"M" Keywords - 149 Result(s)
M
[M2M]
Message Transmission without Cellular Coverage, “Relay-by-Smartphone"FeaturesOur technology provides the necessary method for sending messages even when the physical infrastructure is not available. The technology utilizes common smartphone WiFi functionality to send message in a multi-hop fashion. Thus it is possible to send message to people further away. Our technology has been designed to be based on Delay-Tolerant Networks (DTN), but the technical key idea is the combination of DTN and Mobile Adhoc Network (MANET), which can improve the message delivery in an area with high population density or where mobility are fixed such as evacuation center. Targeted Application(s)/IndustryThis technology can be used to distribute information during emergency situation such as after disaster. In addition, it is possible to provide additional services such as advertisement within shopping areas, distribution of coupons, exchange of information within small group during public events or uses as transceiver during group hiking. There is also possibility of using this technology to provide communications service in developing nations. |
[Machine Learning]
Optimizing everything / Optimal SocietyFeaturesAiming at developing practical quantum optimization technology known as quantum annealing, we are working on exploring basic technologies that can overcome the limitations and applications in collaboration with multiple companies. The advantage of the method is that it can be used simply by formulating a cost function that draws the goal to be optimized once, but we are not limited to the original method. We extend it by considering a much easier problem, sequential optimization by learning, black box optimization, etc.. In particular, it is being applied to automated driving, logistics in factories, and evacuation guidance during disasters. Targeted Application(s)/IndustryApplications to route search problems such as automatic driving of various vehicles, evacuation route guidance at the time of disaster, process scheduling and a large number of combination problems. We can provide a solution to combinatorial optimization in each industry. (Transportation / distribution, manufacturing, materials, drug discovery, etc.) Graduate School of Information Sciences, Applied Information Sciences, Information and Applied Technology, Physical Fluctuomatics
OHZEKI Masayuki, Professor
Doctor of Science
|
[Macroclusters]
Development of Nano-Interface Chemistry for Materials Sciences Using Surface Forces MeasurementFeaturesOur research aims at developing methods, including instrumentation, for characterizing surface (or interface) at the nano-meter level. Most of our research subjects are related to the surface forces measurement, which can directly monitor the interaction between two surfaces. We study phenomena occurring at the solid-liquid interface such as adsorption and structuring of liquids. We have developed the resonance shear measurement which is a sensitive method for evaluating properties of confined liquid for nano-rheology and tribology. Twin-path surface forces apparatus we developed enabled us to study wide variety of samples such as metals, ceramics and plastics. Targeted Application(s)/IndustryThese methods are applicable for characterizing lubricants, nano-materials, paints, sealants, and cosmetics. We hope to conduct collaborative research with a willing company for a practical application of this technology in industry. Institute of Multidisciplinary Research for Advanced Materials
KURIHARA Kazue, Professor
Doctor of Engineering
|
[magma]
Forecasting eruption transition through geologic and petrologic approachesFeatures1) In addition to geophysical observations, recent advances in volcanic stratigraphy and petrology would make us possible to forecast the transition of volcanic eruptions. We have been developing near-real-time volcanology based on the erupted materials in an early eruption stage. Targeted Application(s)/IndustryDepartment of Earth Science, Graduate school of Science
NAKAMURA Michihiko, Professor
Doctor of Science
|
[Magnesium battery]
Advanced Nanotechnology for Critical metal free secondary batteryFeaturesMonoatomic layered materials of Graphene, Transition metal sulfide nanosheet, nanocrystalline active materials, nanoparticles and nanoporous materials are investigated for realizing high capacity, high power, high safety and low cost energy storage devices as a post- Lithium ion battery. Advanced chemistry of functional materials and device processes for All solid state battery, Magnesium battery, fuel cells, supercapacitor and wearable batteries are investigated. Targeted Application(s)/IndustryAcademia – Industry collaboration with manufacturing companies of functional materials, batteries, and also smart grid, renewable energy, electrical power companies are encouraged for developments of advanced energy materials and post-Lithium ion battery. Institute of Multidisciplinary Research for Advanced Materials
HONMA Itaru, Professor
Doctor of Engineering
|
[magnetic actuator]
Magnetic Applications and Magnetic MaterialsFeaturesThe aim of our research are to obtain the high accuracy sensor system for the signals from the human body or electric devices and to obtain the system for approaching action to the human body by using the nano-scale controlled magnetic materials and by the development of the devices under the functions of the magnetics. Targeted Application(s)/Industry<Medical Applications> Research Institute of Electrical Communication
ISHIYAMA Kazushi, Professor
Doctor of Engineering
|
[magnetic anisotropy]
Magnetic Applications and Magnetic MaterialsFeaturesThe aim of our research are to obtain the high accuracy sensor system for the signals from the human body or electric devices and to obtain the system for approaching action to the human body by using the nano-scale controlled magnetic materials and by the development of the devices under the functions of the magnetics. Targeted Application(s)/Industry<Medical Applications> Research Institute of Electrical Communication
ISHIYAMA Kazushi, Professor
Doctor of Engineering
|
[magnetic circuit]
Development of the Nickel-Free Dental Magnetic Attachment Using the Magnetic Shielding Material which Lost its Magnetism by Nitrogen-Solid SolutionFeaturesIn the dental magnetic attachments which retain dentures, superstructures of dental implants, and so on, the non-magnetic stainless steel containing nickel is used in order to reinforce their retentive force by a magnetic circuit. The surface layer of magnetic stainless steel which loses its magnetism by nitrogen-solid solution obtained from heating in nitrogen gas at high temperature, enable to form a magnetic circuit, which does not contain nickel at all, and to reduce its components and manufacturing processes. The method using the nitrogen-solid solution in this study is warrantable to manufacture the nickel-free dental magnetic attachment with high safety. Targeted Application(s)/IndustryThe nickel-free magnetic attachment realizes a retainer with higher safety, and can expect the application to medical and dental care for clinical uses, such as not only a denture but a dental implant, an epithese, and so on with easy desorption. Division of Dental Biomaterials, Graduate School of Dentistry
TAKADA Yukyo, Associate Professor
Doctor of Engineering
|
[Magnetic film]
Polymer-nanoparticle hybrid materialsFeaturesHybrid materials that show multi-functions of polymer and nanoparticles are expected to be used in future industries, and thus many research and development have been actively conducted. However, since the affinity of polymer and inorganic nanoparticles is very low, in most of the cases, properties of different materials are incompatible in the hybrid materials. To create the hybrid materials with incompatible multi-functions has been considered a difficult task. Targeted Application(s)/IndustryNow, variety of hybrid materials are being developed, including Advanced Institute for Materials Research
ADSCHIRI Tadafumi, Professor
Doctor of Engineering
|
[Magnetic Material]
Magnetic Applications and Magnetic MaterialsFeaturesThe aim of our research are to obtain the high accuracy sensor system for the signals from the human body or electric devices and to obtain the system for approaching action to the human body by using the nano-scale controlled magnetic materials and by the development of the devices under the functions of the magnetics. Targeted Application(s)/Industry<Medical Applications> Research Institute of Electrical Communication
ISHIYAMA Kazushi, Professor
Doctor of Engineering
|
Development of Soft Magnetic Materials and Magnet Consisting of Complete Rare-Earth Free Elements Both with Ultimately-High-Efficient Types Contributing to Energy- and Resource-Saving by Precise Controlling their NanostructuresFeaturesFeatures and Originalities Targeted Application(s)/Industry |
[magnetic materials]
Spintronics Devices and MaterialsFeaturesSpintronics is a technology utilizing electron spin which provided magnetic sensor, nonvolatile magnetic memory, and so on. Our studies are as below. Targeted Application(s)/IndustryMagnetic memory and storage. Microwave and Terahertz wave. Magnetic sensors. WPI Advanced Institute for Materials Research
MIZUKAMI Shigemi, Professor
Doctor of Engineering
|
[magnetic sensor]
Magnetic Applications and Magnetic MaterialsFeaturesThe aim of our research are to obtain the high accuracy sensor system for the signals from the human body or electric devices and to obtain the system for approaching action to the human body by using the nano-scale controlled magnetic materials and by the development of the devices under the functions of the magnetics. Targeted Application(s)/Industry<Medical Applications> Research Institute of Electrical Communication
ISHIYAMA Kazushi, Professor
Doctor of Engineering
|
[magnetic thin film]
Magnetic Applications and Magnetic MaterialsFeaturesThe aim of our research are to obtain the high accuracy sensor system for the signals from the human body or electric devices and to obtain the system for approaching action to the human body by using the nano-scale controlled magnetic materials and by the development of the devices under the functions of the magnetics. Targeted Application(s)/Industry<Medical Applications> Research Institute of Electrical Communication
ISHIYAMA Kazushi, Professor
Doctor of Engineering
|
[magnetism]
Neutron scattering study on macroscopic quantum phenomenaFeaturesIn contrast to other scattering techniques, such as x-ray and electron diffractions, neutron scattering has the following advantages: 1) light atoms, such as H and Li, can be detected; 2) electron spins can be detected; 3) low energy excitations can be investigated. Using the neutron scattering technique, we search for macroscopic quantum phenomena in many-body electron systems, such as macroscopic singlet ground states in the quantum frustrated magnets and spin-fluctuation-mediated unconventional superconductors. Targeted Application(s)/IndustryAs noted above, neutron scattering can be used for investigating magnetic structure, spin dynamics, light atom positions in crystalline materials and their dynamics. Hence, this technique is very useful when those pieces of information are to be known. Institute of Multidisciplinary Research for Advanced Materials
SATO Taku J, Professor
Doctor of Science
|
[magneto elastic materia]
Magnetic Applications and Magnetic MaterialsFeaturesThe aim of our research are to obtain the high accuracy sensor system for the signals from the human body or electric devices and to obtain the system for approaching action to the human body by using the nano-scale controlled magnetic materials and by the development of the devices under the functions of the magnetics. Targeted Application(s)/Industry<Medical Applications> Research Institute of Electrical Communication
ISHIYAMA Kazushi, Professor
Doctor of Engineering
|
[magneto-optical effect]
Spintronics Devices and MaterialsFeaturesSpintronics is a technology utilizing electron spin which provided magnetic sensor, nonvolatile magnetic memory, and so on. Our studies are as below. Targeted Application(s)/IndustryMagnetic memory and storage. Microwave and Terahertz wave. Magnetic sensors. WPI Advanced Institute for Materials Research
MIZUKAMI Shigemi, Professor
Doctor of Engineering
|
[magnetoresistive devices]
Spintronics Devices and MaterialsFeaturesSpintronics is a technology utilizing electron spin which provided magnetic sensor, nonvolatile magnetic memory, and so on. Our studies are as below. Targeted Application(s)/IndustryMagnetic memory and storage. Microwave and Terahertz wave. Magnetic sensors. WPI Advanced Institute for Materials Research
MIZUKAMI Shigemi, Professor
Doctor of Engineering
|
[magnetostriction]
Magnetic Applications and Magnetic MaterialsFeaturesThe aim of our research are to obtain the high accuracy sensor system for the signals from the human body or electric devices and to obtain the system for approaching action to the human body by using the nano-scale controlled magnetic materials and by the development of the devices under the functions of the magnetics. Targeted Application(s)/Industry<Medical Applications> Research Institute of Electrical Communication
ISHIYAMA Kazushi, Professor
Doctor of Engineering
|
[magnetostrictive]
Performance enhancement and application development of energy harvesting materials by microstructure designFeaturesTo realize IoT society, it is required the sensors, which function without battery charge. We study on energy harvesting materials using our knowledge about materials mechanics and numerical simulation such as finite element method. We recently address to develop energy harvesting devices, which can recovery the unharnessed energy around us as electrical energy. Targeted Application(s)/IndustryDepartment of Materials Processing, Graduate School of Engineering
NARITA Fumio, Professor
Doctor of Engineering
|
