, Miyako SHIRAISHI, Kang KIM, Takato MITSUDOME, and the development of new instruments and meth- Mitsuharu YASHIMA, Tomohiro YOKOYAMA Haruki NAGAE, Hikaru SOTOME, Yukihiro OKAMOTO, Yasuhiro SHIRAISHI ods, in order to get a better understanding of nature Kazuhide KAMIYA, Takafumi NISHIURA ■Assoc.Prof.：Takahiko BAN and to contribute to the forefront of science and ■Assis.：Noriko WADA ■Assis.Prof.：Yuichiro HIROTA, Ryohei KISHI, technology. In this Division, the educational pro- Zen MAENO, Ryosuke ISHIZUKA, Atsushi SEKIMOTO, gram provides the students with comprehensive sub- Takeshi SUGAHARA, Keishi SUGA, Yang LIU, jects including basics of materials physics and their Masaki NAKAHATA

基礎工学部要覧_英文.indd 38 2018/01/26 19:27 School of Engineering Science School of Engineering Science Department of Department of Electronics and Materials Physics Chemical Science and Engineering

We are living in a resource-saving and intellectual information-oriented society with the basic respect for human Chemistry has been playing a key role in all fields of science and technology to create materials with new life and dignity. In order to further develop such a society capable of efficiently controlling and co-owning a great functions or enhanced performance and to solve such important problems as those concerning environment, deal of information, it becomes important to actualize the efficient production, storage, transmission and control of resources, and energy. The Department of Chemical Science and Engineering is organized to cover the most information and energy, and to supply, with severe selection, the material resources to maintain the society. important and rapidly growing fields in science and technology related to chemistry and chemical engineering, These requirements would be effectively fulfilled by the advanced science and technology of electrons and light. such as design and synthesis of new materials and construction and assessment of the systems for chemical It will become more and more necessary to investigate the new properties and useful functions of electrons and conversion of materials and energy, in a variety of areas ranging from the molecular level to the living and global light, and to promote their materials development and the applications for devices and systems. systems. In the first year, all students who take subjects for general education extend their knowledge of natural From the viewpoints mentioned above, we have combined "electrical engineering" and "materials physics" taking science and social science including foreign languages. After successfully completing the first year, students into account the human factors, and have organized the "Department of Electronics and Materials Physics", choose to proceed to the Course of Chemistry or the Course of Chemical Engineering. The second and third which covers a vast area from basic research to application. As for the education of students, a new curriculum years provide essential grounding in chemical principles and chemical engineering principles. Formal lecture has been organized to comply with the needs of the future society, with the aim of developing wider viewpoints courses are supported by tutorial (exercise) work and laboratory work which are carried out in small groups. In and flexibility, as well as providing deeper knowledge. The freshmen all complete general classes for their basic the final year, all students must complete a thesis (research project), which is carried out under direct contact major subjects, and the sophomores are divided into two sets of courses, i.e., the Division of Electronics and with academic and research staff. Division of Materials Physics. Course of Chemistry Course of Chemical Engineering Chemistry continues to be a fundamental field of Research and education on fundamental engineering jects including basics of materials physics and their science, which is indispensable to create materials sciences and advanced technologies for material and Electronics Course technological applications. The principles of modern with new functions or better performance, and is energy conversion systems are indispensable for develop- The Division of Electronics offers a curriculum which physics on electricity, magnetism, light, heat, force getting more and more important with the advances ing an environmentally friendly and sustainable society provides students with a firm foundation for more and motion are learned in the first and second peri- in all fields of science and technology. Moreover, its with recycling systems on Earth. The research section advanced study as well as for entering the profes- ods of the course. Experiments and exercises are role in the 21st century will be tremendous as a key of the Course of Chemical Engineering covers not only sional field after graduation. Subjects are systemati- included to get a deeper understanding of these sub- technology to solve such important problems as fundamental studies on elucidation of the phenomena in cally and carefully selected in close collaboration jects. Then such main subjects in modern physics those concerning environment, resources, and chemical conversion processes, which deal with material with the material science course, and cover funda- as quantum mechanics, statistical physics,and con- energy. The research in the Course of Chemistry synthesis and separation, energy conversion and storage, mentals of electrical and electronic circuits, electro- densed-matter physics are studied. In the next includes important topics of fundamental and applied and design and development of functional materials with magnetic field theory, material science for electron- stage, subjects of applied materials physics, such as chemistry, such as the development of environmen- high conversion efficiencies, but also application studies ics, laser science and technology, and semiconductor semiconductor physics, laser spectroscopy, magne- tally benign chemical reactions, the creation and on development of novel industrial processes including electronics. Students also carry out a year length tism, superconductivity and nano-science, are pre- development of functions of intelligent materials studies on solving energy and global environmental prob- research project, joining each specialized laboratory sented. In the final period, various cutting-edge based on organic molecules, polymers, organometallic lems. The research projects are being conducted based in the electronics course. problems on electrons, photons and their various compounds and nano-particles that sustain the bot- on the latest information in chemistry, biochemistry, ■Prof.：Akira SAKAI, Hiroaki OKAMOTO, mutual interactions will be studied as graduation tom-up approach of nanotechnology, and the elucida- physics, mathematics, nanotechnology, biotechnology, Kohei HAMAYA, Yoshiaki NAKAMURA, subjects. In this way, the Division provides many tion and application of the biological functions of key computational science and quantum science, and the final Masahiro KITAGAWA, Atsushi SANADA, young researchers and engineers of materials phys- molecules involved in heredity and photosynthesis. results obtained are integrated as new knowledge and Tadao NAGATSUMA, Masatuki ABE ics through the well-considered educational pro- Moreover, in close collaboration with the Research methodologies into chemical engineering education. In ■Assoc.Prof.：Kiminori HATTORI, grams conducted by the world first-class research- Center for Solar Energy Chemistry, investigations on modern technological society, chemical engineers play an Takeshi KANASHIMA, ers. chemical utilization of solar energy are keenly con- essential role in the analysis, design, and development of Hideo AKABA, Hiroshi MURATA, ■Prof.：Masaaki ASHIDA, ducted. Accordingly, the education in this course is material and energy conversion systems in various Masayuki FUJITA, Fujio WAKAYA Nobuyuki IMOTO, Hajime ISHIHARA, mainly focused on the basics of chemical bonding industrial and environmental processes. A high-level ■Assoc.Prof.：Utako TANAKA Yoshishige SUZUKI, Akira SEKIYAMA, and chemical reactions, but also on the related area education is being conducted in our undergraduate ■Assis.Prof.：Shotaro TAKEUCHI, Hirokazu TADA, Satoshi FUJIMOTO, in physics and biology, to promote self-established course so that each student grows to be a self-estab- Kentaro WATANABE, Yasushi SOBAJIMA, Katsuya SHIMIZU, Tamio OGUCHI, graduates who are capable of developing new fields lished researcher and/or engineer in the field of chemical Shinya YAMADA, Yuji MIYATO, Hidekazu TANAKA, Kazuhiko MATSUMOTO of chemistry and its interdisciplinary area. engineering. Our activity closely collaborates with the Akinori KAGAWA, Makoto NEGORO, ■Assoc.Prof.：Takayuki KISS, ■Prof.：Takeshi NAOTA, Ryo SHINTANI, Research Center for Solar Energy Chemistry. Kenji TOYOＤA, Hidehisa SHIOMI, Koichi KUSAKABE, Masaya NAGAI, Ken-ichi FUKUI, Shigenori IWAI, http://www.cheng.es.osaka-u.ac.jp Shintaro HISATAKE, Satoshi ABO, Shinji MIWA, Takeshi MIZUSHIMA, Kazushi MASHIMA, Hiroshi MIYASAKA, ■Prof.：Norikazu NISHIYAMA, Masayoshi NAKANO, Hayato YAMASHITA Hidekazu MUKUDA, Ryo YAMADA, Shuji NAKANISHI Koichiro JITSUKAWA, Nobuyuki MATUBAYASI, Takashi YAMAMOTO, Yusuke WAKABAYASHI, ■Assoc.Prof.：Shuichi SUZUKI, Keiji HIROSE, Yasunori OKANO, Hiroshi UMAKOSHI, Tomoko KAGAYAMA Akihito IMANISHI, Hayato TSURUGI, Syoji ITO Masahito TAYA, Shinji SAKAI, Takayuki HIRAI Materials Physics Course ■Assis.Prof.：Rikizou IKUTA, Tatsuhiko OHTO, ■Assoc.Prof.：Junpei YAMAMOTO ■Assoc.Prof.：Yoshiaki UCHIDA, In the field of materials physics, the experimental Atsushi TSURUTA, Hiromasa HANZAWA, ■Assis.Prof.：Soichiro KAWAMORITA, Yasutaka KITAGAWA, Tomoo MIZUGAKI, and theoretical studies are performed on the search Hidenori FUJIWARA, Yoshimi MITA, Ichiro TANABE, Miyako SHIRAISHI, Kang KIM, Takato MITSUDOME, for new phenomena, the creation of new materials Yosuke MINOWA, Minori GOTO, Haruki NAGAE, Hikaru SOTOME, Yukihiro OKAMOTO, Yasuhiro SHIRAISHI and the development of new instruments and meth- Mitsuharu YASHIMA, Tomohiro YOKOYAMA Kazuhide KAMIYA, Takafumi NISHIURA ■Assoc.Prof.：Takahiko BAN ods, in order to get a better understanding of nature ■Assis.：Noriko WADA ■Assis.Prof.：Yuichiro HIROTA, Ryohei KISHI, and to contribute to the forefront of science and Zen MAENO, Ryosuke ISHIZUKA, Atsushi SEKIMOTO, technology. In this Division, the educational pro- Takeshi SUGAHARA, Keishi SUGA, Yang LIU, gram provides the students with comprehensive sub- Masaki NAKAHATA

39 School of Engineering Science School of Engineering Science Department of Department of Systems Science Information and Computer Sciences

In the Department of Systems Science, education and research on 'system', including humans, are undertaken to The Department of Information and Computer Sciences aims at educating undergraduate students to acquire uncover/establish the symbiotic relations in which the harmony between technology and humans is based. basic scientific ability and technological mastery in the fields of informatics and mathematical science. After one The word 'system' is used to mean a thing that is composed of many machines and electronic components, like year of general education including basic courses in computer science, students are required to enter one of the aircraft, automobiles, chemical plants, etc., and brings about more advanced function through the organic cooperation among its components. For this, the human who operates and utilizes these systems is also included. three courses offered by Divisions of Computer Science, Software Science, and Mathematical Science. Almost While taking Liberal Arts and Sciences programs, students receive more specialized training in one of the three ninety percent of the students proceed to the graduate program, after completion of 4 years of the undergraduate major courses, namely, Mechanical Science, Intelligent Systems Science, and Biophysical Engineering, a year program or 3 years of high achievement. Many other students go to electronic, computer, communication, or after entering the program. Although the fields of study undertaken in these three courses have developed from software industries after graduation. The Divisions of Computer Science and Software Science share the different original backgrounds, they have many common or mutually related research areas from the viewpoint education program aiming at fundamental training in computer science and software science. The Division of of "systems science". While each course continues to advance their respective fields independently, an interdisciplinary cooperation on the study of "system including human" exists and this new field for the future is Mathematical Science includes both applied mathematics and statistical sciences. exploited. After graduation, most students enter graduate studies in any department in the Graduate School of Engineering Science, the Graduate School of Information Science, as well as the Graduate School of Frontier Biosciences, to further deepen their knowledge of their major field.（Some of the teachers in the Graduate School of Frontier Biosciences take charge of the education in the Biophysical Engineering Course.) ■Assis.Prof.：Masafumi HASHIMOTO, optimization, control systems and signal processing. Computer Science Course Mechanical Science Course The second covers measurement and instrumenta- Shinsuke MATSUMOTO, Masao OKITA, The education in the Mechanical Science Course tion, including experimental practices. And the third The Division of Computer Science is concerned Yuya TARUTANI, Yuki KOIZUMI, covers a broad area covering particles and rigid covers various aspects of computer science ranging mainly with research and education in basic theory Fumio OKURA, Yuichi SUDO body mechanics, solid mechanics, fluid mechanics, from signal processing architecture to artificial intel- thermodynamics, machine dynamics, and acoustics ligence. Research activities in this division are combi- of computer science such as the theory of computa- and extending to material processing and manufac- natorics and optimization, system and control theory, tion and information theory, and in areas of design turing, control of systems, measurements, mecha- human-machine systems analysis, robotics, artificial and development of information systems such as the Mathematical Science Course tronics, robotics, and human engineering. The edu- intelligence, pattern recognition, and signal process- design of digital systems, computer architecture, bio- This course consists of three research areas, namely, cation in these areas provides useful knowledge and ing and sensing. Most graduates continue their edu- methodology to develop cutting-edge areas such as cation in graduate degree programs, or step directly informatics, computer networks and multimedia mathematical models, statistical science, and mathe- new materials and space developments, mechatron- into career positions in computer science and electric information systems. matical and statistical finance. Mathematical science ics, computer aided engineering, and bioengineering, engineering with in the industry or government. ■Prof.：Toru FUJIWARA, Tatsuhiro TSUCHIYA, aims at understanding practical phenomena by con- and to solve the urgent problems of environment ■Prof.：Youji IIGUNI, Hiroshi ISHIGURO, and energy. Most of the graduates proceed to gradu- Kosuke SATO, Toshimitsu USHIO, Teruo HIGASHINO, Masanori HASHIMOTO, structing and analyzing mathematical models. For ate school and finally obtain jobs in a wide variety of Masahiro INUIGUCHI, Koh HOSODA, Masayuki MURATA, Hideo MATSUDA, the purpose, we extensively utilize advanced mathe- the fields such as heavy industries, electronics, auto- Kensuke HARADA Haruo TAKEMURA matics and computers such as computer simulations, mobiles, metals, energy, chemistry, as well as infor- ■Assoc.Prof.：Arata KAWAMURA, mation processing, communication, computers, medi- Yasushi MAE, Yuichiro YOSHIKAWA, ■Assoc.Prof.：Hiroyuki NAKAGAWA, computer graphics, and developing several algo- cal applications, aeronautics and astronautical indus- Daisuke IWAI, Tatsushi NISHI, Masahiro SHIMIZU, Hirozumi YAMAGUCHI, Yoshinori TAKEUCHI, rithms. In this course, emphasis is placed on research tries, finance, trading and social services. The classes Takafumi KANAZAWA Shinichi ARAKAWA, Yuki URANISHI, and education of differential equations, applied analy- are offered by the faculty members in the three divi- ■Assis.Prof.：Hiromi YOSHIDA, Tomohiro MASHITA sis, statistical analysis, data sciences, statistical infer- sions（Division of Nonlinear Mechanics, Division of Yoshihiro NAKATA, Masaru KOJIMA, Mechanical Engineering, and Division of Bioengineer- Takuya AZUMI, Shuhei IKEMOTO, Hirosato SEKI, ■Assoc.Prof.：Manabu HIGASHIDA ence, probabilistic modelling, and stochastics and ing) of the Department of Mechanical Science and Ixchel RAMIREZ, Haruka MATSUKURA ■Assis.Prof.：Naoto YANAI, mathematical finance. Bioengineering in Graduate School. Hideharu KOJIMA, Akira UCHIYAMA, ■Prof.：Takayuki KOBAYASHI, Joe SUZUKI, ■Prof.：Genta KAWAHARA, Susumu GOTO, Biophysical Engineering Hidetoshi KOBAYASHI, Satoyuki KAWANO, Course YU Jaehoon, Yuichi OHSHITA, Shigeto SENOO, Yutaka KANO, Masayuki UCHIDA, Jun SEKINE, Kazuyasu SUGIYAMA, Fumio MIYAZAKI, The Biophysical Engineering Course aims to foster PHOTCHARA RATSAMEE Masaaki FUKASAWA Shigenobu OGATA, Shigeo WADA, students who can explore the mechanisms of various ■Assoc.Prof.：Satoshi MASAKI, Masao TANAKA, Shinji DEGUCHI biological phenomena and apply the findings to Michinori ISHIWATA, Fuyuhiko TANAKA, ■Assoc.Prof.：Takao YOSHINAGA, develop new engineering and technologies by com- Software Science Course Keitaro HORIKAWA, Kentaro DOI bining broad spectra of research fields such as brain Etsuo HAMADA, Hidehiro KAISE Hironori HORIGUCHI, Hiroaki HIRAI, science, biophysics, biochemistry, cell biology, genetic The Division of Software Science is concerned ■Assoc.Prof.：Kengo KAMATANI Hajime KIMIZUKA, Yo KOBAYASHI engineering, physics, mathematics, computer science, mainly with research and education in basic theory ■Assis.Prof.：Hajime KOBA, Shinpei IMORI, ■Assoc.Prof.：Kenichiro KOSHIYAMA, and information and systems engineering. Since stud- of software science such as the program theory and Yoshikazu TERADA, Nobuaki NAGANUMA Tsubasa MATSUI ies in biophysical engineering require interdisciplin- ■Assis.Prof.：Hideshi ISHIDA, Masaki SHIMIZU, ary knowledge, students are encouraged to construct algorithms, and in design methodologies and applica- Dai TAGUCHI Yosuke WATANABE, Kenichi TANIGAKI, their own curriculum according to their study aims. tion techniques of software systems including pro- Nobutomo NAKAMURA, Tetsuro TSUJI, Approximately 80% of the graduates proceed to the gramming languages, database systems, operating Tomoaki WATAMURA, Mitsunori UEMURA, master course, and 20% get jobs in companies. Akio ISHII, Naoki TAKEISHI, Tomohiro OTANI, ■Prof.：Taishin NOMURA, systems, software development methodologies, Shuichiro FUKUSHIMA Osamu OSHIRO, Ichiro FUJITA, Izumi OHZAWA, human interface, and intelligent information process- Intelligent Systems Science Nobuhiko YAMAMOTO, Akihiko ISHIJIMA ing. Takeshi YAGI, Ken KIYONO ■ Naoki WAKAMIYA, Course ■Assoc.Prof.：Hiroshi TAMURA, Prof.： Systems Science plays a central role in analyzing Yasushi KOBAYASHI, Ryuichi SHIRASAKI, Shinji KUSUMOTO, Morito MATSUOKA, behavior in order to understand specified functions Yoshihiro KURODA, Hajime FUKUOKA, Katsuro INOUE, Toshimitsu MASUZAWA, of complex systems involving human operations, Takashi KITSUKAWA Toru HASEGAWA, Yasushi YAGI, which include mathematical, physical and computer ■Assis.Prof.：Hiroaki KOBAYASHI, systems. This division is, therefore, interdisciplinary Noriyuki SUGO, Kota SASAKI, Yasuyuki SUZUKI, Fumihiko INO and related to electrical, control, mechanical engi- Hirohiko NIIOKA, Shunsuke YOSHIMOTO, ■Assoc.Prof.：Junnosuke TERAMAE, neering and computer science. The curriculum is Seiichi TAGAWA, Mikio INAGAKII, Yoshiki HIGO, Go HASEGAWA, generally divided into three categories that students Masanori SHIMONO, Yong-Suk CHE are required to pursue in parallel. The first consists Makoto MATSUSHITA, Hirotsugu KAKUGAWA, of a series of lectures covering modern theories of Yasushi MAKIHARA, Daigo MURAMATSU

基礎工学部要覧_英文.indd 40 2018/01/26 19:28 School of Engineering Science School of Engineering Science Department of Department of Systems Science Information and Computer Sciences

In the Department of Systems Science, education and research on 'system', including humans, are undertaken to The Department of Information and Computer Sciences aims at educating undergraduate students to acquire uncover/establish the symbiotic relations in which the harmony between technology and humans is based. basic scientific ability and technological mastery in the fields of informatics and mathematical science. After one The word 'system' is used to mean a thing that is composed of many machines and electronic components, like year of general education including basic courses in computer science, students are required to enter one of the aircraft, automobiles, chemical plants, etc., and brings about more advanced function through the organic cooperation among its components. For this, the human who operates and utilizes these systems is also included. three courses offered by Divisions of Computer Science, Software Science, and Mathematical Science. Almost While taking Liberal Arts and Sciences programs, students receive more specialized training in one of the three ninety percent of the students proceed to the graduate program, after completion of 4 years of the undergraduate major courses, namely, Mechanical Science, Intelligent Systems Science, and Biophysical Engineering, a year program or 3 years of high achievement. Many other students go to electronic, computer, communication, or after entering the program. Although the fields of study undertaken in these three courses have developed from software industries after graduation. The Divisions of Computer Science and Software Science share the different original backgrounds, they have many common or mutually related research areas from the viewpoint education program aiming at fundamental training in computer science and software science. The Division of of "systems science". While each course continues to advance their respective fields independently, an interdisciplinary cooperation on the study of "system including human" exists and this new field for the future is Mathematical Science includes both applied mathematics and statistical sciences. exploited. After graduation, most students enter graduate studies in any department in the Graduate School of Engineering Science, the Graduate School of Information Science, as well as the Graduate School of Frontier Biosciences, to further deepen their knowledge of their major field.（Some of the teachers in the Graduate School of Frontier Biosciences take charge of the education in the Biophysical Engineering Course.) ■Assis.Prof.：Masafumi HASHIMOTO, optimization, control systems and signal processing. Computer Science Course Mechanical Science Course The second covers measurement and instrumenta- Shinsuke MATSUMOTO, Masao OKITA, The education in the Mechanical Science Course tion, including experimental practices. And the third The Division of Computer Science is concerned Yuya TARUTANI, Yuichi SUDO, covers a broad area covering particles and rigid covers various aspects of computer science ranging mainly with research and education in basic theory Yuki KOIZUMI, Fumio OKURA body mechanics, solid mechanics, fluid mechanics, from signal processing architecture to artificial intel- thermodynamics, machine dynamics, and acoustics ligence. Research activities in this division are combi- of computer science such as the theory of computa- and extending to material processing and manufac- natorics and optimization, system and control theory, tion and information theory, and in areas of design turing, control of systems, measurements, mecha- human-machine systems analysis, robotics, artificial and development of information systems such as the Mathematical Science Course tronics, robotics, and human engineering. The edu- intelligence, pattern recognition, and signal process- design of digital systems, computer architecture, bio- This course consists of three research areas, namely, cation in these areas provides useful knowledge and ing and sensing. Most graduates continue their edu- methodology to develop cutting-edge areas such as cation in graduate degree programs, or step directly informatics, computer networks and multimedia mathematical models, statistical science, and mathe- new materials and space developments, mechatron- into career positions in computer science and electric information systems. matical and statistical finance. Mathematical science ics, computer aided engineering, and bioengineering, engineering with in the industry or government. ■Prof.：Toru FUJIWARA, Tatsuhiro TSUCHIYA, aims at understanding practical phenomena by con- and to solve the urgent problems of environment ■Prof.：Youji IIGUNI, Hiroshi ISHIGURO, and energy. Most of the graduates proceed to gradu- Kosuke SATO, Toshimitsu USHIO, Teruo HIGASHINO, Masanori HASHIMOTO, structing and analyzing mathematical models. For ate school and finally obtain jobs in a wide variety of Masahiro INUIGUCHI, Koh HOSODA, Masayuki MURATA, Hideo MATSUDA, the purpose, we extensively utilize advanced mathe- the fields such as heavy industries, electronics, auto- Kensuke HARADA Haruo TAKEMURA matics and computers such as computer simulations, mobiles, metals, energy, chemistry, as well as infor- ■Assoc.Prof.：Arata KAWAMURA, mation processing, communication, computers, medi- Yasushi MAE, Yuichiro YOSHIKAWA, ■Assoc.Prof.：Hiroyuki NAKAGAWA, computer graphics, and developing several algo- cal applications, aeronautics and astronautical indus- Daisuke IWAI, Tatsushi NISHI, Masahiro SHIMIZU, Hirozumi YAMAGUCHI, Yoshinori TAKEUCHI, rithms. In this course, emphasis is placed on research tries, finance, trading and social services. The classes Takafumi KANAZAWA Shinichi ARAKAWA, Yuki URANISHI, and education of differential equations, applied analy- are offered by the faculty members in the three divi- ■Assis.Prof.：Hiromi YOSHIDA, Tomohiro MASHITA sis, statistical analysis, data sciences, statistical infer- sions（Division of Nonlinear Mechanics, Division of Yoshihiro NAKATA, Masaru KOJIMA, Mechanical Engineering, and Division of Bioengineer- Takuya AZUMI, Shuhei IKEMOTO, Hirosato SEKI, ■Assoc.Prof.：Manabu HIGASHIDA ence, probabilistic modelling, and stochastics and ing) of the Department of Mechanical Science and Ixchel RAMIREZ, Haruka MATSUKURA ■Assis.Prof.：Naoto YANAI, mathematical finance. Bioengineering in Graduate School. Hideharu KOJIMA, Akira UCHIYAMA, ■Prof.：Takayuki KOBAYASHI, Joe SUZUKI, ■Prof.：Genta KAWAHARA, Susumu GOTO, Biophysical Engineering Hidetoshi KOBAYASHI, Satoyuki KAWANO, Course YU Jaehoon, Yuichi OHSHITA, Shigeto SENOO, Yutaka KANO, Masayuki UCHIDA, Jun SEKINE, Kazuyasu SUGIYAMA, Fumio MIYAZAKI, The Biophysical Engineering Course aims to foster PHOTCHARA RATSAMEE Masaaki FUKASAWA Shigenobu OGATA, Shigeo WADA, students who can explore the mechanisms of various ■Assoc.Prof.：Satoshi MASAKI, Masao TANAKA, Shinji DEGUCHI biological phenomena and apply the findings to Michinori ISHIWATA, Fuyuhiko TANAKA, ■Assoc.Prof.：Takao YOSHINAGA, develop new engineering and technologies by com- Software Science Course Keitaro HORIKAWA, Kentaro DOI bining broad spectra of research fields such as brain Etsuo HAMADA, Hidehiro KAISE Hironori HORIGUCHI, Hiroaki HIRAI, science, biophysics, biochemistry, cell biology, genetic The Division of Software Science is concerned ■Assoc.Prof.：Kengo KAMATANI Hajime KIMIZUKA, Yo KOBAYASHI engineering, physics, mathematics, computer science, mainly with research and education in basic theory ■Assis.Prof.：Hajime KOBA, Shinpei IMORI, ■Assoc.Prof.：Kenichiro KOSHIYAMA, and information and systems engineering. Since stud- of software science such as the program theory and Yoshikazu TERADA, Nobuaki NAGANUMA Tsubasa MATSUI ies in biophysical engineering require interdisciplin- ■Assis.Prof.：Hideshi ISHIDA, Masaki SHIMIZU, ary knowledge, students are encouraged to construct algorithms, and in design methodologies and applica- Dai TAGUCHI Yosuke WATANABE, Kenichi TANIGAKI, their own curriculum according to their study aims. tion techniques of software systems including pro- Nobutomo NAKAMURA, Tetsuro TSUJI, Approximately 80% of the graduates proceed to the gramming languages, database systems, operating Tomoaki WATAMURA, Mitsunori UEMURA, master course, and 20% get jobs in companies. Akio ISHII, Naoki TAKEISHI, Tomohiro OTANI, ■Prof.：Taishin NOMURA, systems, software development methodologies, Shuichiro FUKUSHIMA Osamu OSHIRO, Ichiro FUJITA, Izumi OHZAWA, human interface, and intelligent information process- Intelligent Systems Science Nobuhiko YAMAMOTO, Akihiko ISHIJIMA ing. Takeshi YAGI, Ken KIYONO ■ Naoki WAKAMIYA, Course ■Assoc.Prof.：Hiroshi TAMURA, Prof.： Systems Science plays a central role in analyzing Yasushi KOBAYASHI, Ryuichi SHIRASAKI, Shinji KUSUMOTO, Fumihiko INO, Katsuro INOUE, behavior in order to understand specified functions Yoshihiro KURODA, Hajime FUKUOKA, Morito MATSUOKA, Toshimitsu MASUZAWA, of complex systems involving human operations, Takashi KITSUKAWA Toru HASEGAWA, Yasushi YAGI, which include mathematical, physical and computer ■Assis.Prof.：Hiroaki KOBAYASHI, systems. This division is, therefore, interdisciplinary Noriyuki SUGO, Kota SASAKI, Yasuyuki SUZUKI, ■Assoc.Prof.：Junnosuke TERAMAE, and related to electrical, control, mechanical engi- Hirohiko NIIOKA, Shunsuke YOSHIMOTO, Yoshiki HIGO, Go HASEGAWA, neering and computer science. The curriculum is Seiichi TAGAWA, Mikio INAGAKII, Makoto MATSUSHITA, Hirotsugu KAKUGAWA, generally divided into three categories that students Masanori SHIMONO, Yong-Suk CHE are required to pursue in parallel. The first consists Yasushi MAKIHARA, Daigo MURAMATSU of a series of lectures covering modern theories of

基礎工学部要覧_英文.indd 41 2018/02/09 10:38 School of Engineering Science

Facts and Figures

12 34

1 Virtual 3D ground navigation interface (international collaboration with Telecom ParisTech, France)

2 Network Technologies for Supporting Advanced Information Communication

3 Geminoid: A tele-operated android robot that has similar appearance of original person

4 Medical Sensor Node for In-Body Biomonitoring

42 School of Engineering Science

Facts and Figures

1 2 3 4

1 Virtual 3D ground navigation interface (international collaboration with Telecom ParisTech, France)

2 Network Technologies for Supporting Advanced Information Communication

3 Geminoid: A tele-operated android robot that has similar appearance of original person

4 Medical Sensor Node for In-Body Biomonitoring

43 Facts and Figures Facts and Figures

■Organization ■Number of Foreign Researchers FY2016 Number of Staff As of October 1st, 2017 Number of Students As of October 1st, 2017 Region Number Proportion (%) Asia 37 45.1 Number of Students Division Prof. Assoc. Assis. Assis Sub Admin. Technical Total Year Admission Capacity Prof. Prof. Total Staff Staff （International Student） Middle East 4 4.9 Materials Physics 3 5 5 0 13 13 School of Engineering Science Africa 0 0 Oceania 1 1.2 Chemistry 4 4 4 1 13 13 1st 435 446 （4） Chemical Engineering 8 7 9 0 24 24 North America 5 6.1 2nd 435 448 （7） Latin America 3 3.7 Frontier Materials Science 5 5 5 0 15 15 3rd 435 461 （8） Europe 32 39.0 Nonlinear Mechanics 2 2 5 0 9 9 4th 435 575 （3） Total 82 100 Mechanical Engineering 4 4 4 0 12 12 Total 1,740 1,930（22） Bioengineering 6 4 8 0 18 18 Advanced Electronics and Optical Science 7 7 10 0 24 24 Master's Course, Graduate School of Engineering Science Systems Science and Applied Informatics 5 5 6 0 16 16 1st 267 283（22） Mathematical Science 3 4 3 0 10 10 2nd 267 296（18） st Mathematical Science for Social Systems 5 4 4 0 13 13 Total 534 579（40） ■Number of International Students As of October 1 , 2017 Center for Science and Technology under Extreme Conditions 2 2 3 0 7 7 Doctoral Course, Graduate School of Engineering Science Region Number Proportion (%) Center for Spintronics Research Network 1 1 1 3 3 1st 70 51（15） Asia 112 76.1 Educational Planning and Promotion 1 1 1 2nd 70 51（15） Middle East 4 2.7 Public Information and Promotion 1 1 1 3rd 70 50（13） North America 6 4.1 Technical 4 4 Central & South America 6 4.1 Total 210 152（41） Administration 45 45 Oceania 2 1.4 Total 55 54 69 1 179 45 4 228 Europe 15 10.2 Specially Appointed Specially Appointed Specially Appointed Total Africa 2 1.4 Prof. Assoc.Prof. Assis.Prof. Total 147 100 Temporary Staff 2 9 11 22

■Financial Statement FY2016 Item Amount (1,000JPY) ※The Management Expenses Grant is one which is initially allocated, excluding the budget for the special project, i.e. the st Management Expences Grant 644,785 Project for Establishing Spintronics Research Infrastructure ■Special Program of “Engineering Science 21 Century” for Contract Research Budgets 527,281 and Network. ※The amounts of money which are filled in fields of Contract Contract Enterprise Budgets 38,323 Research Budget, Contract Enterprise Budget, Joint Research Master's and Doctoral Courses in English Joint Research Budgets 119,643 Budget, and Grants-in-Aid for Scientific Research, are the The Graduate School of Engineering Science provides interdisciplinary courses in English to students whose Jap- amounts of direct research budget which have been received Donations for Research 80,656 within this fiscal year. anese language is not fluent. We have a large variety of lectures (69 classes, including 8 compulsory subjects in Grants-in-Aid for Scientific Research 868,408 ※Indirect Research Budgets include those of Research Center each of the 11 Divisions and common 61 subjects), instruction, seminars, and research-related supervision, so that for Solar Energy Chemistry, Institute for NanoScience Design, Grants for Creating Research and Education Bases etc. 62,112 and Center for Mathematical Modeling and Data Science. successful students can gain both Master's and Doctoral degrees in English from Osaka University. This means Indirect Research Budgets 246,935 that graduate students in this Special Program will not only experience cutting-edge research topics in the world Total 2,588,143 leading laboratories, but also study highly advanced engineering science, all through this training program under supervision of eminent teachers and advisors. We have eleven Divisions associated with three Departments of ■Acceptance of Research Grants from outside the University FY2016 the Graduate School, therefore, students are firstly required to choose one Division of those, based on their backgrounds and interests. Contract Research Grants-in Aid for Scientific Research Degree programs offered are Number Amount (1,000JPY) Research Categories Number Amount (1,000JPY) Materials Physics, 48 672,791 Specially Promoted Research 1 142,869 Scientific Research on Innovative Areas 42 294,890 Chemistry, Scientific Research (S) 5 34,886 Chemical Engineering, Contract Enterprise Scientific Research (A) 21 157,119 Frontier Materials Science, Number Amount (1,000JPY) Scientific Research (B) 52 187,386 Mechanical Science and Bioengineering, 4 42,555 Scientific Research (C) 35 33,504 Advanced Electronics and Optical Science, Scientific Research (B)(C)Generative Research Fields 4 6,370 Systems Science and Applied Informatics, Research Activity Start-up 6 7,280 Joint Research Young Scientists(A) 12 63,733 Mathematical Science, Number Amount (1,000JPY) Young Scientists(B) 18 25,883 Mathematical Science for Social Systems 85 146,402 Challenging Exploratory Research 52 74,766 and the degree awarded are Ph.D. in Engineering, Ph.D. in Science or MS in Engineerring. Fund for the Promotion of Joint International Research 7 50,895 New students are welcome to join us in exploring science and technology in the 21st century. JSPS Felows 41 45,969 Donations for Research Foreigner JSPS Felows 3 3,380 Number Amount (1,000JPY) ※The received amount includes the budgets for indirect, management, industry-academia 77 80,656 collaboration etc. ※Grants-in Aid for Scientific Research includes the budgets for Co-Investigators of Graduate School of Engineering Science. ※Grants-in Aid for Scientific Research does not include the budgets for Co-Investigators in other research institutes. 44

基礎工学部要覧_英文.indd 44 2018/01/26 19:28 Facts and Figures Facts and Figures

基礎工学部要覧_英文.indd 45 2018/01/26 19:28 Facts and Figures Facts and Figures

Inter-Faculty International Academic Exchange Agreement

As of Oct. 1. 2017. France Netherlands ■Advisement Office for International Student Universities (School/Faculty/College) Since Universities (School/Faculty/College) Since in the Department of Engineering Science Institut National Polytechnique de Toulouse Eindhoven University of Technology École Nationale Supérieure des Ingénieurs en Arts Chimiques Feb 2012 (Department of Biomedical Engineering) Jul 2015 et Technologiques This office was established in 1994 for international students mainly. We provide information about campus life, LABORATOIRE DE PHYSIQUE THEORIQUE (LPT) daily life, and studies guide. Meeting space, computers, traditional Japanese games and goods are available in our INSTITUT DE MATHEMATIQUES DE TOULOUSE (IMT) Sep 2012 Germany Université Paul Sabatier & CNRS office. We hold several parties and Bus Trip for international students in order to communicate each other. Not Universities (School/Faculty/College) Since École Normale Superieure de Cachan Apr 2016 only the international students but also the overseas researchers, their families and Japanese students are wel- Technische Universität Berlin (FacultyⅡ, Mathematics and Natural Sciences) Jun 2009 comed. We hope that you would take advantage of our office to let your campus life more comfortable. Belgium Universities (School/Faculty/College) Since RWTH Aachen University (Faculty of Mathematics, Computer Science and Aug 2009 KU Leuven (Faculty of Science) Mar 2014 Natural Sciences) Open: 11 a.m. to 5 p.m. on weekdays Justus Liebig University Giessen Jan 2011 Place: Building A 3rd floor (A325) （Faculty of Mathematics and Computer Science, ＊ Double Degree Physics, Geography） Agreement (May 2017) Office Chief: Professor Hiroshi Umakoshi (Division of Chemical Engineering) Italy Frankfurt University of Applied Sciences Nov 2016 Office Manager: Associate Professor Kengo Kamatani (Division of Mathematical Science for Social Systems) Universities (School/Faculty/College) Since Staff member: Ms.Emiko Tasaka Pisa University Eberhard Karls University Tübingen (Faculty of Sciences) Nov 2016 (Faculty of Engineering, Sep 2009 Civil and Industrial Engineering Department)

Sweden Canada Universities (School/Faculty/College) Since Universities (School/Faculty/College) Since University of Ontario Institute of Technology (UOITSc) Oct 2012 KTH Royal Institute of Technology Jun 2012 (School of Engineering Sciences) University of Saskatchewan (College of Arts and Science) Jul 2013 Linköping University Jul 2013 (The Institute of Technology) University of Toronto (Faculty of Applied Science and Engineering) Apr 2013 Poland Universities (School/Faculty/College) Since Warsaw University of Technology Sep 2017

U.S.A. Universities (School/Faculty/College) Since Worcester Polytechnic Institute（WPI）（the Computer Science Department, Mar 2010 the Interdiciplinary and Global Studies Division）

The University of Arizona (College of Optical Sciences) Sep 2015 India Universities (School/Faculty/College) Since Colombia Indian Institute of Technology Hyderabad Oct 2012 Universities (School/Faculty/College) Since Universidad Nacional de Colombia (School of Mines) Aug 2013 Thailand Universities (School/Faculty/College) Since Brazil Universities (School/Faculty/College) Since Thai-Nichi Institute of Technology Apr 2010 Escola Politécnica da Universidade de São Paulo Sep 2017 Chulalongkorn University (Faculty of Engineering) Mar 2017 ■Support Office for International Students and Scholars Vietnam The Support office offers assistance and provides information for international students, scholars and their fami- Universities (School/Faculty/College) Since New Zealand lies, on such matters as visa procedures, the search for accommodations, and other necessary procedures, focus- Vietnamese Academy of Science and Technology Dec 2001 Universities (School/Faculty/College) Since ing its service on prior to and soon after arrival in Japan. (Institute of Materials Science) The University of Canterbury Aug 2013 The primary goal of the Support Office is to create good links with the international students, scholars and the Vietnam National University- (The College of engineering and Forestry ) Ho Chi Minh City Mar 2003 faculty staff at Osaka University, and also to help make their lives easier and more comfortable, so that they can (University of Sciences) Korea concentrate fully on their academic activities throughout the duration of their stay in Japan. KISOKO-HANOI OFFICE FOR Dec 2012 Universities (School/Faculty/College) Since ACADEMIC EXCHANGE Inha University Dec 2009 (graduate School of Department of Physics, College of Natural Science)

IC Hall 2F, 1-1 Yamadaoka, Suita, Osaka 565-0871, Singapore Korea University (College of Science and Technology) Mar 2014 JAPAN Universities (School/Faculty/College) Since China Support Office for International Students and Scholars, Osaka University National University of Singapore supportoffice@office.osaka-u.ac.jp (Faculty of Engineering) Jan 2008 Universities (School/Faculty/College) Since http://iss-intl.osaka-u.ac.jp/supportoffice/ Hong Kong University of Science and Technology Aug 2005 (School of Science) Malaysia Dalian University of Technology (School of Chemical Engineering) Dec 2012 Universities (School/Faculty/College) Since Huazhong University of Science and Technology Jan 2016 Universiti Teknologi Malaysia Nov 2008 (School of Automation) 46

基礎工学部要覧_英文.indd 46 2018/02/19 19:31 Facts and Figures Facts and Figures

Inter-Faculty International Academic Exchange Agreement

As of Oct. 1. 2016. France Netherlands ■Advisement Office for International Student Universities (School/Faculty/College) Since Universities (School/Faculty/College) Since in the Department of Engineering Science Institut National Polytechnique de Toulouse Eindhoven University of Technology École Nationale Supérieure des Ingénieurs en Arts Chimiques Feb 2012 (Department of Biomedical Engineering) Jul 2015 et Technologiques This office was established in 1994 for international students mainly. We provide information about campus life, LABORATOIRE DE PHYSIQUE THEORIQUE (LPT) daily life, and studies guide. Meeting space, computers, traditional Japanese games and goods are available in our INSTITUT DE MATHEMATIQUES DE TOULOUSE (IMT) Sep 2012 Germany Université Paul Sabatier & CNRS office. We hold several parties and Bus Trip for international students in order to communicate each other. Not Universities (School/Faculty/College) Since École Normale Superieure de Cachan Apr 2016 only the international students but also the overseas researchers, their families and Japanese students are wel- Technische Universität Berlin (FacultyⅡ, Mathematics and Natural Sciences) Jun 2009 comed. We hope that you would take advantage of our office to let your campus life more comfortable. Belgium Universities (School/Faculty/College) Since RWTH Aachen University (Faculty of Mathematics, Computer Science and Aug 2009 KU Leuven (Faculty of Science) Mar 2014 Natural Sciences) Open: 11 a.m. to 5 p.m. on weekdays Justus Liebig University Giessen Jan 2011 Place: Building A 3rd floor (A325) （Faculty of Mathematics and Computer Science, ＊ Double Degree Physics, Geography） Agreement (May 2017) Office Chief: Professor Hiroshi Umakoshi (Division of Chemical Engineering) Italy Frankfurt University of Applied Sciences Nov 2016 Office Manager: Associate Professor Kengo Kamatani (Division of Mathematical Science for Social Systems) Universities (School/Faculty/College) Since Staff member: Ms.Emiko Tasaka Pisa University Eberhard Karls University Tübingen (Faculty of Sciences) Nov 2016 (Faculty of Engineering, Sep 2009 Civil and Industrial Engineering Department)

Sweden Romania Universities (School/Faculty/College) Since Universities (School/Faculty/College) Since Technical University of Cluj-Napoca Feb 2012 KTH Royal Institute of Technology Jun 2012 (School of Engineering Sciences) Canada Universities (School/Faculty/College) Since Linköping University Jul 2013 (The Institute of Technology) University of Ontario Institute of Technology (UOITSc) Oct 2012

University of Saskatchewan Jul 2013 Poland (College of Arts and Science) Universities (School/Faculty/College) Since University of Toronto Warsaw University of Technology Sep 2017 (Faculty of Applied Science and Engineering) Apr 2013

U.S.A. Universities (School/Faculty/College) Since Worcester Polytechnic Institute（WPI）（the Computer Science Department, Mar 2010 the Interdiciplinary and Global Studies Division）

■ Program for Leading Graduate Schools ■Multidisciplinary Research Laboratory System for Future Developments (“MIRAI”Lab, ) Interactive Materials Science Cadet Program With its rich experience in developing newly emerging interdisciplinary fields, the Graduate School of Engineer- （Prof. Yutaka Kano and Prof. Masaaki Ashida） ing Science established in 2002 a unique system called the Multidisciplinary Research Laboratory System for ‘Materials Science Cadets’ is a program launched as an integrated five-year doctoral course in Future Developments (MIRAI LAB) which supports and incubates various research projects aimed at the future materials science, and is promoted in an integrated manner by the graduate schools of engineer- development of creative research fields as well as the education of young researchers and engineers with global ing science, science, and engineering, Osaka University. The departments of materials engineering science and systems innovation also contribute to standards of knowledge and expertise in these fields, in cooperation with conventional basic engineering science. the program. The program aims to educate talented graduate students by cultivating ‘ Ma- Research projects in 2017 are: terials Science Cadets’ with the skills to occupy senior research positions in the materials (1) Behavior of metal ions at interface of ionic liquid and its application to new devices and materials science and production sectors, with the full support of faculty members of Osaka Universi- ty from a wide range of materials science fields including physics and chemistry. The pro- (Akihito IMANISHI) gram is also designed to apply the synergistic benefits of dialogic and interactive approach- (2) High frequency data analysis for single molecule measurement es to various facets of materials science education and research. In particular, the key con- (Masaaki FUKASAWA) cept of interactivity is applied to: (i) Materials: Interactions and correlations within and between materials (3) Search for new superconducting mechanism, materials, and charge Kondo effect derived from atomic (ii) Research: Interactive research approaches between different research fields and research methods valence skipping phenomenon (iii) Training: Interactive learning by way of dialog among students and instructors, among instructors, and between students and outside researchers and engineers. (Hidekazu MUKUDA) The multi-faceted curriculum organically links together various interactive ideas and approaches by combining a range (4) Lipid insertion can alter the membrane properties and induce cell death of components including mentor systems, laboratory rotation, liberal arts subjects, career guidance, private sector (Keishi SUGA) internships and overseas study opportunities. In this way, the curriculum is designed for the training of well-rounded Materials Science Cadets. (5) Systematic investigation of organic-inorganic hybrid materials toward improvement of thermoelectric performance (Shunpei NOBUSUE) Cross-Boundary Innovation Program (6) Personalized blood flow analysis in human left atrium with using cartesian-grid computational fluid dynamics （Prof. Masahito Taya, Prof. Prof. Hidetoshi Kobayashi and Prof. Kosuke Sato） (Tomohito OTANI) (7) Search for high-Tc superconducting hydrides by integration of computational and data sciences Knowledge is fundamental to a society that has achieved great progress through advances in science and technology. However, at the (Takahiro ISHIKAWA) same time, due to the rapid explosion of knowledge, areas of expertise (8) Construction of innovative mechano-biomaterials based on macromolecules with dynamically-tunable have become significantly compartmentalized, hindering efforts by even specialists and professionals to alleviate problems facing society. mechanical properties Rising to this challenge and recognizing the urgency to go beyond just turning out graduates with specialized knowl- (Masaki NAKAHATA) edge and a single set of skills, Osaka University including Graduate School of Engineering Science has established the (9) Development of surface plasmon resonance sensors utilizing far-ultraviolet region Cross-Boundary Innovation Program (CBI), a program that will cultivate individuals with the creative and strategic skills needed to deal with diverse challenges. CBI graduates will be able to go beyond the traditional framework - they (Ichio TANABE) will possess the ability to achieve what is “only possible by crossing boundaries.” (10) Multi-scale optimization of flow fields and application toward material engineering The development of the CBI Program is supported under the “Programs for Leading Graduate Schools” of the Japanese (Takashi NAKAZAWA) government’ s Ministry of Education, Culture, Sports, Science and Technology. Osaka University’ s challenge is now to implement the program by including scholars from a wide range of areas, emphasizing comprehensive skills, building a (11) Molecular beam epitaxial growth of spin-gapless Heusler-alloy films for spintronic applications heterogeneous learning environment, and establishing collaborative endeavors with leading professionals from the (Shinya YAMADA) public and private sectors.

Humanware Innovation Program （Prof. Takao Onoye and Prof. Hiroshi Shimizu /Prof. Hiroshi Ishiguro） “Humanware Innovation Program” is a five-years doctoral program launched in 2012 under “Program for Leading Graduate Schools - Multidisciplinary type (Information)” of Ministry of Education, Culture, Sports, Science and Technology, Japan. This program is designed to spearhead the development of “humanware” through collaboration between the Graduate School of Information Science and Technology, the Graduate School of Frontier Biosciences, and the Graduate School of Engineering Science of Osaka Univer- sity. Its aim is to foster leaders in integrative informatics who can change the direction of innovation and construct flexible, robust, and sustainable systems by bridging information science, life science, and cognitive/brain science and cultivating new arenas of research. To this end, curricular aims are put into practice under a principle known in Japanese as Seido Jukugi̶students from different disciplines work together to Insertion of self-assembled lipid molecules into cell conduct intensive interdisciplinary studies. Students also undergo seminars from various corporations and indus- membranes alter the physicochemical membrane tries about practical issues including project planning, research and development strategies, and innovation in Systematic investigation of organic-inorganic hybrid materials properties, and control cell function. interdisciplinary fields. To cultivate skills of practical design, communication, and management and become a toward improvement of thermoelectric performance. (a) Designed lipids form self-assembly, which can be global leader, students are given research opportunities in international research institutes outside the university, (a) Schematics of thermoelectric conversion system inserted into membrane. including internships, summer camp, and research caravan. Graduates of this program are “networking doctors” (b) Substrate for the measurement of thermal conductivity (b) Alteration in membrane properties is characterized play a central role in industry, academia, and government with an integrated understanding of interdisciplinary (c) Structural control of organic-inorganic hybrid perovskites using spectroscopic methods. areas. (S.Nobusue) (c) Control of cell function: e.g. induced cell death. (K. Suga) 48

基礎工学部要覧_英文.indd 48 2018/01/26 19:29 Facts and Figures Facts and Figures

■ Program for Leading Graduate Schools ■Multidisciplinary Research Laboratory System for Future Developments (“MIRAI”Lab, ) Interactive Materials Science Cadet Program With its rich experience in developing newly emerging interdisciplinary fields, the Graduate School of Engineer- （Prof. Genta Kawahara and Prof. Tsuyoshi Kimura） ing Science established in 2002 a unique system called the Multidisciplinary Research Laboratory System for ‘Materials Science Cadets’ is a program launched as an integrated five-year doctoral course in Future Developments (MIRAI LAB) which supports and incubates various research projects aimed at the future materials science, and is promoted in an integrated manner by the graduate schools of engineer- development of creative research fields as well as the education of young researchers and engineers with global ing science, science, and engineering, Osaka University. The departments of materials engineering science and systems innovation also contribute to standards of knowledge and expertise in these fields, in cooperation with conventional basic engineering science. the program. The program aims to educate talented graduate students by cultivating ‘ Ma- Research projects in 2017 are: terials Science Cadets’ with the skills to occupy senior research positions in the materials (1) Behavior of metal ions at interface of ionic liquid and its application to new devices and materials science and production sectors, with the full support of faculty members of Osaka Universi- ty from a wide range of materials science fields including physics and chemistry. The pro- (Akihito IMANISHI) gram is also designed to apply the synergistic benefits of dialogic and interactive approach- (2) High frequency data analysis for single molecule measurement es to various facets of materials science education and research. In particular, the key con- (Masaaki FUKASAWA) cept of interactivity is applied to: (i) Materials: Interactions and correlations within and between materials (3) Search for new superconducting mechanism, materials, and charge Kondo effect derived from atomic (ii) Research: Interactive research approaches between different research fields and research methods valence skipping phenomenon (iii) Training: Interactive learning by way of dialog among students and instructors, among instructors, and between students and outside researchers and engineers. (Hidekazu MUKUDA) The multi-faceted curriculum organically links together various interactive ideas and approaches by combining a range (4) Lipid insertion can alter the membrane properties and induce cell death of components including mentor systems, laboratory rotation, liberal arts subjects, career guidance, private sector (Keishi SUGA) internships and overseas study opportunities. In this way, the curriculum is designed for the training of well-rounded Materials Science Cadets. (5) Systematic investigation of organic-inorganic hybrid materials toward improvement of thermoelectric performance (Shunpei NOBUSUE) Cross-Boundary Innovation Program (6) Personalized blood flow analysis in human left atrium with using cartesian-grid computational fluid dynamics （Prof. Masahito Taya, Prof. Prof. Hidetoshi Kobayashi and Prof. Kosuke Sato） (Tomohito OTANI) (7) Search for high-Tc superconducting hydrides by integration of computational and data sciences Knowledge is fundamental to a society that has achieved great progress through advances in science and technology. However, at the (Takahiro ISHIKAWA) same time, due to the rapid explosion of knowledge, areas of expertise (8) Construction of innovative mechano-biomaterials based on macromolecules with dynamically-tunable have become significantly compartmentalized, hindering efforts by even specialists and professionals to alleviate problems facing society. mechanical properties Rising to this challenge and recognizing the urgency to go beyond just turning out graduates with specialized knowl- (Masaki NAKAHATA) edge and a single set of skills, Osaka University including Graduate School of Engineering Science has established the (9) Development of surface plasmon resonance sensors utilizing far-ultraviolet region Cross-Boundary Innovation Program (CBI), a program that will cultivate individuals with the creative and strategic skills needed to deal with diverse challenges. CBI graduates will be able to go beyond the traditional framework - they (Ichio TANABE) will possess the ability to achieve what is “only possible by crossing boundaries.” (10) Multi-scale optimization of flow fields and application toward material engineering The development of the CBI Program is supported under the “Programs for Leading Graduate Schools” of the Japanese (Takashi NAKAZAWA) government’ s Ministry of Education, Culture, Sports, Science and Technology. Osaka University’ s challenge is now to implement the program by including scholars from a wide range of areas, emphasizing comprehensive skills, building a (11) Molecular beam epitaxial growth of spin-gapless Heusler-alloy films for spintronic applications heterogeneous learning environment, and establishing collaborative endeavors with leading professionals from the (Shinya YAMADA) public and private sectors.

MINOH Campus N TOYONAKA Campus SUITA for Takarazuka Campus

Saito-nishi Kita-Senri Ishibashi Handai Byoin Mae Senri-Chuo Banpaku kinen koen Ibaraki Ibaraki-Shi Shibahara Yamada Osaka (Itami) Airport Minami- Ibaraki Esaka

for Kobe, Hiroshima for Kyoto Shin-Osaka

Juso Awaji Kadoma-shi

JR Kobe LIne

JR Osaka Loop Line Osaka Keihan Line (Umeda) Nishi- Umeda Keihan Nakanoshima Line Nakanoshima Kyobashi Nakanoshima Yodo Temma yabashi Kitahama bashi Center Morinomiya Honmachi Subway Chuo Line

Tsuruhashi Namba JR for Nara Namba B Main Entrance A Tennoji C Dobutsuen- Mae E H D Tengachaya Main Gate F Kansai Center for Science and J JR Shinkansen Technology under Extreme G International Airport JR Lines Conditions Subway Engineering Science Nankai Line Subway(mido-suji) International Hall I Kita-Osaka Kyuko Line Osaka Monorail Izumisano Hankyu Lines Other Private Lines Research Center for Bus Lines Solar Energy Chemistry for Wakayama

Building Major Dept. ㎡ Toyonaka Campus For Takarazuka For Mino-o For Ibaraki Mechanical Science and Bioengineering Ａ Osaka University Administration Oﬃces Access from the nearest station Toyonaka Campus Ｂ Class Rooms Ishibashi Station Handai-shita By Train Crossing 15-25 min. east on foot from on Hankyu Ishibashi Entrance Ｃ Materials Engineering Science 29,133 Ishibashi Handai Takarazuka Line. Slope Ｄ East Entrance Materials Engineering Science By Monorail Ｅ 10-15 min. west on foot from . Hankyu Systems Innovation Shibahara Takarazuka Line Ｆ For Itami Toyonaka From Shin-Osaka Station Main Municipal Hospital Gate Take the subway Midosuji Line to Senri-Chuo, transfer Shibahara Sta. of Ｇ Joint-Use Space etc. 3,468 Osaka Monorail Osaka Monorail to Osaka Monorail and exit at Shibahara. (about 1 hour) Osaka Chuo-kanjo-sen From Osaka Airport (Itami) Chugoku Highway Chugoku-Toyonaka IC Ｈ Laboratories 1,201 For Senri-Chuo Take Osaka Monorail to Shibahara. (about 30 min.) ( For Osaka University Suita Campus ) Ｉ 1,951 Joint-Use Space etc. From Kansai International Airport Mechanical Science and Bioengineering • Take JR line to Osaka, transfer to the subway Midosuji Line, exit at Senri-Chuo, change to Osaka Monorail Hanshin Highway Ｊ Systems Innovation 6,376 and exit at Shibahara. (about 2 hours) Hotarugaike Graduate School of Frontier Biosciences • Take Nankai Line to Namba, transfer the subway Station Midosuji Line to Senri-Chuo, and take Osaka Monorail Osaka Others Engineering Science International Hall etc. 4,952 Airport to Shibahara. (about 2 hours) Station • Take Airport Bus to Osaka Airport, transfer to Osaka Osaka Airport Total 47,081 (Itami) Monorail to Shibahara. (about 2.5 hours) For Umeda

50 51

基礎工学部要覧_英文.indd 50 2018/01/26 19:30 Graduate School of Engineering Science Welcome to School of Engineering Science the Graduate School of Engineering Science/ 2018 Campus Map Location and Transportation School of Engineering Science, Osaka University Table of Contents

MINOH N As we well know, science and engineering ously created interdisciplinary research try, biology and informatics, as well as Campus ...... TOYONAKA Message from the Dean 1 had developed tremendously during the fields congruent with social needs and have major important subjects related to the Campus SUITA for Takarazuka A brief IntroductionCampus to the Graduate School and 20th century, so that subsequently our made a great contribution to the academy courses. Our education also develops wider School Saito-nishiof Engineering Science...... 2 Kita-Senri lives have been changed and improved and industry through research and educa- viewpoints and flexibility. In the Graduate Ishibashi History Handaiof the Byoin Graduate Mae School and School of Senri-Chuo Banpaku kinen koen ...... Engineering Science.Ibaraki 3 drastically. The extension and formaliza- tion. Osaka University offers great and School, with eleven divisions, we provide Ibaraki-Shi Shibahara OrganizationYamada ...... 4 Osaka (Itami) tion of the fundamental disciplines and unique opportunities of education and higher-level professional education and per- Airport Minami- Graduate SchoolIbaraki their applications to manufacturing played research in the wide range of the fields of form fusion research with the different Esaka Dept. of Materials Engineering Science ...... 5 an important role of the developments. We basic science, engineering science and man- areas. We attempt to producefor Kobe, Hiroshima graduates for Kyoto Shin-Osaka Division of Materials Physics ...... 6 believe that fusing together as well as ufacturing. In addition, our graduate school who have a firm specialty and the potential ...... Juso Division of Chemistry 8 developing the fundamental disciplines are attempts to connect life science with the to pursue research and development in Awaji Kadoma-shi Division of Chemical Engineering ...... 10 necessary steps toward continuing to con- engineering science and further progress areas beyond their acquiredJR Kobe specialty. LIne Dean JR Osaka Loop Line ...... Osaka DivisionKeihan of Line Frontier Materials Science 12 Graduate School of tribute to developments in the future. In toward the integration of arts and science, (Umeda) Engineering Science Nishi- Dept. of Mechanical Science and Bioengineering ...... 15 Life Umeda Keihan Nakanoshima Line addition, we incorporate the fruits from which includes financial engineering and Nakanoshima Kyobashi School of Engineering Science, Science Division of Nonlinear Mechanics ...... 16 Nakanoshima Yodo Temma Osaka University humanity and social science research with insurance, robotics and data science. yabashi Kitahama bashi Center DivisionMorinomiya of Mechanical Engineering ...... 18 Honmachi those from science and engineering in In the School of Engineering Science, Division of BioengineeringSubway Chuo Line ...... 20 Science Engineering Engineering order to create true culture of the human which has ten courses, we have organized Science Dept. of Systems Innovation ...... 23 being. a characteristic curriculum for each course Tsuruhashi Namba Division of Advanced Electronics and JR for Nara Namba Optical Science ...... 24 Since the foundation of the School of Engi- to provide a deepB knowledge of basic sub- Social Main Entrance Science Division of Systems Science and neering Science in 1961, we have continu- jects, Asuch as mathematics, physics, chemis- Applied Informatics ...... 26 C Tennoji Dobutsuen- Division of Mathematical Science ...... 28 Mae E Division of Mathematical Science for H Social Systems ...... 30 D Tengachaya Main Gate F Facilities Atacched to Schools and Kansai Center for Science and J Research InstitutesJR Shinkansen Technology under Extreme G International Airport JR Lines Conditions Center forSu Sciencebway and Technology under Engineering Science Nankai Line Subway(mido-suji) ...... International Hall I Extreme ConditionsKita-Osaka Kyuko Line 33 Osaka Monorail Izumisano Center forHa Promotionnkyu Lines of AdvancedO Interdisciplinaryther Private Lines Research ...... 34 Research Center for Bus Lines Solar Energy Chemistry for Wakayama Center for Spintronics Research Network ...... 35 Center for Industry-University Collaboration ...... 36 School ...... 37 Building Major Dept. ㎡ For Takarazuka For Mino-o For Ibaraki Toyonaka Campus Dept. of Electronics and Materials Physics ...... 38 Mechanical Science and Bioengineering Ａ Dept. of Chemical Science andOsaka Engineering University ...... 39 Administration Offices Access from the nearest station Dept. of Systems Science ...... Toyonaka Campus 40 Ｂ Class Rooms Ishibashi Station Handai-shita By Train Dept. ofCrossing Information and Computer Science ...... 41 15-25 min. east on foot from on Hankyu Ishibashi Entrance Ｃ Materials Engineering Science 29,133 Ishibashi Handai Takarazuka Line. Facts and FiguresSlope ...... 43 Ｄ East Entrance Materials Engineering Science By Monorail Ｅ 10-15 min. west on foot from . Hankyu Systems Innovation Shibahara Takarazuka Line Ｆ For Itami Toyonaka From Shin-Osaka Station Main Municipal Hospital Gate Take the subway Midosuji Line to Senri-Chuo, transfer Shibahara Sta. of Ｇ Joint-Use Space etc. 3,468 Osaka Monorail Osaka Monorail to Osaka Monorail and exit at Shibahara. (about 1 hour) Osaka Chuo-kanjo-sen From Osaka Airport (Itami) Chugoku Highway Chugoku-Toyonaka IC Ｈ Laboratories 1,201 For Senri-Chuo Take Osaka Monorail to Shibahara. (about 30 min.) ( For Osaka University Suita Campus ) Ｉ 1,951 Joint-Use Space etc. From Kansai International Airport Mechanical Science and Bioengineering • Take JR line to Osaka, transfer to the subway Midosuji Line, exit at Senri-Chuo, change to Osaka Monorail Hanshin Highway Ｊ Systems Innovation 6,376 The symbol for the Graduate School of Engineering and exit at Shibahara. (about 2 hours) Hotarugaike Science/ School of Engineering Science Σ Graduate School of Frontier Biosciences • Take Nankai Line to Namba, transfer the subway Station Σ has the meaning of “summation”. This symbol was selected because Midosuji Line to Senri-Chuo, and take Osaka Monorail Osaka Others Engineering Science International Hall etc. 4,952 Airportthe ideal of the School of Engineering Science is represented by Σ to . (about 2 hours) Station Shibahara (Science and Engineering), namely, the initial S for science (a Greek Total 47,081 • Take Airport Bus to Osaka Airport, transfer to Osaka Osaka Airport (Itami) character), and the initial E of Engineering (E resembles the shape). Monorail to Shibahara. (about 2.5 hours) For Umeda

51 Graduate School of Engineering Science School of Engineering Science Osaka University 2018