Philosophy and Goals of Education and Research Purpose of Human Resource Development The aim is to cultivate individuals with specialized skills in the fields of mechanical engineering, electronics, robotics, materials science, and civil infrastructure engineering. These individuals will be equipped to utilize data and possess broad knowledge and problem-solving abilities in engineering. In line with this goal, students will acquire deep expertise in core academic disciplines such as electrical and electronic engineering, mechanical engineering, materials science, materials engineering, information and mathematical sciences, and civil infrastructure engineering. Profile of the Professionals to Be Trained We aim to foster highly skilled professionals and researchers who possess specialized abilities in mechanical engineering, electronics, robotics, materials science, and civil infrastructure engineering, and who can utilize data to drive innovation and solve problems. Features of the Advanced Engineering Program Main Research Areas Organic optoelectronic devices engineeringWe conduct education and research on the optical and electronic properties of organic semiconductors, thin-film fabrication techniques, molecular orientation control, and the application of organic semiconductors in optical and electronic devices. Material designWe conduct education and research on the correlation between the electronic and atomic structures of materials and their mechanical and physical properties. Our work focuses on the development of new functionalities in metals, ceramics, magnetic, and superconducting materials through micro- and nano-structure control, surface modification, phase transformation, and recrystallization. We also introduce techniques such as electron microscopy, computational analysis, and measurements of physical transport phenomena. Materials chemistryWe conduct education and research on both the fundamentals and applications of dry and wet processes for the smelting, refining, and recycling of inorganic materials, mainly metals. Our work also covers the improvement of corrosion resistance, surface modification, and surface functionality using electrochemical techniques. Photofunctional MaterialWe conduct education and research on the design and synthesis of novel photofunctional materials that integrate nanomaterials with organic and inorganic materials, as well as on the development of artificial photosynthesis systems and their applications in the field of nanomedicine. Molecular mechanical engineeringWe conduct education and research on molecular mechanics and quantum molecular mechanics for new materials, as well as on the evaluation of functions and performance of nano- and micro-scale mechanical and electronic devices based on these methods. Function control engineeringThe functions of high-speed, high-precision, and integrated systems have become increasingly diverse and specialized, ranging from non-biological to biological functions. We conduct education and research aimed at developing the components and systems that make up measurement and control systems capable of efficiently responding to this high functionality and multifunctionality, as well as establishing the underlying theories. Material processingWe conduct education and research on processing systems that support ultra-precision and miniaturization, through the development of processing methods for multifunctional new materials and the elucidation of their processing mechanisms, aiming to advance processing technologies and improve processing quality. Solid mechanicsThis course provides education and research based on mathematical engineering fields such as solid mechanics, computational mechanics, and experimental mechanics. It focuses on the physical properties and strength analysis of various materials—including new materials, composites, and functional materials—as well as the mechanical evaluation of machine elements and structures made from these materials. Intelligent systemsThis course provides development, education, and research in areas such as computer science, intelligent algorithms, intelligent control, robotics, plasma simulation, medical robotics, pre-disease science, and rehabilitation systems. Computer applications engineeringThis course provides education and research on advanced computer applications, including human and traffic flow measurement using information sensing technologies in a super-smart society and their industrial applications, well-being measurement technologies using smart devices, quality evaluation and control of multimedia applications and services, Intelligent Transport Systems (ITS), energy management systems (EMS) using IoT, and digital transformation (DX) in the construction industry. Electric energy systemThis course provides education and research on advanced high-power electronics focused on efficient conversion between electrical and mechanical energy, high-voltage and high-current technologies, linear motors, pulsed power technologies, high-power pulsed particle beam technologies, applications of atmospheric to high-density plasma, and observation and prediction of lightning discharges. 設計マネジメントThis course provides education and research on the theories of design, institutional frameworks, and management of public spaces and infrastructure structures with excellent functionality and aesthetics (including public procurement systems and international comparative studies), as well as revitalization of central urban areas and community formation in regional cities (including urban living, street space analysis, and international comparative studies). 地盤構造物信頼性設計This course provides education and research on design reliability from various perspectives, including the heterogeneity of naturally formed ground, uncertainties in ground investigation methods and spacing, and uncertainties in the resistance (design formulas) of composite structures involving steel and concrete. 土木計画学This course provides education and research on evaluating the social impact of securing transportation access and improving public transit systems, methods and effectiveness of citizen participation in transportation-oriented urban development, analysis and countermeasures for transportation disruptions during disasters, and evaluation of transportation hubs and pedestrian spaces. Organic optoelectronic devices engineeringWe conduct education and research on the optical and electronic properties of organic semiconductors, thin-film fabrication techniques, molecular orientation control, and the application of organic semiconductors in optical and electronic devices. Material designWe conduct education and research on the correlation between the electronic and atomic structures of materials and their mechanical and physical properties. Our work focuses on the development of new functionalities in metals, ceramics, magnetic, and superconducting materials through micro- and nano-structure control, surface modification, phase transformation, and recrystallization. We also introduce techniques such as electron microscopy, computational analysis, and measurements of physical transport phenomena. Materials chemistryWe conduct education and research on both the fundamentals and applications of dry and wet processes for the smelting, refining, and recycling of inorganic materials, mainly metals. Our work also covers the improvement of corrosion resistance, surface modification, and surface functionality using electrochemical techniques. Photofunctional MaterialWe conduct education and research on the design and synthesis of novel photofunctional materials that integrate nanomaterials with organic and inorganic materials, as well as on the development of artificial photosynthesis systems and their applications in the field of nanomedicine. Molecular mechanical engineeringWe conduct education and research on molecular mechanics and quantum molecular mechanics for new materials, as well as on the evaluation of functions and performance of nano- and micro-scale mechanical and electronic devices based on these methods. Function control engineeringThe functions of high-speed, high-precision, and integrated systems have become increasingly diverse and specialized, ranging from non-biological to biological functions. We conduct education and research aimed at developing the components and systems that make up measurement and control systems capable of efficiently responding to this high functionality and multifunctionality, as well as establishing the underlying theories. Material processingWe conduct education and research on processing systems that support ultra-precision and miniaturization, through the development of processing methods for multifunctional new materials and the elucidation of their processing mechanisms, aiming to advance processing technologies and improve processing quality. Solid mechanicsThis course provides education and research based on mathematical engineering fields such as solid mechanics, computational mechanics, and experimental mechanics. It focuses on the physical properties and strength analysis of various materials—including new materials, composites, and functional materials—as well as the mechanical evaluation of machine elements and structures made from these materials. Intelligent systemsThis course provides development, education, and research in areas such as computer science, intelligent algorithms, intelligent control, robotics, plasma simulation, medical robotics, pre-disease science, and rehabilitation systems. Computer applications engineeringThis course provides education and research on advanced computer applications, including human and traffic flow measurement using information sensing technologies in a super-smart society and their industrial applications, well-being measurement technologies using smart devices, quality evaluation and control of multimedia applications and services, Intelligent Transport Systems (ITS), energy management systems (EMS) using IoT, and digital transformation (DX) in the construction industry. Electric energy systemThis course provides education and research on advanced high-power electronics focused on efficient conversion between electrical and mechanical energy, high-voltage and high-current technologies, linear motors, pulsed power technologies, high-power pulsed particle beam technologies, applications of atmospheric to high-density plasma, and observation and prediction of lightning discharges. 設計マネジメントThis course provides education and research on the theories of design, institutional frameworks, and management of public spaces and infrastructure structures with excellent functionality and aesthetics (including public procurement systems and international comparative studies), as well as revitalization of central urban areas and community formation in regional cities (including urban living, street space analysis, and international comparative studies). 地盤構造物信頼性設計This course provides education and research on design reliability from various perspectives, including the heterogeneity of naturally formed ground, uncertainties in ground investigation methods and spacing, and uncertainties in the resistance (design formulas) of composite structures involving steel and concrete. 土木計画学This course provides education and research on evaluating the social impact of securing transportation access and improving public transit systems, methods and effectiveness of citizen participation in transportation-oriented urban development, analysis and countermeasures for transportation disruptions during disasters, and evaluation of transportation hubs and pedestrian spaces. Educational Objectives, Goals, and Three Policies Diploma Policy Policy on Completion Certification and Degree Conferment In the Doctoral Program of the Graduate School of Science and Engineering (Advanced Engineering Program), the goal is to foster researchers with original research capabilities and highly skilled engineers who can serve as key players in regional industries. This is achieved through the active integration of science and engineering, addressing the advancement of science and technology in the interdisciplinary field of Advanced Engineering. Based on this educational objective, students who complete the prescribed curriculum and achieve the following learning outcomes will be awarded the degree of Doctor of Engineering. Learning Goals and Indicators Fundamental Competencies Learning Outcomes: Broad academic knowledge forming the foundation for research and dissemination in science and engineering, and a panoramic, comprehensive perspective for solving various issues across disciplines. English proficiency necessary for understanding original research papers and communicating research findings. Indicators: Rich academic knowledge; reading comprehension, logical thinking, and language skills for understanding original papers. Expressive and language skills for communicating research results. Specialized Knowledge Learning Outcomes: Ability to understand world-class research outcomes and methodologies in Advanced Engineering, and competencies required for highly specialized professions. Indicators: Ability to understand advanced outcomes and methodologies in the field of Advanced Engineering. Ethics Learning Outcomes: Awareness of research ethics. Indicators: Ability to conduct research in accordance with ethical standards. Creativity Learning Outcomes: Ability to plan and carry out original research based on prior studies, and to compile and present findings in academic papers and other formats. Indicators: Research planning ability, implementation capability, and dissemination skills. Curriculum Policy Policy on Curriculum Organization In the Doctoral Program of the Graduate School of Science and Engineering (Advanced Engineering Program), a systematic curriculum is organized to develop the four competencies outlined in the diploma policy. Policy on Curriculum Implementation Over the course of three years, the curriculum is designed to encourage students to learn proactively and independently. In addition to required subjects such as exercises and special research, students may choose lecture subjects from both their own program and other programs. Evaluation is based on objective grading criteria aligned with the achievement of learning outcomes in each competency. Content, Methods, and Evaluation of Learning Outcomes Fundamental Competencies Content: Acquire knowledge and a broad perspective necessary to identify and solve new problems in science and engineering or in interdisciplinary areas with medicine and pharmacy. Methods: Take courses offered by their own or other programs. Evaluation: Assessed by instructors through exams, reports, and presentations. Specialized Knowledge Content: Study advanced subjects in the field of Advanced Engineering, read academic papers, and participate in academic conferences. Plan and conduct doctoral research through discussions with supervisors, and present findings in academic papers. Methods: Take courses related to their research theme, read academic papers, and participate in academic conferences. Evaluation: Assessed by faculty members through final exams, presentations, and submitted academic papers. Ethics Content: Develop awareness of research ethics, including compliance with laws and regulations in conducting research. Methods: Attend workshops or study using e-learning materials. Evaluation: Assessed through reports or completion of learning materials depending on the activity. Creativity Content: Acquire the ability to plan, conduct, and present original research based on prior studies. Methods: Learn through conducting research, writing papers, and presenting at academic conferences. Evaluation: Assessed by faculty members through final exams, presentations, and submitted academic papers. Admission Policy Policy on Student Admission The Doctoral Program in Advanced Engineering, Graduate School of Science and Engineering, seeks students who possess a strong interest and foundational abilities in the fields of mechanical engineering, electronics, robotics, materials science, and civil infrastructure engineering. Applicants should aspire to become engineers and researchers who contribute to human welfare by driving technological innovation and advancing culture through their expertise. Basic Policy on Student Selection (Types of Entrance Examinations and Evaluation Methods) To provide multiple opportunities and evaluate a diverse range of applicants, the following types of entrance examinations are offered: General Entrance Examination Evaluation is based on oral examination, interview, and document screening, focusing on English proficiency, subjects related to the desired field of study, master’s thesis, and research plan after admission. Special Entrance Examination for Working Professionals Evaluation is based on oral examination, interview, and application documents, focusing on subjects related to the desired field of study, academic papers, achievement reports, patents, and research plan after admission. Special Entrance Examination for International Students Evaluation is based on oral examination, interview, and application documents, focusing on language proficiency required for doctoral education, subjects related to the desired field of study, master’s thesis, and research plan after admission. Desired Qualities and Abilities Fundamental Competencies Motivation to acquire broad knowledge in science and engineering, and foundational academic skills equivalent to a master’s degree, including comprehension, logical thinking, and expressive abilities. Specialized Knowledge Strong interest in advanced engineering fields and motivation to acquire specialized knowledge and practical skills through research and contribute to society. Ethics A sense of responsibility and ethics as a member of society, and a desire to contribute to the sound development of science and technology through independent research. Creativity Strong research motivation and flexible thinking to tackle unknown and cutting-edge problems, aiming to contribute to both local and global communities. Curriculum Model Curriculum Model Research Theme: In the field of mechanical engineering, this model focuses on applying information engineering and data science to develop next-generation technologies such as robots and drones. These technologies are designed to implement results obtained in cyberspace into the real world (physical space). Profile of the Professionals to Be Trained: Highly skilled professionals who possess advanced expertise in various engineering fields and are capable of applying insights gained through information engineering and data science to the field of robotics, contributing to innovation and problem-solving in society. Common Graduate School Subjects Common Faculty Subjects Program-Specific Subjects Advanced Lecture Subjects Special Exercises & Research Year 1 1T Special Exercises in Advanced Engineering Program 4 Special Research in Advanced Engineering Program 10 2T 3T Interdisciplinary Presentation Seminar I 1 Advanced Topics in Biomedical Measurement Engineering 2 4T Year 2 1T Cross-Disciplinary Research Experience 1 2T Long-Term Internship 1 3T Interdisciplinary Presentation Seminar II 1 4T Year 3 1T 2T 3T 4T Credits Earned 2 2 2 14 16 Total Credits Earned: 20 Research Theme: In the field of electrical and electronic engineering, this model focuses on applying information engineering and data science to develop new technologies such as electronic devices and power systems that contribute to a computer science-driven future society. Profile of the Professionals to Be Trained: Researchers who possess advanced expertise in various engineering fields and can apply information engineering and data science to develop new technologies in electronics and power systems, contributing to the computer science-driven future society envisioned in Society 5.0. Graduate School Common Subjects Department Common Subjects Program Specialized Subjects Advanced Lecture Subjects Special Seminar / Special Research Year 1 1T Special Seminar in Advanced Engineering Program 4 Special Research in Advanced Engineering Program 10 2T 3T Interdisciplinary Presentation Seminar I 1 Advanced Lecture on Organic Devices 2 4T Year 2 1T Interdisciplinary Research Experience 1 2T Pre-FD 1 3T Interdisciplinary Presentation Seminar II 1 4T Year 3 1T 2T 3T 4T Credits Earned 2 2 2 14 16 Total Credits Earned: 20 credits Career Information Career Paths After Completion Manufacturing Industry (Steel, Non-ferrous Metals, Electronic Components/Devices/Circuits, Machinery and Equipment including Electrical, Production, ICT, and Scientific Instruments) Construction Industry Transportation Industry (Railway) Public Service (Science and Engineering Technicians/Researchers) Academic Research and Professional/Technical Services (Science and Engineering Researchers at Universities and Public Research Institutions) Faculty Members Research Area Faculty Name Research Theme Link Organic optoelectronic devices engineering ProfessorShigeki Naka We conduct education and research in the optoelectronics, thin-film engineering, alignment controlling, and application of optoelectronic devices using organic semiconductors. Researcher Profile (Pure) Associate Professor Masahiro Morimoto Researcher Profile (Pure) High frequency engineering Associate ProfessorKazuhiro Honda We conduct education and research on mobile communication systems, regarding multipath radio propagation, adaptive signal processing using array antennas and its over-the-air testing method, and angle of arrival estimation. Researcher Profile (Pure) Materials science for electronic devices ProfessorMasayuki Mori We conduct education and research on the nanodevices, MEMS (Micro Electro Mechanical Systems) and their integrated circuits, and the growth and characterization of semiconductor heteroepitaxial films. Crystal structure and dielectric properties of ferroelectric single crystals, ceramics, and thin film are also studied. Researcher Profile (Pure) Associate ProfessorToshio Kikuta Researcher Profile (Pure) Material design ProfessorKenji Matsuda We perform education and research on the relationship between electronic/ atomic structure of materials and their mechanical/ physical properties. Emphasis is placed on the understanding deformation mechanism via advanced deformation method and the development of new functions via micro/nano-structure control, surface modification, or control of phase transformation/precipitation with metallic, ceramic, magnetic and superconducting materials. Electron microscopy, computational analysis and experimental techniques for physical transport properties will be introduced to proceed with the education and researches. Researcher Profile (Pure) ProfessorNorio Nunomura Researcher Profile (Pure) Associate ProfessorTakahiro Namiki Researcher Profile (Pure) Associate ProfessorSeungwon Lee Researcher Profile (Pure) Assistant ProfessorTaiki Tsuchida Researcher Profile (Pure) Materials chemistry ProfessorHideki Ono Education and research are conducted into the fundamentals and applications of smelting, refining, and recycling processes of inorganic materials, mainly metals, by dry and wet methods and into the improvement of corrosion resistance, surface modification, and surface functionality by electrochemical methods. Researcher Profile (Pure) Associate ProfessorMasahiko Hatakeyama Researcher Profile (Pure) Assistant ProfessorKengo Kato Researcher Profile (Pure) Photofunctional Material ProfessorYutaka Takaguchi Education and research are conducted into the design and synthesis of new photofunctional materi als based on sur face-modified nanomaterials that enable hybridization with organic or inorganic materials so that they can be used in the development of artificial photosynthesis systems and applications in the field of nanomedicine. Researcher Profile (Pure) Material process ProfessorSeiji Saikawa Various theories and technologies have been established in the creation and application processes of excellent new materials and functional materials, and in the molding of metals. Education and research are conducted on the industrial application of molecular functional materials. Researcher Profile (Pure) ProfessorTetsuo Aida Researcher Profile (Pure) Associate ProfessorTakashi Hashizume Researcher Profile (Pure) Materials for Biofunctionalization ProfessorTakuya Ishimoto Education and research will be conducted into the design of artificial materials from the viewpoints of both macroscopic shape and microscopic material properties, not only to improve the functionality and performance of the material itself, but also to improve the functionality of the living body through the application of the material. Researcher Profile (Pure) Assistant ProfessorTomoyo Manaka Researcher Profile (Pure) Transfer phenomenon system Associate ProfessorMasamichi Yoshida We conduct education and research on transport phenomena of momentum, heat and mass occurring in industrial manufacturing processes such as polymer coating and alloy casting, aiming to develop mathematical models for simulation of unit operations constituting a process, methods for optimization of operating conditions, and technologies for saving energy and cost. Researcher Profile (Pure) Molecular mechanical engineering ProfessorTakeshi Seta We conduct education and research on molecular dynamics and quantum mechanics for new materials as well as on the evaluation of mechanical function and performance of molecular devices including electronic ones. Researcher Profile (Pure) Junior Associate Professor Tatiana N. ZOLOTOUKHINA Researcher Profile (Pure) Strength and fracture of engineering materials ProfessorNoriyasu Oguma We conduct education and research on establishment of optimal and safe design methods for mechanical components and structures. We also focus on creation and application of new functional materials through understanding the strength and fracture mechanisms of engineering materials, establishment of database for material properties, and reliability analysis. Researcher Profile (Pure) Associate ProfessorKoichi kasaba Researcher Profile (Pure) Associate ProfessorKenichi Masuda Researcher Profile (Pure) Function control engineering ProfessorTohru Sasaki The functions of high-speed, high-precision and complex systems range from non-bio to bio functions and have become subdivided. We conduct education and research to develop elements and systems for measurement. We also focus on control systems that can efficiently deal with high functionalization and multi-functionalization as well as establishment of the theories. Researcher Profile (Pure) ProfessorKenji Hirata Researcher Profile (Pure) ProfessorYoshiyuki Matsumura Researcher Profile (Pure) ProfessorToshiyuki Yasuda Researcher Profile (Pure) Associate ProfessorKenji Terabayashi Researcher Profile (Pure) Associate ProfessorJunya Yamauchi Researcher Profile (Pure) Junior Associate ProfessorMasahiro Sekimoto Researcher Profile (Pure) Material processing ProfessorTomomi Shiratori We conduct education and research on processing systems that not only improve the level of processing technologies and processing quality but also respond to superprecision and miniaturization by developing processing methods for new materials with multiple functions and elucidate their processing mechanisms. Researcher Profile (Pure) Junior Associate ProfessorNoboru Takano Researcher Profile (Pure) Solid mechanics ProfessorKatsuyuki Kida On the basis of mechanics such as studies on the strength of materials, computational mechanics, and experimental mechanics, we perform education and research on the strength of new materials, their combined materials, and functional materials. We also carry out mechanical evaluation of machine, components, and structures. Researcher Profile (Pure) Associate ProfessorKoshiro Mizobe Researcher Profile (Pure) Assistant ProfessorSoji Matsubayashi Researcher Profile (Pure) Intelligent systems Associate ProfessorHideki Toda We conduct education and research on robotics, medical robotics system, rehabilitation systems, intelligent algorithms, and intelligent control. Researcher Profile (Pure) Bio-information engineering ProfessorKazuki Nakajima We conduct education and research which promote design and development of the method of measuring biological information and the method of analyzing biological information for estimating a biological state. Researcher Profile (Pure) Computer applications engineering ProfessorYuukou Horita We conduct education and research on human and traffic flow measurement for industrial applications using information sensing technology, human well being measurement technology using smart devices, QoE of multimedia applications/services, intellectual image processing for ITS, energy management system using IoT devices, construction DX technology. Researcher Profile (Pure) Ultra-high frequency engineering ProfessorSeiichiro Ariyoshi We conduct education and research on electromagnetic simulation, device fabrication and measurement, and signal and image processing. Furthermore, we conduct education and research on imaging in the millimeter and terahertz wave regions. Researcher Profile (Pure) Associate ProfessorTatsuo Nozokido Researcher Profile (Pure) Associate ProfessorMasafumi Fujii Researcher Profile (Pure) Electric energy system ProfessorHiroaki Ito On the basis of high efficient power conversion and high voltage/current technologies, we conduct education and research on linear motor and actuator, magnetic levitation, magnetic bearing, power electronics, renewable energy utilization, pulsed power, high power pulsed particle beam, atmospheric pressure and high density plasma, and observation and projection of lightning discharge. Researcher Profile (Pure) ProfessorTakahisa Ohji Researcher Profile (Pure) Associate ProfessorKenji Amei Researcher Profile (Pure) Thermofluid system ProfessorSeiichiro Izawa Our research in fluid and thermal sciences has both fundamental and applied studies in energy conversion, heat and mass transport, and technologies for their usage. Basic research efforts in energy systems include multiphase flows, coherent turbulent structure, and bioengineering. Researcher Profile (Pure) Junior Associate ProfessorAtsushi Kase Researcher Profile (Pure) Junior Associate ProfessorDaisuke Watanabe Researcher Profile (Pure) Design Management ProfessorYoshiaki Kubota ・Design excellence of public space and urban infrastructure from the perspectives of functionality and urban landscape ・Institutional capacity and governance (e.g., international comparative studies of public procurement systems) ・Revitalization of and community building in urban areas (e.g., residential living in the urban core, street audit and analysis) Researcher Profile (Pure) Assistant ProfessorYongcheng Wang Researcher Profile (Pure) Hydraulic Engineering ProfessorIchiro Kimura We will elucidate the mechanisms and scenarios of various environmental problems and disaster prevention problems in rivers, coasts, and lakes. Furthermore, we will conduct education and research on measures to solve these problems from both hardware and software aspects. Researcher Profile (Pure) Reliability design on geotechnical structure ProfessorTakashi Hara Education and research of reliability design on geotechnical structure from the viewpoints, heterogeneous characteristics of natural ground, uncertainties of subsurface exploration and resistance evaluation of geotechnical structure, is conducted. Researcher Profile (Pure) Associate ProfessorNaoki Tatta Researcher Profile (Pure) Infrastructure Planning and Management Associate ProfessorHiroto Inoi Education and research on the following points will be conducted. -Social impact assessment of public transportation development. -Methods of public participation in transportation and urban planning. Evaluation of its effectiveness. -Analyze the impact of disasters on transportation and propose countermeasures. -Evaluation of transportation nodes and pedestrian spaces. Researcher Profile (Pure) Evaluation of structural performance Associate ProfessorTetsuya Kohno how to set the required performance, how to satisfy the required performance Researcher Profile (Pure) Structural Mechanics and Bridge Engineering Associate ProfessorYasuo Suzuki We conduct education and research on structural mechanics and bridge engineering. In specific, with regard to steel, steel-concrete composite and fiber reinforced polymer bridge structures, the mechanical behavior of connection of members, the load carrying mechanism, the performance evaluation, the rational design and so on are studied. Researcher Profile (Pure)
