The faculty of Department of System Innovation by their priory area are as follows.
| Name | Research priority area | Position | keyword |
|---|---|---|---|
| MURAYAMA Hideaki | Networking for Artifact |
|
Digital twin, Smart systems, Advanced composite materials, Optical sensor network, Advanced maritime system, ASV/USV |
| YONEKURA Kazuo | Networking for Artifact |
|
Optimization, Machine Learning, Aerospace system |
| HOUTANI Hidetaka | Networking for Artifact |
|
Ocean Waves, Ocean Engineering, Seakeeping Performance of Ships, Tank Experiment, Hydroelasticity |
| SHIBATA Kazuya | Networking for Artifact |
|
Fluid Simulation, Naval Architecture and Ocean Engineering, Disaster prevention and mitigation, explanation of phenomena, optimization |
| SUZUKI Katsuyuki | Networking for Artifact |
|
Computational mechanics, Optimal design, Structural mechanics, Ship structure |
| TAKAHASHI Jun | Networking for Artifact |
|
Carbon fiber reinforced thermoplastics, future transportation and logistics systems, innovative simulation, superfunctional materials |
| KAWABATA Tomoya | Networking for Artifact |
|
Hydrogen society, Steel material, Fracture mechanics, Natural gas, Pipeline, Storage tank, Earthquake |
| SHIBANUMA Kazuki | Networking for Artifact |
|
Fracture mechanics, Structural integrity |
| OKABE Yoji | Networking for Artifact |
|
Advanced composite materials, Structural health monitoring, Non-destructive inspection, Ultrasonic guided waves, Optical fiber sensors |
| KOSHIZUKA Seiichi | Networking for Artifact |
|
Computer simulation, Physics-based CG, Fluid dynamics, Solid dynamics, Venture |
| WAN Yi | Networking for Artifact |
|
Material engineering, Experimental evaluation, Modeling analysis, Carbon fiber reinforced composites |
| Name | Research priority area | Position |
|---|---|---|
| keyword_en | ||
| TAKAHASHI Jun | Networking for Artifact |
|
| Carbon fiber reinforced thermoplastics, future transportation and logistics systems, innovative simulation, superfunctional materials | ||
| OKABE Yoji | Networking for Artifact |
|
| Advanced composite materials, Structural health monitoring, Non-destructive inspection, Ultrasonic guided waves, Optical fiber sensors | ||
| SUZUKI Katsuyuki | Networking for Artifact |
|
| Computational mechanics, Optimal design, Structural mechanics, Ship structure | ||
| MURAYAMA Hideaki | Networking for Artifact |
|
| Digital twin, Smart systems, Advanced composite materials, Optical sensor network, Advanced maritime system, ASV/USV | ||
| SHIBANUMA Kazuki | Networking for Artifact |
|
| Fracture mechanics, Structural integrity | ||
| KAWABATA Tomoya | Networking for Artifact |
|
| Hydrogen society, Steel material, Fracture mechanics, Natural gas, Pipeline, Storage tank, Earthquake | ||
| KOSHIZUKA Seiichi | Networking for Artifact |
|
| Computer simulation, Physics-based CG, Fluid dynamics, Solid dynamics, Venture | ||
| SHIBATA Kazuya | Networking for Artifact |
|
| Fluid Simulation, Naval Architecture and Ocean Engineering, Disaster prevention and mitigation, explanation of phenomena, optimization | ||
| WAN Yi | Networking for Artifact |
|
| Material engineering, Experimental evaluation, Modeling analysis, Carbon fiber reinforced composites | ||
| HOUTANI Hidetaka | Networking for Artifact |
|
| Ocean Waves, Ocean Engineering, Seakeeping Performance of Ships, Tank Experiment, Hydroelasticity | ||
| YONEKURA Kazuo | Networking for Artifact |
|
| Optimization, Machine Learning, Aerospace system | ||
| Name | Research priority area | Position | keyword |
|---|---|---|---|
| KOBAYASHI Hajime | Global Circulation System |
|
Energy conversion, low carbon, environmental harmony, microbial engineering, symbiosis |
| MIYAMOTO Hideaki | Global Circulation System |
|
Planetary explorations, asteroids, Mars, Moon, Space resources |
| HASHIBA Kimihiro | Global Circulation System |
|
Resource development, Mining system, Time-dependence, Long-term behavior, Mechanical model |
| TOKORO Chiharu | Global Circulation System |
|
Resources Recycling, Environmental Remediation, Separation, Simulation, Mineral Processing, |
| GODA Takashi | Global Circulation System |
|
Uncertainty quantification, Decision making, Numerical analysis, Computational algorithms, Quasi-Monte Carlo methods |
| KATO Yasuhiro | Global Circulation System |
|
mineral deposits, rare earths, precious metals, global environment, CO2 disposal |
| TAKAYA Yutaro | Global Circulation System |
|
Waste Management and Recycling,Wastewater Treatment,Deep-sea Mineral Resources, CCS/CCU |
| TSUJI Takeshi | Global Circulation System |
|
Geophysical exploration, Space exploration, CCS, Geothermics, Earthquake, Volcano |
| YASUKAWA Kazutaka | Global Circulation System |
|
Seafloor mineral resources, geochemical cycles, climate change, chemical analyses, multivariate analyses, simulations |
| DODBIBA Gjergj | Global Circulation System |
|
Physical and/or chemical processing of materials, Solid waste management, Resource recovery, Wastewater treatment, Environmental impact assessment |
| FUKUI Katsunori | Global Circulation System |
|
Mining System, Geosystem, Seafloor Hydrothermal Deposits, Safe and Reliable Society |
| NAKAMURA Kentaro | Global Circulation System |
|
Submarine mineral resources, rare metals, resource exploration, earth dynamics, earth-life evolution |
| Name | Research priority area | Position |
|---|---|---|
| keyword_en | ||
| GODA Takashi | Global Circulation System |
|
| Uncertainty quantification, Decision making, Numerical analysis, Computational algorithms, Quasi-Monte Carlo methods | ||
| TAKAYA Yutaro | Global Circulation System |
|
| Waste Management and Recycling,Wastewater Treatment,Deep-sea Mineral Resources, CCS/CCU | ||
| TOKORO Chiharu | Global Circulation System |
|
| Resources Recycling, Environmental Remediation, Separation, Simulation, Mineral Processing, | ||
| KATO Yasuhiro | Global Circulation System |
|
| mineral deposits, rare earths, precious metals, global environment, CO2 disposal | ||
| FUKUI Katsunori | Global Circulation System |
|
| Mining System, Geosystem, Seafloor Hydrothermal Deposits, Safe and Reliable Society | ||
| YASUKAWA Kazutaka | Global Circulation System |
|
| Seafloor mineral resources, geochemical cycles, climate change, chemical analyses, multivariate analyses, simulations | ||
| NAKAMURA Kentaro | Global Circulation System |
|
| Submarine mineral resources, rare metals, resource exploration, earth dynamics, earth-life evolution | ||
| KOBAYASHI Hajime | Global Circulation System |
|
| Energy conversion, low carbon, environmental harmony, microbial engineering, symbiosis | ||
| MIYAMOTO Hideaki | Global Circulation System |
|
| Planetary explorations, asteroids, Mars, Moon, Space resources | ||
| TSUJI Takeshi | Global Circulation System |
|
| Geophysical exploration, Space exploration, CCS, Geothermics, Earthquake, Volcano | ||
| DODBIBA Gjergj | Global Circulation System |
|
| Physical and/or chemical processing of materials, Solid waste management, Resource recovery, Wastewater treatment, Environmental impact assessment | ||
| HASHIBA Kimihiro | Global Circulation System |
|
| Resource development, Mining system, Time-dependence, Long-term behavior, Mechanical model | ||
| Name | Research priority area | Position | keyword |
|---|---|---|---|
| TORIUMI Fujio | Socioeconomic System |
|
computational social sciences, artificial intelligence, data mining, agent-based simulation, social media, social data analysis, complex networks |
| IZUMI Kiyoshi | Socioeconomic System |
|
Agent-based simulation; Data mining; Artificial market; Text mining; Economic simulation |
| Hara Yusuke | Socioeconomic System |
|
Data Science for Urban and Transportation, Mechanism Design for Mobility Services, Travel Behavior Analysis, Co-evolution Model of Cities and Transportation |
| SHIBASAKI Ryuichi | Socioeconomic System |
|
international logistics, maritime shipping, intermodal transport, network modeling, data mining and analysis |
| AOYAMA Kazuhiro | Socioeconomic System |
|
System engineering, Design / production system, Knowledge management, Decision making, Project management |
| KANNO Taro | Socioeconomic System |
|
Team Cognition, Human Factors and Ergonomics, Service Systems Design, Human-Centered Resiliience Engineering. |
| TANAKA Kenji | Socioeconomic System |
|
social system, demand forecasting, service design, Li-battery life |
| FUJII Hideki | Socioeconomic System |
|
Social Simulation, Complex System, Human Modelling, High Performance Computing, Design Support |
| KAWASAKI Tomoya | Socioeconomic System |
|
Supply Chain Management (SCM), Value Chain Management (VCM), Logistics Systems Optimization, Graph Analysis, Big Data Analysis |
| MURAKAMI Shinsuke | Socioeconomic System |
|
Industrial Ecology, Mineral Economics, Material Flow/Stock Analysis, Social System Evaluation, Sustainability Assessment |
| SHIMADA Takashi | Socioeconomic System |
|
Statistical Physics Approach to Eco/Econo/Socio-Systems |
| Name | Research priority area | Position |
|---|---|---|
| keyword_en | ||
| SHIMADA Takashi | Socioeconomic System |
|
| Statistical Physics Approach to Eco/Econo/Socio-Systems | ||
| IZUMI Kiyoshi | Socioeconomic System |
|
| Agent-based simulation; Data mining; Artificial market; Text mining; Economic simulation | ||
| MURAKAMI Shinsuke | Socioeconomic System |
|
| Industrial Ecology, Mineral Economics, Material Flow/Stock Analysis, Social System Evaluation, Sustainability Assessment | ||
| KAWASAKI Tomoya | Socioeconomic System |
|
| Supply Chain Management (SCM), Value Chain Management (VCM), Logistics Systems Optimization, Graph Analysis, Big Data Analysis | ||
| KANNO Taro | Socioeconomic System |
|
| Team Cognition, Human Factors and Ergonomics, Service Systems Design, Human-Centered Resiliience Engineering. | ||
| AOYAMA Kazuhiro | Socioeconomic System |
|
| System engineering, Design / production system, Knowledge management, Decision making, Project management | ||
| Hara Yusuke | Socioeconomic System |
|
| Data Science for Urban and Transportation, Mechanism Design for Mobility Services, Travel Behavior Analysis, Co-evolution Model of Cities and Transportation | ||
| FUJII Hideki | Socioeconomic System |
|
| Social Simulation, Complex System, Human Modelling, High Performance Computing, Design Support | ||
| TANAKA Kenji | Socioeconomic System |
|
| social system, demand forecasting, service design, Li-battery life | ||
| SHIBASAKI Ryuichi | Socioeconomic System |
|
| international logistics, maritime shipping, intermodal transport, network modeling, data mining and analysis | ||
| TORIUMI Fujio | Socioeconomic System |
|
| computational social sciences, artificial intelligence, data mining, agent-based simulation, social media, social data analysis, complex networks | ||
| Name | Research priority area | Position | keyword |
|---|---|---|---|
| KITAZAWA Daisuke | Design of Advanced Knowledge |
|
Marine hydrodynamics, Marine food production, Marine renewable energy, Hydrodynamic and ecosystem coupled model, Sustainable development |
| NAKAO Akihiro | Design of Advanced Knowledge |
|
Next Generation Cyber Infrastructure, Beyond5G, 5G・Local5G, Super Intelligent Networks, Regional Revitalization |
| HAYASHI Teruaki | Design of Advanced Knowledge |
|
Data design, Data ecosystem, Knowledge structuring, Cross-disciplinary data exchange and collaboration, Market of data, Creative communication |
| YAMADA Tomonori | Design of Advanced Knowledge |
|
High Performance Computing, Computational Mechanics, Machine Learning, Multiphysics Simulation |
| OHSAWA Yukio | Design of Advanced Knowledge |
|
chance discovery, innovators marketplace on data jackets, visualization and valuation of data, design of data and its market, analysis of actions and communications |
| WATANABE Masataka | Design of Advanced Knowledge |
|
consciousness, machine consciousness, spiking neural networks, brain-machine-interface, mind-uploading |
| Name | Research priority area | Position |
|---|---|---|
| keyword_en | ||
| NAKAO Akihiro | Design of Advanced Knowledge |
|
| Next Generation Cyber Infrastructure, Beyond5G, 5G・Local5G, Super Intelligent Networks, Regional Revitalization | ||
| YAMADA Tomonori | Design of Advanced Knowledge |
|
| High Performance Computing, Computational Mechanics, Machine Learning, Multiphysics Simulation | ||
| OHSAWA Yukio | Design of Advanced Knowledge |
|
| chance discovery, innovators marketplace on data jackets, visualization and valuation of data, design of data and its market, analysis of actions and communications | ||
| HAYASHI Teruaki | Design of Advanced Knowledge |
|
| Data design, Data ecosystem, Knowledge structuring, Cross-disciplinary data exchange and collaboration, Market of data, Creative communication | ||
| WATANABE Masataka | Design of Advanced Knowledge |
|
| consciousness, machine consciousness, spiking neural networks, brain-machine-interface, mind-uploading | ||
| KITAZAWA Daisuke | Design of Advanced Knowledge |
|
| Marine hydrodynamics, Marine food production, Marine renewable energy, Hydrodynamic and ecosystem coupled model, Sustainable development | ||
| Name | Research priority area | Position | keyword |
|---|---|---|---|
| AOYAMA Kazuhiro | Socioeconomic System |
|
System engineering, Design / production system, Knowledge management, Decision making, Project management |
| IZUMI Kiyoshi | Socioeconomic System |
|
Agent-based simulation; Data mining; Artificial market; Text mining; Economic simulation |
| OHSAWA Yukio | Design of Advanced Knowledge |
|
chance discovery, innovators marketplace on data jackets, visualization and valuation of data, design of data and its market, analysis of actions and communications |
| OKABE Yoji | Networking for Artifact |
|
Advanced composite materials, Structural health monitoring, Non-destructive inspection, Ultrasonic guided waves, Optical fiber sensors |
| KATO Yasuhiro | Global Circulation System |
|
mineral deposits, rare earths, precious metals, global environment, CO2 disposal |
| KAWASAKI Tomoya | Socioeconomic System |
|
Supply Chain Management (SCM), Value Chain Management (VCM), Logistics Systems Optimization, Graph Analysis, Big Data Analysis |
| KAWABATA Tomoya | Networking for Artifact |
|
Hydrogen society, Steel material, Fracture mechanics, Natural gas, Pipeline, Storage tank, Earthquake |
| KANNO Taro | Socioeconomic System |
|
Team Cognition, Human Factors and Ergonomics, Service Systems Design, Human-Centered Resiliience Engineering. |
| KITAZAWA Daisuke | Design of Advanced Knowledge |
|
Marine hydrodynamics, Marine food production, Marine renewable energy, Hydrodynamic and ecosystem coupled model, Sustainable development |
| KOSHIZUKA Seiichi | Networking for Artifact |
|
Computer simulation, Physics-based CG, Fluid dynamics, Solid dynamics, Venture |
| KOBAYASHI Hajime | Global Circulation System |
|
Energy conversion, low carbon, environmental harmony, microbial engineering, symbiosis |
| GODA Takashi | Global Circulation System |
|
Uncertainty quantification, Decision making, Numerical analysis, Computational algorithms, Quasi-Monte Carlo methods |
| SHIBASAKI Ryuichi | Socioeconomic System |
|
international logistics, maritime shipping, intermodal transport, network modeling, data mining and analysis |
| SHIBATA Kazuya | Networking for Artifact |
|
Fluid Simulation, Naval Architecture and Ocean Engineering, Disaster prevention and mitigation, explanation of phenomena, optimization |
| SHIBANUMA Kazuki | Networking for Artifact |
|
Fracture mechanics, Structural integrity |
| SHIMADA Takashi | Socioeconomic System |
|
Statistical Physics Approach to Eco/Econo/Socio-Systems |
| SUZUKI Katsuyuki | Networking for Artifact |
|
Computational mechanics, Optimal design, Structural mechanics, Ship structure |
| TAKAHASHI Jun | Networking for Artifact |
|
Carbon fiber reinforced thermoplastics, future transportation and logistics systems, innovative simulation, superfunctional materials |
| TAKAYA Yutaro | Global Circulation System |
|
Waste Management and Recycling,Wastewater Treatment,Deep-sea Mineral Resources, CCS/CCU |
| TANAKA Kenji | Socioeconomic System |
|
social system, demand forecasting, service design, Li-battery life |
| TSUJI Takeshi | Global Circulation System |
|
Geophysical exploration, Space exploration, CCS, Geothermics, Earthquake, Volcano |
| TOKORO Chiharu | Global Circulation System |
|
Resources Recycling, Environmental Remediation, Separation, Simulation, Mineral Processing, |
| TORIUMI Fujio | Socioeconomic System |
|
computational social sciences, artificial intelligence, data mining, agent-based simulation, social media, social data analysis, complex networks |
| DODBIBA Gjergj | Global Circulation System |
|
Physical and/or chemical processing of materials, Solid waste management, Resource recovery, Wastewater treatment, Environmental impact assessment |
| NAKAO Akihiro | Design of Advanced Knowledge |
|
Next Generation Cyber Infrastructure, Beyond5G, 5G・Local5G, Super Intelligent Networks, Regional Revitalization |
| NAKAMURA Kentaro | Global Circulation System |
|
Submarine mineral resources, rare metals, resource exploration, earth dynamics, earth-life evolution |
| HASHIBA Kimihiro | Global Circulation System |
|
Resource development, Mining system, Time-dependence, Long-term behavior, Mechanical model |
| HAYASHI Teruaki | Design of Advanced Knowledge |
|
Data design, Data ecosystem, Knowledge structuring, Cross-disciplinary data exchange and collaboration, Market of data, Creative communication |
| Hara Yusuke | Socioeconomic System |
|
Data Science for Urban and Transportation, Mechanism Design for Mobility Services, Travel Behavior Analysis, Co-evolution Model of Cities and Transportation |
| FUKUI Katsunori | Global Circulation System |
|
Mining System, Geosystem, Seafloor Hydrothermal Deposits, Safe and Reliable Society |
| FUJII Hideki | Socioeconomic System |
|
Social Simulation, Complex System, Human Modelling, High Performance Computing, Design Support |
| HOUTANI Hidetaka | Networking for Artifact |
|
Ocean Waves, Ocean Engineering, Seakeeping Performance of Ships, Tank Experiment, Hydroelasticity |
| MIYAMOTO Hideaki | Global Circulation System |
|
Planetary explorations, asteroids, Mars, Moon, Space resources |
| MURAKAMI Shinsuke | Socioeconomic System |
|
Industrial Ecology, Mineral Economics, Material Flow/Stock Analysis, Social System Evaluation, Sustainability Assessment |
| MURAYAMA Hideaki | Networking for Artifact |
|
Digital twin, Smart systems, Advanced composite materials, Optical sensor network, Advanced maritime system, ASV/USV |
| YASUKAWA Kazutaka | Global Circulation System |
|
Seafloor mineral resources, geochemical cycles, climate change, chemical analyses, multivariate analyses, simulations |
| YAMADA Tomonori | Design of Advanced Knowledge |
|
High Performance Computing, Computational Mechanics, Machine Learning, Multiphysics Simulation |
| YONEKURA Kazuo | Networking for Artifact |
|
Optimization, Machine Learning, Aerospace system |
| WATANABE Masataka | Design of Advanced Knowledge |
|
consciousness, machine consciousness, spiking neural networks, brain-machine-interface, mind-uploading |
| WAN Yi | Networking for Artifact |
|
Material engineering, Experimental evaluation, Modeling analysis, Carbon fiber reinforced composites |
| Name | Research priority area | Position |
|---|---|---|
| keyword_en | ||
| AOYAMA Kazuhiro | Socioeconomic System |
|
| System engineering, Design / production system, Knowledge management, Decision making, Project management | ||
| IZUMI Kiyoshi | Socioeconomic System |
|
| Agent-based simulation; Data mining; Artificial market; Text mining; Economic simulation | ||
| OHSAWA Yukio | Design of Advanced Knowledge |
|
| chance discovery, innovators marketplace on data jackets, visualization and valuation of data, design of data and its market, analysis of actions and communications | ||
| OKABE Yoji | Networking for Artifact |
|
| Advanced composite materials, Structural health monitoring, Non-destructive inspection, Ultrasonic guided waves, Optical fiber sensors | ||
| KATO Yasuhiro | Global Circulation System |
|
| mineral deposits, rare earths, precious metals, global environment, CO2 disposal | ||
| KAWASAKI Tomoya | Socioeconomic System |
|
| Supply Chain Management (SCM), Value Chain Management (VCM), Logistics Systems Optimization, Graph Analysis, Big Data Analysis | ||
| KAWABATA Tomoya | Networking for Artifact |
|
| Hydrogen society, Steel material, Fracture mechanics, Natural gas, Pipeline, Storage tank, Earthquake | ||
| KANNO Taro | Socioeconomic System |
|
| Team Cognition, Human Factors and Ergonomics, Service Systems Design, Human-Centered Resiliience Engineering. | ||
| KITAZAWA Daisuke | Design of Advanced Knowledge |
|
| Marine hydrodynamics, Marine food production, Marine renewable energy, Hydrodynamic and ecosystem coupled model, Sustainable development | ||
| KOSHIZUKA Seiichi | Networking for Artifact |
|
| Computer simulation, Physics-based CG, Fluid dynamics, Solid dynamics, Venture | ||
| KOBAYASHI Hajime | Global Circulation System |
|
| Energy conversion, low carbon, environmental harmony, microbial engineering, symbiosis | ||
| GODA Takashi | Global Circulation System |
|
| Uncertainty quantification, Decision making, Numerical analysis, Computational algorithms, Quasi-Monte Carlo methods | ||
| SHIBASAKI Ryuichi | Socioeconomic System |
|
| international logistics, maritime shipping, intermodal transport, network modeling, data mining and analysis | ||
| SHIBATA Kazuya | Networking for Artifact |
|
| Fluid Simulation, Naval Architecture and Ocean Engineering, Disaster prevention and mitigation, explanation of phenomena, optimization | ||
| SHIBANUMA Kazuki | Networking for Artifact |
|
| Fracture mechanics, Structural integrity | ||
| SHIMADA Takashi | Socioeconomic System |
|
| Statistical Physics Approach to Eco/Econo/Socio-Systems | ||
| SUZUKI Katsuyuki | Networking for Artifact |
|
| Computational mechanics, Optimal design, Structural mechanics, Ship structure | ||
| TAKAHASHI Jun | Networking for Artifact |
|
| Carbon fiber reinforced thermoplastics, future transportation and logistics systems, innovative simulation, superfunctional materials | ||
| TAKAYA Yutaro | Global Circulation System |
|
| Waste Management and Recycling,Wastewater Treatment,Deep-sea Mineral Resources, CCS/CCU | ||
| TANAKA Kenji | Socioeconomic System |
|
| social system, demand forecasting, service design, Li-battery life | ||
| TSUJI Takeshi | Global Circulation System |
|
| Geophysical exploration, Space exploration, CCS, Geothermics, Earthquake, Volcano | ||
| TOKORO Chiharu | Global Circulation System |
|
| Resources Recycling, Environmental Remediation, Separation, Simulation, Mineral Processing, | ||
| TORIUMI Fujio | Socioeconomic System |
|
| computational social sciences, artificial intelligence, data mining, agent-based simulation, social media, social data analysis, complex networks | ||
| DODBIBA Gjergj | Global Circulation System |
|
| Physical and/or chemical processing of materials, Solid waste management, Resource recovery, Wastewater treatment, Environmental impact assessment | ||
| NAKAO Akihiro | Design of Advanced Knowledge |
|
| Next Generation Cyber Infrastructure, Beyond5G, 5G・Local5G, Super Intelligent Networks, Regional Revitalization | ||
| NAKAMURA Kentaro | Global Circulation System |
|
| Submarine mineral resources, rare metals, resource exploration, earth dynamics, earth-life evolution | ||
| HASHIBA Kimihiro | Global Circulation System |
|
| Resource development, Mining system, Time-dependence, Long-term behavior, Mechanical model | ||
| HAYASHI Teruaki | Design of Advanced Knowledge |
|
| Data design, Data ecosystem, Knowledge structuring, Cross-disciplinary data exchange and collaboration, Market of data, Creative communication | ||
| Hara Yusuke | Socioeconomic System |
|
| Data Science for Urban and Transportation, Mechanism Design for Mobility Services, Travel Behavior Analysis, Co-evolution Model of Cities and Transportation | ||
| FUKUI Katsunori | Global Circulation System |
|
| Mining System, Geosystem, Seafloor Hydrothermal Deposits, Safe and Reliable Society | ||
| FUJII Hideki | Socioeconomic System |
|
| Social Simulation, Complex System, Human Modelling, High Performance Computing, Design Support | ||
| HOUTANI Hidetaka | Networking for Artifact |
|
| Ocean Waves, Ocean Engineering, Seakeeping Performance of Ships, Tank Experiment, Hydroelasticity | ||
| MIYAMOTO Hideaki | Global Circulation System |
|
| Planetary explorations, asteroids, Mars, Moon, Space resources | ||
| MURAKAMI Shinsuke | Socioeconomic System |
|
| Industrial Ecology, Mineral Economics, Material Flow/Stock Analysis, Social System Evaluation, Sustainability Assessment | ||
| MURAYAMA Hideaki | Networking for Artifact |
|
| Digital twin, Smart systems, Advanced composite materials, Optical sensor network, Advanced maritime system, ASV/USV | ||
| YASUKAWA Kazutaka | Global Circulation System |
|
| Seafloor mineral resources, geochemical cycles, climate change, chemical analyses, multivariate analyses, simulations | ||
| YAMADA Tomonori | Design of Advanced Knowledge |
|
| High Performance Computing, Computational Mechanics, Machine Learning, Multiphysics Simulation | ||
| YONEKURA Kazuo | Networking for Artifact |
|
| Optimization, Machine Learning, Aerospace system | ||
| WATANABE Masataka | Design of Advanced Knowledge |
|
| consciousness, machine consciousness, spiking neural networks, brain-machine-interface, mind-uploading | ||
| WAN Yi | Networking for Artifact |
|
| Material engineering, Experimental evaluation, Modeling analysis, Carbon fiber reinforced composites | ||