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Faculty of Engineering, Department of Applied Chemistry
- Professor
- Akihiro ORITA
- Research Field
Organic Chemistry, Organometallic Chemistry, Organic Materials
- Keyword(s)
Organic Synthesis, Acetylenes, Fluorescence, Solar Cells, Sulfones, Organostannanes
- Research theme
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- Syntheses of novel expanded π-systems
- Syntheses of organic fluorescent and semi-conducting materials
- Syntheses of organic dyes for solar cells
- Syntheses of environmentally benign organotin catalysts and organic photocatalysts and their applications to organic syntheses
Outline of research activities
1. Organic light-emitting materials for OLEDs or dyes for OPVs are developed.

2. Novel antiaromatic compounds such as Sondheimer-Wong diynes and diarenopentalenes are developed as new types of organic materials.
3. Organic syntheses using organotin cluster as catalysts are developed.
- Desired cooperation
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- Organic synthesis
- Organic materials
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Faculty of Engineering, Department of Applied Chemistry
- Professor
- Hiroyuki HIRANO
- Research Field
Chemical Engineering, Transport Phenomena, Numerical Calculation
- Keyword(s)
Fluid flow and Heat transfer, Microreactor, Simulation
- Research theme
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- Alternating flow in micro-channel
- Natural convection by temperature and/or concentration gradient
- Interfacial disturbance by Marangoni effect
- Solar energy storage by salinity-gradient solar pond
Outline of research activities
Numerical and experimental studies on transport phenomena, e.g. chemical reaction in beaker, indoor environment with air conditioner, natural environment, fluid flow and heat transfer in industrial equipment
■ patent number: 4931065
title of the invention: collision micro mixer
objective: increasing the chemical reaction efficiency by the collision of water and organic phases in the micro-channel
■ patent number 5504526
title of the invention: formation of slug flow with micro-reactor
objective: increasing the chemical reaction efficiency with the vortices generated by continuously changing the shapes of water and organic phases inside the micro-channel with zigzag wall
- Desired cooperation
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- Development of high-efficiency micro-reacter
- Development of solar energy storage system
- Solution of the problem on transport phenomena
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Faculty of Engineering, Department of Applied Chemistry
- Lecturer
- Ryosuke MAKI
- Research Field
Inorganic chemistry, Ceramic materials
- Keyword(s)
High-temperature structural materials, Iron oxides, Synroc
- Research theme
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- Development of a new synthesis method forε-Fe2O3
- Investigation for new refractory materials
- Investigation of synroc solidification technique
Outline of research activities
Recently, ε-Fe2O3 has attracted interest because of its magnetic potentiality, but there are some difficulties to straightforwardly obtain the pure/single ε-Fe2O3 phase. We have found that ε-Fe2O3 crystallizes epitaxially on crystals of mullite in our study on a Japanese traditional stoneware called “Bizen” . Since the particle morphology of ε-Fe2O3 and the relative ε-Fe2O3-to-mullite crystallographic orientation strongly depend on the oxygen partial pressure during firing and the temperature range, the formation conditions is very complicated. We believe that elucidating the formation mechanism of ε-Fe2O3 will contribute to the development of novel magnetic materials.
We are also working on the development of Al-B-C high-temperature structural materials. Ternary metal borocarbides, Al3BC3, have been considered as promising candidates for lightweight structural components. We have succeeded in synthesizing hexagonal plate-like Al3BC3 particles by a simple synthesis method, and the sintered sample exhibited anisotropic mechanical properties and higher bending strength due to particle orientation. Currently, we are proceeding with various physical property measurements.- Desired cooperation
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- Development of a new synthesis method forε-Fe2O3
- Investigation for new refractory materials
- Investigation of synroc solidification technique
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Faculty of Information Science and Engineering, Department of Information Science and Engineering
- Professor
- Tetsuya AKAGI
- Research Field
Mechatronics, Pneumatic control device, Mechanical control
- Keyword(s)
Soft actuator, Wearable control system, Embedded controller
- Research theme
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- Development of Low-cost Flexible Pneumatic Actuator and Its Application for Home-based Rehabilitation Devices
- Development of Low-cost Wearable Fluid Control Valve and Its Application
- Development of Various Flexible Robots Using Flexible Pneumatic Actuators
Outline of research activities
By taking advantage of pneumatic actuators that have features of higher force / mass ratio, lightweight and flexibility based on compressibility, we have developed low-cost wearable actuators and low-cost home-based rehabilitation devices that can be disposable after using it. Specifically, we developed a flexible pneumatic cylinder that can be used even if the cylinder bends. A spherical actuator that consists of two flexible pneumatic cylinders have been also developed as an application for portable rehabilitation device. We have also developed a low-cost wearable servo valve using buckled tubes, an artificial muscle with built-in displacement sensor and a pipe inspection robot using extension type flexible pneumatic actuators. In addition, aiming at globalization for students, all graduate students in our laboratory have presentation in international conferences.

- Desired cooperation
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- Development of wearable pneumatic controlled devices using embedded controllers and its application
- Implementation of low-cost, small-sized and light-weight pneumatic control valves
- Development and application for flexible actuator and flexible sensors
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Faculty of Life Science, Department of Bioscience
- Associate professor
- Takahiro HAMADA
- Research Field
Plant Physiology, Cell Biology
- Keyword(s)
Cytoskeleton, microtubule, RNA granule
- Research theme
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- Mechanism of microtubule regulation in plants
- Mechanism of environmental responses in plants
- Mechanism of small RNA in plants
Outline of research activities
Through advanced imaging techniques, biochemistry, and gene expression analyses, I work to understand the mechanisms of how plants adapt to changes in the environment.
(1) Mechanisms of Plant Motion and Growth Many people believe that plants do not move. However, the reality is that plants respond by sensing changes in light intensity, color, and temperature and moving. I focus on the behavior of microtubules in plant cells, which may be playing a key role in regulating plant motion and growth. This project tries to answer this classic, unanswered question in plant physiology, one that had been a focus of Charles Robert Darwin (1809-1882), the Father of Evolution.
(2) Mechanisms of Plant Environmental Responses To adapt to environmental change, plants must survive and reproduce through seed production because they cannot physically leave the place where their seeds germinate. In particular, my focus is on how plants adapt to higher temperatures. As we face the challenge of climate change and global warming, understanding mechanisms of biological adaptation to higher temperatures is critical.
(3) Functions of Small RNAs on Plant Embryogenesis and Development Small RNAs play important roles to regulate plant embryogenesis and developments. I discovered a novel gene expression mechanism involving small RNAs. This project tries to further develop this new field in plant physiology.
- Desired cooperation
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- Advanced Agriculture
- Studies for plant monitoring and cultivation technologies
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Faculty of Education, Department of Primary Education
- Associate professor
- Shogo HARADA
- Research Field
Home Economics Education
- Keyword(s)
Lesson development, Home life
- Research theme
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- How to design home economics classes
- How “Home economics” should be as school subjects
- How “Home economics” has changed
Outline of research activities
“Home economics” in school education aims to improve the skill of homemaking through the velationships between oneself and their family, their consumption habit, their eating habit, their dwelling life, their clothing life and so on.
“Home economics” is concerned with not only our claily life but some subjects life social studies and science. Moreover it’s very important to reflect on your home life so far.
I investigate how “Home economics” should be and I design exciting, satisfactory and practical classes.

- Desired cooperation
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- Designing home economics classes
- Development of teaching materials
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Faculty of Veterinary Medicine, Department of Veterinary Medicine
- Associate professor
- Keiichi HISAEDA
- Research Field
Livestock Hygiene, Clinical Veterinary Medicine for Production Animals
- Keyword(s)
Mastitis, Milk squeezing hygiene, Livestock feeding management, Infectious diseases
- Research theme
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- Research on pathogenesis and control of mastitis in dairy cows
- Research on productivity improvement in livestock production
- Research on the Role of Livestock Production in Climate Change and its Contribution to Society
- Research on the improvement of medical treatment techniques in clinical practice for industrial animals. etc.
Outline of research activities
Mastitis is the most devastating economic burden in dairy farms. We have studied the epidemiology of acute mastitis caused by coliforms, the relationship between clinical symptoms and cytokines and acute phase proteins, and the relationship between symptoms and prognosis, and found a link. In addition, in the treatment of mastitis, it was found that the application of a lotion with antibacterial activity (Ceramella) to the inflamed udder, in addition to conventional antibiotic treatment, decreases breast induration and somatic cell count. Studies have shown that the shorter the milk is cultured, the more causative organisms are detected in bacteriological tests of milk. As for prevention of mastitis, administration of a leptospirosis vaccine has been shown to reduce clinical forms of mastitis. It was also found that the severity of symptoms of acute mastitis caused by Escherichia coli was related to the level of ionized calcium in the blood at the time of initial examination. We are studying prevention, treatment, and prognosis of mastitis in dairy cows. It was found that there is a relationship between blood physiological changes in dairy cows in response to climatic changes and stress. Based on the results of this research, we would like to further our research on improving milk productivity.
- Desired cooperation
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- Research and drug development for prevention and treatment of mastitis
- Research on Biocides and Improvement of Livestock Productivity
- Research on Climate Change and Animal Welfare in Industrial Animals
- Research on infectious disease control in production animals. etc.
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Organization for the Advancement of Higher Education, Natural Sciences Education Center
- Associate professor
- Yuji INAGAKI
- Research Field
magnetism, hydrogen induced phenomena
- Keyword(s)
quantum phase transition, quantum spin, hydrogen absorption, superconductivity
- Research theme
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- Novel quantum phenomena in the spin system
- Experimental studies on nanosized magnets
- Hydrogen induced phenomena
- Development of evaluation method for hydrogen absorption properties
Outline of research activities
I am interested in a quantum spin system where nontrivial magnetic ground states appear. To investigate those experimentally, vaious methods are utilized from static and dyanmic points of view.
By reducing the system saize some materials is weakening , and another is strengthening in magnetic properties. To learn more about the origins of those, I am conducting magnetic measurements with high sensitivity.
Experimetnal studies on hydrogen-induced phenomena are also one of my essential research activities. Also, I am carrying out the development of a new method to evaluate hydrogen absorption properties aiming at high-performance hydrogen strage.- Desired cooperation
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- Researches on magnetic properties of magnetic materials under extreme condition
- Hydrogen induced phenomena and development of evaluation method for hydrogen absorption properties
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Organization for Research and Community Collaboration, Institute of Frontier Science and Technology
- Professor
- Haruo AKASHI
- Research Field
Coordination Chemistry, Inorganic Synthetic Chemistry
- Keyword(s)
Metal complexes,Functional materials, Photenergy conversion, Oxidation reaction
- Research theme
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- Development of novel oxidation reaction catalysts using metal complexes.
- Development of photosensitizers using metal complexes.
- Synthesis and applications of sulfur-bridged metal complexes.
Outline of research activities
We are conducting research using coordination chemistry techniques to create novel substances with unprecedented functionalities based on metal complexes. A metal complex is a compound in which a metal ion (such as copper or iron) forms strong bonds with surrounding molecules, known as ligands.
In metal complexes, the metal ion and ligands bind together in specific arrangements or shapes, forming a stable structure as a unified compound. Through these interactions, metal complexes can exhibit new functional properties that were not observed in the individual metal ions.
Recently, we have been synthesizing porphyrin derivatives containing metal ions at their centers and using these complexes as catalysts to explore oxidation reactions using only oxygen molecules from the air and light.- Desired cooperation
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- Development of novel oxidation reaction systems using green oxidation reactions.
- Development and application of photosensitizers using metal complexes.
- Development and application of functional materials using metal complexes.






