The Department of Mechanical Engineering covers a wide range of research areas, categorized into the following five fields. (A list of professors and their research areas is available here http://www2.mech.t.u-tokyo.ac.jp/eng/people/)
Solid State and Materials Engineering
Engineering Materials, Plasticity
Our Chair of ‘Engineering Materials’ focuses on three fields: 1) Structural materials such as Carron-Fiber Reinforced Plastics (CFRP), Steels and Non-ferrous materials, 2) Elastoplasticity, and 3) Microstructure control by using the plastic deformation.
- Precise force and forward slip prediction model for cold rolling
- High-speed hot compression test and decoding the materials genome.
- Evolution of anisotropy by using multi-scale plasticity
- Manufacturing and forming of CFRP core - metal sandwich structured sheet
Multi-scale Solid Mechanics
A methodology to develop carbon fiber reinforced plastic (CFRP) members has been investigated based on manufacturing and strength simulations in the framework of multi-scale modeling. A methodology to distinguish carbon fiber and resin seems promising for overcoming conventional trial-and-error design method of CFRP members.
- Developing jet engine members made by CFRP
- Developing high pressure hydrogen CFRP tank for fuel cell vehicle
- Investigating strength prediction simulator for CFRP members
- Investigating manufacturing simulator for thermo-set and thermo-plastic CFRP
Computational Materials Science, Multi-scale simulation
We have been focusing on the research field of the strength and reliability evaluations of mechanical structures based on material mechanics. Present research covers multi-scale simulation for semiconductor material (combining finite element method, dislocation dynamics and molecular dynamics), finite element simulation for the design of mechanical structure including bolted joints. Those researches are applied to the fields of semiconductors, automobile, railroad vehicle through the collaborations with industries.
- Multi-scale simulations for various applications
- Three-dimensional finite element analysis for the loosening of bolted joint.
- Application of the molecular dynamics and finite element method to semiconductor devices
Nanostructured Materials Strength and Science
With the aim to reveal deformation and fracture mechanisms and peculiar physical properties originating in nanostructures in various materials including metals, semiconductors, ceramics and polymers, we perform multi-scale simulations ranging from nano-scale models such as ab initio and molecular dynamics to meso- and macro-scale models such as coarse-graining and finite element methods. We also develop new modeling methods utilizing data science.
- Analysis of buckling behavior and associated functionalities of carbon nanotubes
- Multi-scale analysis of deformation and fracture in polymer materials
- Reaction molecular dynamics of energy device materials
- Development of multi-physics simulation methods using deep-learming
Junho ChoiAssociate Professor
Thin films and tribology
We are studying the modification, control, and design of machine surfaces using solid thin films. Specifically, superlubricity of solid surfaces, durable triboelectric nanogenerator, superlyophobic surfaces, 3-dimensional diamond-like carbon coating, and synthesis of nanocarbon materials.
Eita TchigiAssociate Professor
To investigate fundamental mechanisms of deformation and fracture behavior of crystalline materials, we are conducting research on mechanical responses, atomic structure, and dynamic behavior of lattice defects by using transmission electron microscopy techniques.
- Development of experimental system for in situ TEM mechanical testing
- Microstructural observations of deformation and fracture behavior by atomic-resolution
- Investigation of dynamic behavior and atomistic mechanisms of deformation twinning
- Structural analysis of lattice defects in crystalline materials
Biological simulation, Bio-mechanics
The modeling and simulation of biological phenomena to elucidate the mechanisms, the link between micro-structures and physiological/ mechanical functions. The complex nature of biological systems, in which chemical, electrical, and mechanical phenomena interacting with each other, hamper our understanding of the mechanisms. To overcome the difficulty, we model and simulate biological systems integrating post-genomics massive information. The finite element method lay in the basis of our simulation.
Fluid and Thermal Engineering
Fluid Flow and Thermal Systems Control
Our laboratory leads the national project centered at “Fugaku” supercomputer in the industrial section, and is developing a flow solver capable of performing large-scale computations that uses trillions of computational grids. Through many joint projects with our academic as well as industrial partners, we do applied research aimed at replacing various industrial tests, and/or improving performance/reliability of an industrial product. We are also trying to understand complex phenomena that could never been clarified by conventional numerical simulations.
Growth of single-walled carbon nanotubes and hetero-nanotubes by chemical vapor deposition (CVD) method. Characterization of those nano-materials with transmission electron microscopy and optical spectroscopy. Application of nano-materials in innovative solar cells and field effect transistors.
Major concern is to plan and administer educational programs to develop basic technical expertise, literacy, and competencies of the engineering fields for graduate students through GMSI and WINGS-CFS activities. Final goal of these activities is to foster human resources, who obtain abilities not only to deepen their basic and special knowledge voluntarily, but also to create connections with many experts and stakeholders from academia industry and community, etc. of various countries and regions. Such human resources are expected much contribution to innovation and the collaborative creation of the future society.
Our research interests includes development of high value-added micro energy devices for wearable devices and mobile robots, elucidation of combustion phenomena for clean energy systems, development of micro/nano thermo-fluids systems with the aid of MEMS technologies.
- Electret-based Vibration Energy Harvesting Device
- Catalytic-combustion-based High-power-density Power Source for Autonomous Mobile Robot
- Investigation of Low-temperature-oxidation of Fuel and Its Wall Chemical Effect Using Advanced Laser Diagnostics
- High-performance Heat Exchanger for Small-scale Geothermal Power Plant
- Optimal Control/Design of Micro/Nano-scale Heat and Fluid Flows
Thermal Energy Engineering
Next-generation energy conversion devices, i.e. solid oxide fuel cells (SOFCs) operating at a high temperature of about 800 ℃, heat engines and heat pumps which operate with low temperature difference are studied.
- High efficiency energy systems combining SOFC, heat engine and high temperature heat storage
- SOFC electrode analysis using numerical simulation and advanced microscopic technologies
- Large-scale simulation and development of thermal elemental technologies
We have been working on various types of studies related to Fluid Mechanics, such as blood flows with many Red Blood Cells, bubbly flows in a water-purified tank, air-lift pump for deep ocean mining etc. We investigate the detail multiscale mechanism of related phenomena from both fundamental and application points of view.
Phase Change Thermal Engineering
Our laboratory is dedicated to the study of molecular - cellular scale kinetics and thermophysical properties that dominate the various functions of materials. Especially, the near infrared and the dielectric spectroscopies of the water-rich materials including living cells, biomaterials and hydrophilic porous materials (e.g. lignite) are used to open the new aspects in the fields of biomedical, foods and energy engineering. The recent topics in the laboratory are listed below.
- Stabilization of clinical analytes and diagnostic agents for their high quality dry-preservation
- Dielectric spectroscopy of the retained water in Lignite for estimating its low temperature oxidization.
- Delivery of cryo-/dry-protective agents into a living fish egg by the enhancement of membrane transport
- Development of the thin heat transport device equipped with the highly integrated micro grooved channels
- Dielectric spectroscopy of the slurry for electrodes (catalytic layer) for estimating its kneading state.
We work on energy technologies and related phenomena in pursuit of higher efficiency and performance in various temperature control mechanical devices. These include phase change, chemical reactions and heat and mass transfer in different thermal engineering systems.
Most of the energy obtained from natural resources is not used and is exhausted as heat. To realize a sustainable society, development of technology to convert this exhaust heat to other energy forms (such as electricity) or to store and reuse it is important. Our group aims to make effective use of thermal energy by understanding, designing and manufacturing materials and devices from a multi-scale perspective from molecules to continuums, by combining theoretical calculation, material synthesis, physical-property measurements, and machine learning.
- Development of thermoelectric conversion technology based on nanotechnology
- Heat-transfer innovation by Materials Informatics (material science x information science)
- Control of interfacial fluid dynamics phenomena such as wetting and phase change and its application to heat exchange
Yosuke HasegawaAssociate Professor
Thermal Fluids Engineering
We are working on various optimization problems in thermo-fluids engineering by combining optimal control theory, machine learning and massive parallel simulation techniques of fluid flow. The developed techniques are used for optimal designs of various thermo-fluids devices, monitoring turbulent environments by limited remote measurements etc.
- Optimal control of turbulent transport phenomena
- Shape optimization of thermo-fluids systems
- Mathematical modeling of vascular network remodeling
- Estimation of turbulent environments based on limited noisy sensing data
Shohei ChiashiAssociate Professor
Molecular thermal engineering
Synthesis, characterization, and applications of nano-materials, such as carbon nanotubes, and graphene, etc., that possess unique and different properties from bulk materials, are studied. At the nano-scale, the fabrication of complex systems, the physical/chemical phenomena and the material/energy transport are interesting research topics. The development of nanotechnology and its applications are aimed, through the nano-material researches.
Ikuya KinefuchiAssociate Professor
Muhammad AzizAssociate Professor
Energy and process integration engineering
Clean and highly energy-efficient systems are proposed and modeled toward the realization of sustainable community. These cover the analysis of each elemental technology, and optimization of each process and integrated system.
- Highly efficient hydrogen production, storage, and utilization
- Chemical looping-based CO2-free energy conversion
- Energy-efficient waste-to-energy conversion
- Advanced utilization of electric vehicle for grid ancillary services
- Decomposition of environmental gases
Our research aims at developing high-performance thermo-fluids systems/devices for a wide range of practical engineering applications, founded on thermal and fluids engineering, MEMS technology, computational fluid dynamics, and optimization theory. Currently, the research interests focus on the modeling and optimization of high-performance turbulent/laminar heat exchangers that would play a key role in saving energy in modern society, and low-power gas sensors for future wireless sensor network system.
- High-performance compact heat exchangers
- Modeling and optimization of turbulent heat transfer with complex geometry
- Development of ultra-low power MEMS gas sensor
- Shape optimization in conjugate heat transfer problems
In comparison with their bulk values, molecules possess unique transport properties in confined nanospace, allowing for the possibility of future technologies and applications. In this regard, we study transport phenomena of water, ions and biomolecules at the nanoscale driven by different types of chemical potential to explore unidentified physical phenomena via both theoretical and experimental approaches. Built upon acquired knowledge from our fundamental research, we propose prototypes of next generation systems for energy-related and medical purposes. Currently, we are working on the developments of desiccant-based dehumidifiers for air-conditioning applications and solid-state nanopore DNA sequencing devices using two-dimensional materials for precision medicine technology.
Fluid-solid interactions at the smallest scales
Our research interests are mainly in experimental physics of fluids at interfaces. We explore how tuning surface properties allow us to control fluid behavior. We investigate how micro and nanotextures combined with chemistry modify droplets behavior from the millimetric to the nanometric scale (water repellency, antifogging, antifrosting, …). Down to the atomic scale, we study experimentally the new properties of fluids and ions confined in channels with molecular dimensions. Through our research, we aim to develop new technologies that will benefit the society and contribute to tackle the major challenges we face such as global warming, freshwater production or energy decarbonization.
Computational Science, Micro-/Nanoscale Transport Phenomena
We study micro-/nanoscale fluid phenomena and material properties, focusing on their hierarchical nature ranging from the quantum mechanical scale to the macroscopic realm. Specifically, we investigate the relationship between microscopic properties at the molecular level and macroscopic properties at the device level through the development of coarse-grained molecular simulation techniques and the combination of molecular simulation and machine learning.
Mechanical Dynamics and Control Engineering
Our laboratory focus on to the mobility. The research projects are based on Control Engineering, Multibody dynamics, Human factor. We apply both traditional knowledge and current progressive methods like AI for mobilities. The goal for us are to realize and implementation the sustainable mobility .
- Boundary field of Human, Vehicle and Infrastructure
- Automated Driving , Driver behaviors and Human Factors
- Rail system and Novel type transportation systems
- Application AI and Bio-signal measurements for mobility
- Acceptance of Mobility
Biorobotics. System integration using MEMS and nanotechnology is the base of our research. Under the design thought of bionic approach, we create the innovative systems and machines to know the mechanism of the living body, to imitate the function of the living things, and to expand the ability of the living things. Applications are, medical care, regenerative medicine, an intelligent robot, an advanced measurement system, etc.
Mechanical and Biological Systems Control
While attention on automated driving of automobiles increases, aiming for augmentation of a driver, human oriented mobility engineering researches such as shared control, human-machine interface, and high level sensing have been conducted.
Yudai YamasakiAssociate Professor
Power and Energy System
Yamasaki Laboratory is conducting researches on combustion technology, control, and optimization for automotive powertrains and distributed energy systems. We are also working on applying AI technology for clarifying and modeling the complex physical phenomena of high-speed and high-temperature unsteady fields such as combustion in engines, and the system development with various mechanical elements and devices. In addition to such cooperation between hardware and software, we aim to build a system considering individual characteristics of humans such as drivers.
- Advanced engine control system, advanced combustion technology and alternative fuels
- AI application for virtual sensors and combustion analysis
- Analysis of biological signals during driving and powertrain control considering individual difference
- BCP and optimization of distributed energy system
We work on shared life with robots. We develop robot controllers that understand human behavior from whole body movements, create synergistic effects with the environment, and research behavioral changes in ecosystems where robots are introduced using dynamics, mathematics, and informatics. We work with concepts from social science, psychology, and philosophy.
Yuji YamakawaAssociate Professor
High-speed Flexible Robotics
By connecting various sensors on the network, centered on high-speed vision, we construct sensor network systems to quickly and comprehensively recognize the real world. Then we also feed back to actuation systems (robots etc.) in real time. Using these technologies, we aim to develop high-speed intelligent systems that realize dynamic interaction with the real world.
To realize safe, secure, and comfortable mobility society, we are researching intelligent mobility. Specifically, we are developing the driving environmental recognition systems and motion control systems of intelligent automobiles and personal mobility. In addition, we are evaluating the user acceptance of the human-machine shared systems based on such elemental technologies.
Autonomous surveillance and inspection system in both indoor and outdoor environments by aerial and ground robots. For such a system, robots are required to have both mobility and the manipulation ability. Thus the research topics about intelligent robotics, such as realtime control, multimodel sensing, and system integration, are focused in our work.
Robotics, Humanoid, Mechanical design, Biomimetics
Robotics research and development through the design and development of robot hardware is the main research topic. Based on the structural module assembly design that is the basis of the robot system, we have studied the body design and motion generation of human mimetic humanoids that have high bio-fidelity to the human musculoskeletal structure, or wearable robots. We will explore robot applications in the real world and aim for the social implementation of robot technology.
Design and Production Engineering
The practice of "design" that integrates the manners of the natural sciences with the methods of art, and prototyping for envisioning the future. Yamanaka Laboratory develops prototypes that explore new technological horizons through collaborative work between researchers and companies. Conducting practical research into the relationship between human and artifacts in the future throughout introducing design into the areas where design has not yet been deployed: cutting-edge technology fields such as robotics and spacecraft engineering where design method is yet to be firmly established; creation with cutting-edge manufacturing methods; and where the relationship between human body and artifacts are increasingly invaluable such as a medical field.
- Prototyping as an outreach activity to the society to communicate the dream of cutting-edge research
- Exploring new design methods based on additive manufacturing (3D printing)
- Extraction of "bio-likeness”, the cognitive factor of lifelikeness, and exploring robotics based on it
- Speculative design for einvisioning the future after the rare metal revolution
- Developing Beautiful Prosthetic Leg for Paralympic Athletes
Creative Design Engineering
Nakao, Nagato, Ueda, and Ito lab research on design and manufacturing. Design method using neuroscience, automatic operation system, manufacturing technology for surface functions are carried out. Wide range of researches with not only fundamental topics but also application topics are studied with companies such as automobiles, construction machines, agricultural machines, and materials.
At Design Engineering Laboratory, researches are conducted on design theories, methodologies and information technologies for enabling designers and engineers to maximally utilize their knowledge and creativity to design excellent products and services (design by human) to provide people and society with new values to satisfy their needs, affectivity and diversity (design for human).
- Design ideation by collaboration of human designer and information technology
- Game design methodology to avoid negative UX without spoiling positive UX
- Usability design technology applicable through upstream to downstream of design process
Cutting/Grinding, Machine tools
Our laboratory conducts researches of process such as cutting and grinding, machine tool, laser processing and medical application. Our technology enables to observe the high-speed phenomenon and to establish the physical models. Novel idea is proposed to solve the current problems.
The quality and quantity of industrial products is significantly influenced by processing and measuring technology, these production technologies are quite important and indispensable. Yoshioka group researches and develops the following new mechanical technologies for next generation manufacturing systems; precision machinery elements for nano machining and nano measuring, monitoring of machining process, precision industrial robots, intelligent machine tools, and high efficiency machining process.
Jean-Jacques DelaunayAssociate Professor
Measurement and sensing systems, Optics, Nanotechnology
Our group specializes in the fabricaton of micro/nanostructures and their use in energy conversion devices and optical devices with sub-wavelength dimensions. By advancing micro/nanofabrication techniques, we are able to design and fabricate micro/nanostructures that interact strongly with their external environment. For example, efficient sorption of airborne water molecules on mesoporous materials can be used for cooling purposes, and enhanced light-matter interactions in metallic structures can be exploited to realize highly sensitive sensors for biological/medical applications or ultra-fast all-optical switches for telecommunications.
Kensuke TsuchiyaAssociate Professor
Mechanical process, assembly, production system
Our laboratory develops machining technology that creates a shape, and assembling/ implementation/inspection of the components technology for from micro-scale to macro-scale devices.
Hideyoshi YanagisawaAssociate Professor
Affective design engineering
Affective design (or Kansei design in Japanese) is an expansion of conventional engineering design that considers requirements depending on human perception and emotions as well as product function and performance. Affective design engineering is an emerging discipline that studies theories and methodologies for engineering designers to create delightful artifacts in a systematic way. Our laboratory aims to understand the essential mechanism of perception and emotions and to formulate their first principles. We apply theories and methodologies to several industrial applications in cooperation with various disciplines.
- Modeling perception and emotion based on neuro-information-theoretic approach
- Sense of agency and interface design
- Safety and reliable design of autonomous machines for human
- Multi-sensory design based on the first principle modeling
- Multilingual semantic words management in design process
Masamichi ShimosakaAssociate Professor
Design and Production Engineering
We develop techniques for modeling human behaviors obtained by ubiquitous technologies. Specifically, we are working on the development of statistical machine learning including Bayesian analysis, and deep learning, and data analysis for IoT, and mobile phone sensor data. Based on these technologies, we are also pursuing the innovation in various service technologies where these behavioral modeling technologies are helpful.
Tsuyoshi FurushimaAssociate Professor
Materials Forming and Processing
Our lab. are conducting research on deformation process on the theme of "material deformation" related to metal forming and plasticity engineering, which is the basic technology of "manufacturing" in Japan. We cover both experimental and theoretical approaches such as stamping process, tube forming, material modeling, dieless forming without using any dies and tools, micro metal forming by focusing on “permanent deformation of materials” from a standpoint of cross-cutting issues from micro to macro-scale.
- Micro stamping process for medical and electromechanical compomemts
- Meso-scale material modeling considering crystal structure and surface roughenss
- Fabrication of bio and medical microtubes by dieless forming process
- Non-contact measurement techniques of plastic deformation
- Development of Intelligent metal forming process
Keisuke NagatoAssociate Professor
Production Process Engineering
Micro-/Nanostructured surfaces express a variety of physical functions interacting with light, thermal fluid, force, electron, chemicals, and biological materials. We develop high-efficiency manufacturing methods using laser or powders for these functional surfaces but also their novel applications. We also study data-driven “Process Informatics”, to efficiently open the process windows of the laser/powder processes having complex physical phenomena.
Takayuki YamadaAssociate Professor
Mathematical Informatics and Design Engineering
We study optimal design methods and their practical applications in mechanical engineering. Additionally, we construct a novel theory for design engineering based on mathematics and informatics beyond the traditional framework. To achieve our aim, we study mathematical physics in mechanical engineering, mathematical modeling for design problems, modeling for geometrical conditions by the partial differential equations, multiscale design problems, and practical design problems.
- Mathematical models for geometric constraints in manufacturing and optimization of design and manufacturing systems
- The fictitious physical models for design and manufacturing and the topology optimization
- Mathematical models for creations of novel functions and mechanisms ant the topology optimization
- Multiscale analysis based on the homogenization method, and the optimal design of metamaterials
Ultrafast imaging and laser processing
Our group is developing ultrafast measurement and control methods for material properties under irradiation of intense light (femtosecond laser), and is aiming to create innovative processing technologies based on these methods. When materials are irradiated by femtosecond lasers, various physical phenomena appear on various time scales. We are developing ultrafast (picosecond to nanosecond) measurement methods that enable us to not only visualize but also quantitatively measure the phenomena that occur on each time scale. Furthermore, we are developing innovative processing technology by utilizing the physical phenomena revealed by ultrafast measurement. We have achieved hole drilling 5,000 times faster than conventional methods by transiently controlling physical properties.
- Ultrafast laser processing by high-speed control of electron density
- Precision laser processing with high-speed monitoring and feedback
- Ultrafast quantitative imaging of electron-phonon interaction process
- Deformation mechanism of cells by ultrafast biological stress imaging
Cognitive Neuroscience, Kansei Engineering, Creative Design Science, Brain Machine Interface
We are conducting interdisciplinary research that integrates cognitive neuroscience, engineering, and medical sciences with a focus on the human elements of design, including sensibility of users and creativity of designers. We seek to understand precise information processes in human sensation, cognition, emotion, and thinking using neuroscientific measurement techniques (e.g., EEG and fMRI), and to build new theories and techniques that contribute to designing. We are also engaged in the development of brain-machine interfaces for the support of creativity and the improvement of cognitive functions.
- Elucidation of neural mechanisms of aesthetic sensibility to products using functional neuroimaging techniques
- Elucidation of neural mechanisms of creativity and development of creativity-assisting techniques
- Development of brain-machine interfaces for enhancing cognitive functions
In order to elucidate the mechanism of cardiovascular diseases such as cerebral aneurysm and arteriosclerosis, we are conducting research from both sides of numerical simulation and experiment. In the simulation, we are developing an integrated system for surgical planning of endovascular treatment combining simulation techniques with medical image data. In the experiment, we have developed a confocal micro PIV (particle image velocimetry) system and the latest three-dimensional measurement method to perform quantitative measurement of the multiphase flow in a microchip such as a blood diagnostic chip.
- Development of integrated circulatory simulation system considering systemic circulation based on medical images
- Development of 3D blood vessel shape modeling and visualization method from medical images for predictive medicine
- Development of coupled analysis method for endovascular treatment
- Visualization measurement of microscale flow with confocal Micro-PIV and digital holographic microscopy
Computational Bimolecular Science
Proteins are intricate molecules working efficiently with a minimal amount of energy. The remarkable functions of proteins are inseparable from their large-scale and complex structures. The straightforward approach for explaining and predicting the essence of the protein functions is the analysis of the reaction mechanisms using quantum chemistry based on the entire molecular structure. Our group is investigating and developing ProteinDF/QCLO, the canonical molecular orbitals calculation program for proteins based on the hybrid density functional theory (DFT). We aim at designing new enzymes, nanomaterials, and medicines.
Katsuko FurukawaAssociate Professor
Molecular and Thermal Engineering
We are trying to establish regenerative medical engineering for regenerating living tissues in vitro, synthesizing mechanical engineering, material science and cellular/ molecular biology. Additionally, we are also trying to elucidate unknown mechanisms regarding how living cells sense physical stimulations such as tensile stress, shear stress, and hydrostatic pressure at molecular levels.
- 3D Fabrication Technology
- Tissue Engineering for Uterus, Cartilage and Bone
- Bioreactor Design for Mechanical Stresses
- Real-time Imaging Technologies for Mechanical Stresses
Hidehiro OanaAssociate Professor
We are conducting research on microfabrication and micromanipulation technology for micro soft materials based on micro-/nano-engineering. We are exploring applications for single-cell/single-molecule analysis, stimulation and response measurement of individual cells/biopolymers, and control/modification of cell functions. These make it possible to obtain knowledge that could not be obtained by conventional research methods, and is expected to contribute to the basic life sciences and medical fields.
- Development of individual chromosome/DNA manipulation technology and its application to epigenome analysis
- Development of on-chip cell fusion devices and its application to regenerative medicine
- Development of microfluidic devices for giant vesicle formation and its application
Kanako HaradaAssociate Professor
We have been developing surgical robots for microsurgery, in particular, for pediatric, eye and neurosurgery using bioengineering technologies. We are also trying to automate the surgical robots considering surgical skills quantitatively assessed using high-fidelity patient/organ models equipped with sensors (named Bionic Humanoids) and virtual-reality simulators. Medicine-engineering collaboration is essential in this research domain, and basic knowledge of regulatory science is necessary.