Department of Mechanical Systems Engineering
Department of Finemechanics
Department of Robotics
Department of Aerospace Engineering
Department of Mechanical Systems Engineering, Department of Finemechanics, Department of Robotics, and Department of
Aerospace Engineering consist of following Core Laboratories, Research Centers/Institutes and Cooperative Laboratories.
［The figure in parenthesis indicates the number of laboratories.］
Department of Mechanical Systems Engineering① Core Laboratories
Functional Systems Engineering（３），Energy Systems Engineering（３）② Collaborative Chair (Graduate School of Biomedical Engineering)
Biomechanical Engineering（１）③ Research Center/Institutes
Fracture and Reliability Research Institute (FRRI)［Division of Research:2]
Strength and Reliability for Advanced Energy and Environmental Materials (１)，New Energy Systems Science (１)④ Cooperative Laboratories
Institute of Fluid Science (IFS) [Division of Research:3，Research Center: ２]
Creative Flow Research Division (１)，Complex Flow Research Division (２)，Lyon Center(１),Global Collaborative Research and Education Center for Integrated Flow Science (１)，Nanoscale Flow Research ivision (１)Institute of Multidisciplinary Research for Advanced Materials (IMRAM) [Division of Research :１]
Division of Process and System Engineering (１)Green Goals Initiative[Research Center: １]
Green X-tech Research Center (１)Department of Finemechanics① Core Laboratories
Materials Physics and Engineering (２)，Nanomechanics (３)，Biomechanics (２)② Research center/Institutes
Fracture and Reliability Research Institute (FRRI) [Division of Research: 1]
Division of Advanced Electric Power Technologies (１)③ Cooperative Laboratories
Institute of Fluid Science (IFS) [Division of Research:2, Research Center:1]
Nanoscale Flow Research Division (３)，Creative Flow Research Division (２), Global Collaborative Research and
Education Center for Integrated Flow Science(１)International Center for Synchrotron Radiation Innovation Smart (SRIS)［Division of Research:1］
Cross Fertilization Division（２）Green Goals Initiative[Research Center: １]
Green X-tech Research Center (１)Department of Robotics① Core Laboratories
Robot Systems (２)，Nanosystems (３)② Collaborative Chair (Graduate School of Biomedical Engineering)
Biomechanical Engineering（１），Biomedical Engineering for Health and Welfare（１）③ Cooperative Laboratories
Institute of Fluid Science (IFS) [Division of Research: 1 ]Division, Institute of Fluid Science (１)Department of Aerospace Engineering① Core Laboratories
Aeronautical Engineering(２)，Astronautical Engineering (３)② Cooperative Laboratories
Institute of Fluid Science (IFS) [Division of Research:3，Research Center:2]
Creative Flow Research Division (１)，Complex Flow Research Division (１) ,Global Collaborative Research and Education Center for Integrated Flow Science (２)Department of Mechanical Systems Engineering
Laboratory

Functional Systems Engineering(Micro-NanomechanicalArchitectonics)

Functional Systems Engineering(Tribology and Nanointerface
Engineering)

Energy Systems Engineering(Renewable Energy Conversion
Engineering)

Energy Systems Engineering(Fluid Mechanics)

Professor /Associate Professor

Professor
Takahito ONO
Associate Professor
Masaya TODA

Professor
Koshi ADACHI
Associate Professor
Motoyuki
MURASHIMA

Professor
Hiroo YUGAMI*
Associate Professor
Makoto SHIMIZU

Professor
Masaya SHIGETA

Professor
Tetsushi BIWA
Energy Systems Engineering(Control of Heat Transfer)

Associate Professor
Eita SHOJI

Theme of research
Micro/nanomechanical systems are key technologies in the fields ofinformation technology (IT), environmental engineering and biomedical
engineering. Based on nanotechnology, nanomachining and advanced
integration technology, our group is developing advanced precision mechanicalsystems consisted of nano/micro-mechanical elements and electrical elements.
The examples of our research topics are following:
1.
Biological 3D nano-imaging.
2.

Ultimate sensing

3.

Nano electromechanical systems

The limit of performance and reliability of almost all machines are associatedwith friction and wear at the tribological contact interface. Therefore, we aim tounderstand and control them from nanoscale view points for creation of future
highly-reliable and highly-functional mechanical systems.
1. Design and creation of highly-functional surface/ interface
2.

Smart tribological systems by control of nanointerface

3.

Creation of self-healing ultra-low friction system

4.

Development of carbon neutral tribotechnology by controlling molecularadsorption and growth at nano-interfaces

Our laboratory study two major research topics “Effective usage of thermalenergy by thermal radiation control” and “Development of energy conversion
devices for renewable energy resources based on solid state ionics and various
mechanics” to solve global energy demand and global-scale environmental
disruption to achieve sustainable growth society.
1.
Spectral shaping technologies of thermal radiation
2.

Advanced solar energy conversion technology using thermophotovoltaics

3.

Study of solid oxide fuel cell practical application and future research

We study unique phenomena of flows and heat-mass transfers at energy
conversion in high-energy fluid processes such as material fabrication anddecomposition using plasma over 10,000 K. We develop innovative methods to“see, observe, and diagnose” those invisible phenomena with the purposes ofmechanism elucidation and new process creation.
1. Mechanism and application of plasma-induced turbulence2.

High-speed detoxification of persistent substances

3.

Model experiment and calculation systems for natural disasters

4.

Nonequilibrium synthesis of functional nanomaterials by plasma flows

Our research focuses on understanding various thermoacoustic, heat and masstransfer phenomena to design and build advanced energy conversion systems
based on acoustic gas oscillations and thermofluid dynamics including phaseinterfaces.
1. Understanding of thermal phenomena induced by oscillatory flow
2.
3.
4.

Development of heat engines and heat transport devices using acoustic
waves
Development of optical measurement techniques for oscillatory flow
Understanding of nano-scale dynamics of wetting phenomena

Laboratory<Collaborative Chair(Graduate School of Biomedical
Engineering) >Biomechanical Engineering(Medical Nanosystem
Engineering)

Professor /Associate Professor
Professor
Tetsu TANAKA(Department assigned:
Graduate school of
Biomedical
Engineering）
Associate Professor
Takafumi
FUKUSHIMA

Theme of research
Semiconductor neural engineering is a discipline that uses semiconductor
process/device/circuit technologies to further understand the properties of neuralsystems and to create novel fusion systems of living bodies and machines. One of
the goals in this laboratory is to establish semiconductor neural engineering anddevelop biomedical micro/nano integrated systems. Another goal is to educate thenext generation of leaders in biomedical engineering through research including:
1. 3DIC/Chiplet Integration and Packaging Technology
2. Biomedical Analog/Digital IC Design
3. Fully-implantable Retinal Prosthesis System
4. Integrated Neural Probe for Brain/Neural Activity Manipulation
5.

Fracture and Reliability
Research Institute[Division of Strength Reliability
for Advanced Energy andEnvironmental Materials, FRRI](Laboratory for Surface
Modification And Interfacial
Control on Strength Reliabilityof Materials and Structures)

Fracture and Reliability
Research Institute[New Energy Systems Science,
FRRI](Laboratory for Energy Cycle
Systems Research)<Cooperative Laboratories>
Creative Flow Research
Division, Institute of Fluid
Science(Electromagnetic Functional
Flow Dynamics, IFS)

Professor
Kazuhiro OGAWA

State-of-the-arts energy materials and components have been using at hightemperatures, high pressure, or high-loading environments. Therefore, nano-level
cracks or defects on surface or at the interface between crystal grains or materials
can affect the lifetime of the materials and components. In this laboratory, thesafety and reliability researches for energy materials and components based on
surface modification and interface control have been studying.
1.
Degradation mechanism analysis of energy materials and components
2.

Associate Professor
Yuji ICHIKAWA

3.
4.

Associate Professor
Kazuhisa SATO

Professor Hidemasa
TAKANA

Non-invasive Vital Sign Sensors from Tears/Sweat/Blood, etc.

Development of thermal and environment barrier coatings for improvementof reliability for structural materials and components
Development of room-temperature bonding technique without heat affectedzone
Study of high accuracy non-destructive evaluation for energy materials andcomponents

Establishment of environment-conscious energy systems is a prerequisite for thesustainable development of our society.
Our research focuses on the development of next generation energy systems forenergy-substance systems based on nanomaterials. Specifically, research will
focus on energy conversion devices such as fuel cells, all-solid-state batteries andelectrolysis.
1. Mechanical reliability and durability of solid oxide fuel cells (SOFC)
2. Fabrication and design of highly durable all-solid-state batteries
3. Development of non-destructive evaluation methods for heterophasefunctional laminates
4. Study on life prediction of heterophase functional laminates.
Our group conducts researches on advanced electro-responsive fluids andreactive plasma flows with focusing on the clarification of their complex
thermofluid interactions in spatio-temporal multiscale, establishment andoptimization of the intelligent fluid flow systems, as well as their advanced
applications to environment, energy and innovative material fields.
1. Improvement of CO2 absorption by ionic liquid electrospray
2.

Innovative cellulose material fabrication by electrostatic fibril alignment

3.

Computation simulation on ignition enhancement by nano-second pulsed
discharge
Development of electromagnetic energy conversion device for efficientutilization of wind energy.

4.

Laboratory<Cooperative Laboratories>
Complex Flow Research
Division, Institute of Fluid
Science(Heat Transfer Control, IFS)

<Cooperative Laboratories>
Complex Flow Research
Division, Institute of Fluid
Science(Advanced Fluid Machinery
Systems, IFS)

Professor /Associate Professor

Professor
Atsuki KOMIYA

Professor
Yuka IGA
Associate Professor
Junnosuke OKAJIMA<Cooperative Laboratories>
Lyon Center, Institute of Fluid
Professor
Science
Tetsuya UCHIMOTO(Mechanical Systems Evaluation,
IFS)<Cooperative Laboratories>
Global Collaborative
Research and Education
Center for Integrated Flow
Science, Institute of Fluid
Science(Energy Dynamics, IFS)

Professor
Kaoru MARUTA
Associate Professor
Hisashi NAKAMURA

Theme of researchPrecise and active controls of heat and mass transfer under extreme conditions
such as micro/nano scale and zero-gravity environments are important for futurescience and technology. This laboratory has been conducting research on thefundamentals of heat and mass transfer controls using an advanced optical system,
and applies them to the low emission energy system and heat transfer enhancement.
Heat transfer in intra-vital condition are also investigated.
1. Evaluation of protein mass transfer and its active control
2.

High heat flux cooling by phase change heat transfer in microscale

3.

Heat and mass transfer enhancement by applying supercritical fluids

4.

Investigation of bio heat transfer and its application to medical devices

In our laboratory, we are studying complex phenomenon caused by high-speed
gas-liquid mixture flow in an effort to acquire the high efficiency and reliability ofnext-generation fluidmachinery systems by using numerical and experimental
analyses.
1.
Clarification of mechanism of cavitation instabilities in liquid propellant
rocked engine and development of the suppression techniequie.
2.
Clarification of thermodynamic suppression effect of cavitation.
3.

Fundamental study on boiling flow and its heat transfer

4.

Development of high-performance cooling system and clarification of its
phenomena

In order to achieve higher reliability and safety of next-generation transportation
systems and energy plants, we conduct research activities on intelligent sensing.
1.
Characterization of metals degradation and damage by electromagnetic
nondestructive evaluation method.
2.
Development of high temperature sensors and their applications to online
monitoring.
3.
Development of nondestructive testing method for quality assurance ofcarbon fiber reinforced composites.
Advanced sensing with sensor fusion and inverse analysis.
For realizing combustion system with renewable and synthetic fuels includinghydrogen and ammonia, various new concept combustion technologies are studied
with domestic and international collaboration partners.
1.
Analysis and construction of detailed combustion kinetics with a micro flow
reactor with a controlled temperature profile for automobile engine and gas
turbine combustor.
2.
Fundamental and applied studies on microcombustion.
3.

Microgravity combustion experiments for comprehensive combustion limit
theory.
Hyper lean-burn engine study with extremely high thermal efficiency.

Laboratory<Cooperative Laboratories>
Nanoscale Flow Research Division,
Institute of Fluid Science(BiologicalNanoscaleReactiveFlow,
IFS)

Professor /Associate Professor

Professor
Takehiko SATO

Theme of research
We conduct research on the creation of next-generation medical technology
using plasma medicine and high-speed nanodroplets by clarifying interference withliving organisms from the viewpoint of nano-fluid phenomena, such as cellularresponse control using atmospheric pressure plasma flow, charged bubble
dynamics, and the development and application of measurement methods for thegeneration of high-speed nanodroplets using water.
1. Suppression of metastasis of cancer cell by plasma flow
2. High-density energy generation using charged cavitation bubble
3. Creation of water-saving, non-wetting, and chemical-free sterilization andcleaning methods using high-speed nanodroplets and clarification of nanodroplet
physics
4. Development of integrated sterilization and medical treatment using plasma,
bubbles, and droplets

Manufacturing Process<Cooperative Laboratories>
Green Goals Initiative,
Research Center for GreenX-Tech,<Cooperative Laboratories>
Division of Process and System
Engineering, Institute ofMultidisciplinary Research for
Advanced Materials(Solid StateIonic Devices, IMRAM)

Professor
Masayoshi MIZUTANIProfessor
Koji AMEZAWA<Cooperative Laboratories>
Professor
Creative Flow Research(Concurrent post)
Division, Institute of Fluid
Kaoru MARUTA
Science(Design of Structure and Flow in Associate Professor
the Earth, IFS)
Anna SUZUKI

Our lab aims to promote innovations of nano-precision Micro/Meso Mechanical
Manufacturing (M4 process) at the frontier of manufacturing technology, including
ultra-precision mechanical manufacturing technologies for various shapes, nanoprecision fabrication for 3D microstructures, atom/molecule manipulation fornanostructures and so on.
Our goal is not only to create high-precision shapes, but also to generatefunctional structures on the shape by controlling the micro textures.
1.
Development and phenomenon elucidation of Nano-precision machining
process2.
Creation of bio-medical interface utilizing Laser processing
3.
Creation of functional interface with Mechanical / Non-conventional process
Our laboratory contributes to solve environmental and energy problems
throughout fundamental and application researches on environmental-friendly
energy-conversion devices, such as solid oxide fuel cells and lithium ion secondary
batteries. In particular, focusing on solid-state ion-conducting materials, we arechallenging to establish an academic discipline on “solid-state ionics”, andapplying this to develop novel materials and to improve performance/reliability ofthe energy conversion devices. We are also working for the development ofadvanced in situ analytical techniques for solid-state
ionic devices.
To use natural energy resources in our society, we study on estimation,
prediction, and design of complex natural structures and the flow of water and heatthrough them that cannot be controlled by humans. In addition, our research aims
to explore the role of technology in diverse societies and to promote people's
behavior change to address social issues.
1. development of mathematical models for evaluation and estimation ofcomplex structures and flows
2. understanding flow phenomena through structure-controlled flow
experiments
3. data-driven geothermal reservoir modeling4. design of co-creation communities for natural resource utilization

Note: For more detailed information, please contact the director. (Professor Takahito ONO TEL +81-22-795-5806)◎Meaning of the symbols in the table〔Laboratory or Institute〕※
No students will be assigned in 2025.
〔Faculty member〕*
Scheduled to retire in March 2025 (will not accept students.)**
Scheduled to retire in March 2026 (will not accept students.)***
Scheduled to retire in March 2027(will not accept Doctoral students)

Department of Finemechanics
Laboratory

Professor /Associate Professor

Materials Physics andProfessor
Engineering
Hitoshi SOYAMA(Intelligent Sensing of Materials)

Theme of research
In order to realize sustainable society, researches on enhancement andevaluation of materials properties are conducting for light weighting of
automobile and for extension and reliability of life time of power-and chemicalplants.
1. Research and development of mechanical surface treatments and evaluationof modified layer
2. Production of novel materials by considering biomineralization
3.

Materials Physics andAssociate Professor
Engineering
Yoshiteru AOYAGI(Mechanics and Material Design)

Nanomechanics(Softmechanics)

Nanomechanics(Precision Nanometrology)

Professor
Takeshi Yamaguchi

Professor
Wei GAO
Associate Professor
Hiraku MATSUKUMA

Evaluation of surface modified layer by using numerical simulation andexperiment

The complicated behavior of materials is calculated using multiscale plasticity
that simultaneously expresses phenomena of different scales, such as an atomic
scale on microstructures and a continuum scale on macroscopic structures
Furthermore, we aim to unite the data obtained by experiment with computational
research and to create new prediction
1.
Development of practical CAE system for prediction of mechanical
Properties Based on Microstructure of Materials
2.
Simulation on mechanical properties of advanced alloys based on
dislocation behavior
3.
Effect of transcrystal on fiber-reinforced thermoplastic composites
Based on the soft mechanics research such as contact and friction control ofsoft materials including rubber and living organisms and human motion
analysis, we are conducting research to improve the health and function of
mechanical systems, to prevent falling accidents, and to extend human motor
functions.
1.
Development and application of friction control technology for soft
materials
2.
Elucidation of fall mechanisms and biomedical engineering research on
fall prevention technology
3.
Development of technology for extending physical motor functions
In Precision Nanometrology Laboratory, research activities are focused on
nano-scale measurement and control of multi-degree-of-freedom surface forms
and machine motions by combining unique precision nanometrology
technologies with advanced machining technologies and control technologies interms of nanometric metrology, control, fabrication and their applications.
1.
Multi-dimensional ultra-precision optical sensors/actuators
2.

Measurement and fabrication of multi-degree-of-freedom precision
surface forms and machine motions

3.

Measurement and control of micro/nanom-motions

Laboratory

Professor /Associate Professor

Nanomechanics
Professor(Mechanics of Materials System) Hironori TOHMYOH
Associate Professor
Keiichi SHIRASU

Biomechanics(Biodevice Engineering)

Biomechanics(Biological Flow Studies)

Professor
Matsuhiko
NISHIZAWA

Professor
Takuji ISHIKAWA（Department
assigned：Graduate
school of Biomedical
Engineering）
Associate Professor
Kenji KIKUCHI
Associate rofessor
Toshihiro OMORIGreen Goals Initiative,
Research Center for Green XTech,(Design of Function andReliability of Materials）

Professor
Ken SUZUKI

Theme of research
In order to create advanced materials system with higher value added, we havedeveloped various peripheral technologies form the fabrication of fine-scalematerials to their applications, as well as studied principles and methods forevaluating reliability of materials system.
1.
Fabrication, joining, characterization and application of fine-scale
metallic, polymer and carbon materials
2.
Nondestructive evaluation of materials system using sound or current
3.
Characterization of human hair and nail for understanding higherdimensional materials system
Recent rapid progress in molecular cell biology generates a new field of
biodevice engineering that utilizes functions of biomolecules and cells. We aredeveloping enzymatic and cellular sensors and power devices with highsensitivity and efficiency by soft micromachining of biomaterials.
Followings are our concrete research themes.
1.

Enzymatic fuel cell devices

2.

Medical and environmental sensors

3.

Biolithography for controlling self-assembling of biomaterials

4.

Molecular engineering of human / device interface

5.

Hydrogel-based biohybrid machines

Biomechanics is a research field to understand biological, physiological andpathological phenomena in terms of physical principles. The methodology gives
novel knowledge, which has not been accessible by conventional biological,
medical and chemical tools. Our group focuses on biological flow related tomicroorganisms and a human body, and try to overcome environmental andhealth problems.
1.
2.
3.
4.
5.

Prediction and control of microbial flora in the intestine
Large scale GPU computing of biological cells, such as algae and sperm
Transdermal absorption of medicine enhanced by mechanical stimulations
Medical needle device development by bio-inspired design
Development of micro-robot propulsion principle using microorganisms
as a model
6. Elucidating the evolutionary path of organisms in terms of biomechanics
The mechanism of functions and performance of materials is elucidated byatomic-level simulations and experiments. Molecular design, manufacturing andevaluation techniques are developed to prevent degradation and damage ofmaterials used in harsh environments.
1.
Functional design of materials by atomic-level simulation
2.
Investigation of the mechanism of function development of materials andits degradation/damage process3.
Development of carbon material based health monitoring devices

Laboratory

Fracture and Reliability
Research Institute,[Division of Advanced ElectricPower Technologies, FRRI](Joint Reserch with Tohoku
Electric Power co., Inc.) ※Professor /Associate Professor

Associate Professor
Yoichi TAKEDA<Cooperative Laboratories>
Nanoscale Flow Research
Professor Taku OHARA
Division, Institute of Fluid
Science(Molecular Heat Transfer Laboratory,
IFS)<Cooperative Laboratories>
Nanoscale Flow Research
Division, Institute of Fluid
Science(Molecular Composite Flow
Laboratory, IFS)

Professor(Concurrent post)
Taku OHARA
Associate Professor
Gota KIKUGAWA

Theme of researchWith aiming to establish sustainable operation of the energy conversion
systems, investigations related to improvement of operability in the turbine
system and degradation mechanisms of structural materials in electric power
generation plants are carried out.
1.
Advanced technology for improving the efficiency of steam turbine
power generation2.
Improvement of efficiency and reliability of the hydrogen production /storage system
3.
Elucidation of time dependent fracture of structural materials in hightemperature environments
Molecular-scale thermophysical phenomena such as transport of thermalenergy and mass, and interfacial phenomena among various phases play
important roles in advanced technologies including biotechnology, design ofthermal fluid and nanoscale fabrication process. Basic mechanism of theelementary process is being studied, which leads to the cutting-edge applications
in mechanical engineering and thermal engineering.
1. Molecular-scale transport phenomena in liquids and solid-liquid/ liquid-gas
interfaces
2. Analysis and control of molecular-scale transport phenomena of thermalenergy and momentum aiming at the design of thermal fluids with required
thermophysical properties
3. Study of advanced coating
4.

Thermal and mass transport characteristics in molecular membranes suchas cell membrane5.

Basic studies for biomimetic fluid machinery

From nanoscale to macroscale, various thermal and fluid phenomena, inwhich composite molecular-scale physics is integrated, are of critical importancein the wide range of engineering and industrial processes. In particular, anessential understanding of these phenomena is indispensable to improve theperformance of next-generation semiconductor devices or to explore anddevelop novel polymeric substances. By using large-scale numerical simulations
such as the molecular dynamics method, we investigate heat and mass transfer
phenomena in the thermal and fluid engineering from the microscopic viewpoint.
The underlying microscopic mechanisms governing macroscale thermofluid
properties are examined as well. Moreover, industrial applications based on thisknowledge are also explored.
1.
2.
3.
4.
5.

Molecular-scale mechanisms governing macroscale thermofluid
properties
Development of molecular dynamics analyses in the thermal and fluid
engineering
Control of interfacial transport properties by surface modification
techniques such as self-assembled monolayer (SAM)
Microscopic mechanism of interface affinity and wettability on thesurface of organic molecular films
Multiscale analyses regarding design of transport properties for polymericmaterials

Laboratory<Cooperative Laboratories>
Nanoscale Flow Research
Division, Institute of Fluid
Science(Quantum Nanoscale Flow
Systems Laboratory, IFS)

<Cooperative
Laboratories>Global
Collaborative Research and
Education Center for
Integrated Flow Science,
Institute of Fluid Science(Green Nanotechnology, IFS)

<Cooperative Laboratories>
Creative Flow Research
Division, Institute of Fluid
Science(Integrated Simulation
Biomedical Engineering
Laboratory, IFS)

Professor /Associate Professor

Professor
Takashi TOKUMASU

Professor

Kazuhiko Endo

Associate Professor
Kenichi FUNAMOTO

Theme of research"Hydrogen" and "Battery" are very important issues in the next-generation newenergy system. When considering these two issues, the influence of the "quantum
characteristics" of a substance on a macro "fluid phenomenon" must be evaluated.
An extremely light atom such as hydrogen cannot be regarded as a mass point, andits effect appears in a macroscopic phase diagram of a substance. In addition, theefficiency of the battery is determined by the correlation between “chemical
reaction (quantitum characteristics)” and “mass transport (flow characteristics)”.
In this research field, we will focus on next-generation energy devices and analyze
the correlation between "quantitum characteristics" and "flow phenomenon" of
fluids that occur in these devices. Moreover, we aim at applying the knowledge tosome engineering devices.
1. Study for the chemical/transport phenomena of materials in polymer
electrolyte fuel cell
2. Study for the chemical/transport phenomena of material in secondary
batteries.
3. Study for fabrication process of semiconductor manufacturing.
As a key device for the next generation of green nanotechnology, it is essential toachieve high energy efficiency by miniaturization and integration of semiconductor
nanodevices. In order to achieve high energy efficiency, controlling thecharacteristics of semiconductor nanodevices at the atomic level is necessary. For
this purpose, it is necessary to control processes such as microfabrication,functional thin film formation, surface modification, and cleaning at the atomic
level. Therefore, in this research field, we will search for experimental solutions to
the following research topics.
1. Research on new channel materials for semiconductor nanodevices andcontrol of them at the atomic level
2. Atomic-level control of thin film deposition process for semiconductor
nanodevices
3. Atomic-level control of microfabrication processes for semiconductor
nanodevices
For technical innovation of treatment and prevention for diseases, it is essential
to elucidate mechanisms of homeostasis and in vivo phenomena involved indevelopment and progression of the diseases. We are investigating individual cell
responses to spatiotemporal variations of microenvironment, as well as cell-celland cell-extracellular matrix interactions, and conducting research to control them.
1.
Development of microfluidic devices to reproduce in vivo
microenvironments.
2.
Analysis and control of cellular dynamics in response to environmental
factors.
3.

<Cooperative Laboratories>
Creative Flow Research
Division, Institute of Fluid
Science(Biomedical Flow Dynamics
Laboratory , IFS )Professor
Makoto OHTA

Elucidation of biofunctions by measurement-integrated simulation andtheir medical applications.

We have a high motivation for leading researches for medical device withmedical doctors. Our topics and topics are the followings.
1. Development of in-vitro model for supporting evaluation of new medical
device and education.
2. Computational simulation for treatment with medical devices. Especially,
simulation of arterial shape and blood flow using machine learning.
3.

Optimization of medical devices

4.

Analyses of cell responses with medical devices

5.

Aerosol droplet simulation in lungs and airways

Laboratory<Cooperative
Laboratories>
Cross Fertilization Division,
International
Centerfor
Synchrotron
Radiation
Innovation Smart (SRIS)(Next-Generation
Detection
System Smart Lab, SRIS)<Cooperative Laboratories>
Cross Fertilization Division,
International Center for
Synchrotron Radiation
Innovation Smart (SRIS)( International collaboration smart
lab )Professor /Associate Professor

Professor
Wataru Yashiro

Professor
Daichi CHIBA
Associate Professor
Hikaru NOMURA

Theme of research
In the 4D world we live in, the world of three dimensions (3D) plus time,
there is a vast unknown spatio-temporal region that cannot be accessed evenwith the most advanced measurement technology. In this laboratory, we aredeveloping new imaging technologies that dramatically exceed theconventional limits by making full use of the quantum nature of high-energy
beams such as X-rays, (synchrotron radiation from state-of-the-art facilities
such as NanoTerasu, a 3 GeV high-brilliance synchrotron radiation facility,
and X-ray sources used for medical diagnosis, etc.), advanced micro- and nanofabrication technologies, and data science technologies, and are trying to
explore the uncharted 4D world.
1. Development and application of millisecond time-resolution 4D X-ray
tomography
2.
Development of X-ray elastography for medical diagnosis and soft
material research
3. Fabrication of optical elements for X-rays and neutrons using advanced
micro- and nano-fabrication techniques.
4. Exploration of new modalities based on quantum phenomena
We are exploring new possibilities with ultrathin solid films that are flexible
and utilize ‘mechanical behavior’. With these films, we are proposing
principles for controlling magnetic (spin) properties. We are also developing
mechanical sensing technologies and exploiting the new scientific field of'spin-elastonics' and also 'nano-elastonics' with NanoTerasu. Our themes are,Creating new functional materials by reversibly controlling atomic spacing,
1.
Creating information processing systems using nano-magnets,
2.
Broadening the application of spintronics through 1 and 2, integrating
NanoTeras and other metrology, digital transformation of measurement
and control, and developing use cases.

Note: For more detailed information, please contact the director. (Professor Wei GAO TEL +81-22-795-6951)◎Meaning of the symbols in the table〔Laboratory or Institute〕※
No students will be assigned in 2025.
〔Faculty member〕*
Scheduled to retire in March 2025 (will not accept students.)**
Scheduled to retire in March 2026 (will not accept students.)***
Scheduled to retire in March 2027(will not accept Doctoral students)

Department of Robotics
Laboratory

Robot Systems(Neuro-Robotics)

Robot Systems(Design of Intelligent Machines)

Nanosystems(Molecular Robotics)

Nanosystems(Smart System Integration)

Professor /Associate Professor

Professor
Mitsuhiro HAYASHIBE
Associate Professor
Dai OWAKI

Professor
Yasuhisa HIRATA
Associate Professor
Yusuke TAMURA

Professor
Satoshi MURATA
Associate Professor
Shinichiro NOMURA

Professor
Shuji TANAKA
Associate Professor
Takashiro TSUKAMOTO

Theme of research
Recently, the current era is referred as a century of robotics. However, there
are still a lot of things we need to deeply learn from advanced and robust motor
control and sensory functions which humans have, for next step forward.
Robotics is also useful as computational tool to understand human motor
learning mechanism. We study on neuroscience for robotics and robotics forneuroscience as “Neuro-Robotics”.
1. Study of human motor control, learning mechanism
2.

Modeling and identifying biological signals and functions

3.

Development of robot technology to Neuro-Rehabilitation

4.

Deep learning and AI for Robot motion control

We are researching human-assistive robots for nursing care and healthcare
for the super-aging society, and systems that can be applied to a wide range oftasks from human assistance to infrastructure maintenance by cooperatively
using multiple robots. Furthermore, we are researching next-generationindustrial robots that can dramatically increase the productivity of garment
production lines by realizing robots that can handle flexible objects, and weare proposing new manufacturing methods through research and developmentof next-generation 3D printing technology.
1. Welfare Robot Systems
2.

A Haptic Feedback Device for Guiding Human Motion

3.

Coordinated Control of Multiple Robots

4.

Human-Robot Interaction Considering Human Attention and Intention

Thanks to the progress of molecular biology and other life sciences, themechanisms of biological molecular machineries have been elucidated inconsiderable detail. This knowledge is now ready to apply to various fields ofengineering, such as fabrication of complicated nanostructures and functional
molecular devices. In our laboratory, we are focusing on design and fabricationof nanostructures and molecular devices utilizing biomaterials such as DNA,lipid and proteins. Further, we seek for a systematic methodology called“molecular robotics”, to integrate them into a consistent system with desiredautonomy.
1. Design and fabrication of nanostructures made of nucleic acids andlipids.
2. Design and fabrication of molecular devices for computation, sensing
and actuation.
3. System integration of those structures and devices into a functional
molecular robot or an artificial cell.
Interface between “machines” and human is getting more important toconsider the applications of advanced mechanical systems. Also, future“machines” will have advanced control, autonomy and functions as
networked systems, as is the case with next-generation robots. This
laboratory is studying “smart systems” enabling such advanced “machines”
by integrating functional components in a small size. Our research interests
include material development, process development, device fabrication andsystem demonstration (see examples below), all of which are necessary to
implement “smart systems.” Through such a synthetic approach, high-level
education and research in the field of Nanosystems are conducted.
1. Sensors for human-friendly robots
2. Wireless communication devices
3. Bio-sensors for medical diagnostics
4. System integration
5. Integration and packaging technology
6. Fundamental technology for sensors and actuators

Laboratory

Nanosystems(Informative Nanosystems)

Professor /Associate Professor

Professor
Yoshiaki KANAMORI
Associate Professor
Naoki INOMATA<Collaborative Chair(Graduate School of Biomedical
Engineering) >Biomedical Engineering for
Health and Welfare(Medical Welfare Engineering)

Professor
Mami TANAKA（Department assigned：
Graduate school of
Biomedical Engineering）
Associate Professor
Takeshi OKUYAMA

Theme of research
To realize freely light controlling on demand, manufacturing technologies
of metamaterials (artificial optical material with sub-wavelength structures
smaller than light wavelength as unit element) by micro/nano processing
technologies, reconfigurable metamaterial that changes their opticalproperties, applications of metamaterial, and high-performance sensing
devices have been developed. Also, highly efficient nano-optical devices byapplying biomimetics has been studied. It is expected to be widely applied in
the fields of information, energy, environment, human sensing, medical care,welfare, etc.
1. Development of ultra-small spectroscopy system using metamaterials
and high sensitivity biosensors.
2. Study of high efficiency color filters and anti-reflection structures that
imitate peacock’s wings and moth-eyes.
3. Research on force sensor and wavelength selective control withintegrated micromachines.
4. Research on polarization and absorption control technology of terahertz
wave.
5. Research on highly sensitive thermometers under difficult
measurement conditions such as human body or biological cell.
With low birthrate and aging, staying healthy and the maintenance andimprovement of the quality of life (QOL) are strongly desired. To stayhealthy, early detection and treatment of diseases is important. In order tosolve these, we treat the advanced mechatronics and signal processing
technologies, and develop sensor/actuator systems for medical welfare
apparatus. The topics are as follows:
1. Intelligent artificial finger
2.

Development of a palpation sensor system

3.

Elucidation of mechanism of human tactile and touch feeling

4.

Measurement and analysis of human hand/finger motion

Both minimally invasive medicine with less injury to the body andhealthcare that promote and maintain health are becoming more important in
the medical field.
<Collaborative Chair(Graduate School of Biomedical
Engineering) >Biomechanical Engineering(Nanodevice Engineering)

Professor
Yoichi HAGA
（Department assigned：
Graduate school of
Biomedical Engineering）

Research and education are conducted using microfabrication technologies,
including MEMS (Micro Electro Mechanical Systems), to develop novel anduseful medical and healthcare devices.
Our studies range from basic research and development of the fabrication
process to clinical application and practical research.
1. Minimally invasive medical diagnostic and therapeutic devices with highperformance and multi-function.
2. Novel healthcare devices using new structures or principles.
3. Development of nonplanar microfabrication technology, which is a suitable
shape for insertion and use in the living body.

Laboratory<Cooperative Laboratories>
Nanoscale Flow Research
Division, Institute of Fluid
Science(Biomolecular Flow Systems
Laboratory, IFS)

Professor /Associate Professor

Associate Professor
Takuya MABUCHI

Theme of research
Ion channels, nanopores present within cellular membranes, are crucial
biomolecules that control the flow of ions between the interior and exterior ofcells, thereby regulating the essence of cellular energy processes. Research
aimed at biomimicking the complex structure and function of ion channels
with artificial molecules is a significant challenge across various fields, fromindustry to medicine. Using theoretical approaches such as molecularsimulations, we aim to elucidate the "nanoflow phenomena," which are
difficult to observe experimentally, and develop the theoretical design ofhighly functional artificial biomolecules with desirable properties. The
ultimate goal is to apply these biomolecules in engineering applications, suchas constructing artificial cells and molecular systems.
1. Reactive transport mechanisms of protons in nanopores
2. Theoretical design of artificial ion channels with selective permeability
3. Liquid-liquid phase separation using artificial polypeptides

Note: For more detailed information, please contact the director. (Professor Satoshi MURATA TEL+81-22-795-4100)◎Meaning of the symbols in the table〔Laboratory or Institute〕※
No students will be assigned in 2025
〔Faculty member〕*
Scheduled to retire in March 2025 (will not accept students.)**
Scheduled to retire in March 2026 (will not accept students.)***
Scheduled to retire in March 2027(will not accept Doctoral students)

Department of Aerospace Engineering
Laboratory

Aeronautical Engineering(Aerodynamic Design)

Professor /Associate Professor

Professor
Soshi KAWAI
Associate Professor
Yuichi KUYA

Theme of research
Our research draws from theoretical analysis, computational physics, data
science, and high-performance computing to develop novel high-fidelity
numerical simulation techniques for uncovering the basic physics underlying
complex compressible, multiscale and multiphysics flows in aerospaceengineering and for next-generation aircraft aerodynamic design tools.
1. Next generation high-fidelity numerical methods
2.

Digital innovation in aircraft design based on advanced aircraft
aerodynamic prediction

3.

Data-driven science and machine learning for flow analysis, control, andmodeling

4.

Aeronautical Engineering(Smart Systems for Materials
and Structures)

Professor
Tomonaga OKABE
Associate Professor
Go YAMAMOTO

Professor
Naofumi OHNISHI
Astronautical Engineering(Propulsion Engineering)

Associate Professor
Masayuki
TAKAHASHI

Professor
Kazuya YOSHIDA
Astronautical Engineering(Space Exploration)

Associate Professor
Toshinori
KUWAHARA

Application of quantum computation to fluid science

This research group is developing and implementing a variety of numericalmodeling tools for the advanced composites, and an aircraft traffic flow
simulation as follows;
1.
Numerical method for failure simulation of fiber-reinforced composites
2.

Multi-objective design of composite aircraft structures

3.

Virtual testing of composite aircraft structures

4.

Multi-scale modeling of advanced composite structures5.

Aircraft traffic flow simulation for optimal operation

New propulsion schemes by plasma, hypersonic flow dynamics,
nonequilibrium gas dynamics, and numerical techniques for them areinvestigated by computer simulations for future aerospace engineering
applications.
1. Feasibility study of beamed energy propulsion
2. Plasma acceleration analysis and improvement on electric propulsion
3. Proposal of advanced flow control technique by unsteady plasma
4. Prediction of nonequilibrium radiation from hypersonic flow
5. Numerical simulations relevant to astrophysical flow
We are working on space robotics technology for application to various
space exploration and space development missions.
1. Study on core technologies for space robotics and space flight systems,
such as motion dynamics and control, sensing and navigation,
teleoperation and autonomy
2. Dynamics and control of free-flying space robots for operation in orbitalor micro-gravity environment
3. Research and development of exploration robots for the surface of Moon,
planets and asteroids
4. Research and development of micro-satellites for scientificobservation, remote sensing and disaster monitoring missions

Astronautical Engineering(Space Structures)

Professor
Kanjuro MAKIHARA
Associate Professor
Keisuke OTSUKA

We are engaged in analytical and experimental research on dynamics,
aeroelasticity and shape control for space structures, such as space stations,
lunar bases, and artificial satellites.
1. Self-powered vibration control for space structures
2. Autonomous energy-harvesting using smart devices
3. Impact-proof tether systems for debris removal
4. Modeling for Mars-airplane with folding wings
5. Dynamics analysis and construction for large space structures

Laboratory<Cooperative Laboratories>
Creative Flow Research Division,
Institute of Fluid Science(Aerospace Fluid Engineering, IFS)

Professor /Associate Professor

Professor
Shigeru OBAYASHI*<Cooperative Laboratories>
Complex Flow Research
Division, Institute of Fluid
Science (ComplexShockWave,
IFS) ※<Cooperative Laboratories>
Creative Flow Research
Division, Institute of Fluid
Science (Spacecraft Thermal andFluids Systems Laboratory, IFS)

We are working on experimental fluid dynamics, computational fluid
dynamics, and their integration for the innovation, safety, and creation ofaerospace systems.
1. Innovative design and manufacturing assisted by “Multi-Objective
Design Exploration”
2. Innovative engineering design driven by “Data Assimilation”
3.

<Cooperative Laboratories>
Global Collaborative Research and Associate Professor
Education Center for Integrated
Yoshiaki ABE
Flow Science, Institute of Fluid
Science(Multi-Physics Design, IFS)

<Cooperative Laboratories>
Global Collaborative
Research and Education
Center for Integrated Flow
Science, Institute of Fluid
Science(High Speed Reacting Flow, IFS)

Theme of research

Associate Professor
Akihiro HAYAKAWA

Professor(Concurrent post)
Hiroki NAGAI
Associate Professor(Concurrent post)
Kiyonobu OHTANIProfessor
Hiroki NAGAI

Innovative aerospace plane experiment by “Magnetic Suspension andBalance System”

In aircraft design, numerous phenomena described in distinct physics, suchas fluid and solid mechanics, must be considered concurrently. Our area ofinterest is numerical simulation, which helps us comprehend and utilize thosemulti-physics phenomena, towards a new field named "aeroscience".
1. Modern hardware and high-fidelity computational fluid dynamics
2. Design optimization and aeroelastic analysis of composite aircraft
3. Multi-physics simulation for the use of advanced materials
4. Data-driven multi-physics formulation with high-fidelity simulations
Combustion phenomena represented by gas turbine combustion of aircraft
engines are highly complicated where turbulent flows interact withchemical reactions in extreme conditions. In this lab, researches on highspeed combustion phenomena and new combustion technologies with
globally low environmental impact are performed using advanced laser
diagnostics and numerical simulations.
1. Turbulent combustion in a high pressure and high temperatureenvironment
2. High-pressure spray combustion in gas turbine combustor conditions
3.

Supersonic combustion phenomenon and its control

4.

Laser diagnostics for rocket engine combustion

5.

Fundamentals and applications of carbon-free ammonia combustion

We are working on study of complex propagation phenomena of shock
wave in gas-liquid-solid three-phase for understanding a fundamental
mechanism and its interdisciplinary application
1. Study on shock wave propagation phenomena for human body tissue
protection
2. Establishment of shock wave pressure active control method3.

Study on supersonic free-flight projectile for artodynamics

We are working on study of thermal and fluids system for spacecraft, anddevelopment of their control technique.
1. Study on aerodynamic characteristics and heating when space vehicle
enters into planet having atmosphere
2. Study on thermal control system and device for next-generation
spacecraft
3. Study on airplane which flies in planet having atmosphere
4.

Research and development of novel optical measurement technique
for thermal and fluid dynamic phenomena

Note: For more detailed information, please contact the director. (Professor Naofumi OHNISHI TEL+81-22-795-6919)◎Meaning of the symbols in the table〔Laboratory or Institute〕※
No students will be assigned in 2025.
〔Faculty member〕*
Scheduled to retire in March 2025 (will not accept students.)**
Scheduled to retire in March 2026 (will not accept studnts.)***
Scheduled to retire in March 2027(will not accept Doctoral students)