Faculty of Engineering

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Faculty of Engineering

The Faculty of Engineering includes the Center for Liberal Arts and Sciences and five departments: Mechanical Systems Engineering, Electrical and Electronic Engineering, Environmental and Civil Engineering, Biotechnology, and Pharmaceutical Engineering.
Faculty members conduct research across a wide variety of fields, while ensuring close cooperation among the five departments, and with outside organizations.

Center for Liberal Arts and Sciences

The Center for Liberal Arts and Sciences is responsible for liberal arts education in the Faculty of Engineering, the Faculty of Information Engineering, and the Faculty of Nursing.

  • Faculty of Engineering
  • Faculty of Information Engineering

The Center for Liberal Arts and Sciences aims to cultivate a broad perspective, deep insight, and a rich sense of humanity in students, through a diverse liberal arts education that spans the Humanities, Social Sciences, and Natural Sciences, while at the same time developing the basic skills students need to become flexible and responsible members of society.

Liberal Arts Subjects

 

  • Faculty of Nursing

Courses in The Center for Liberal Arts and Sciences cultivate students to develop broad perspectives and deep insights into humans, society, culture, and nature, as well as the ability to correctly understand reality. The Center also fosters the skills related to language, communication, and information usage that are necessary for working adults.

Liberal Arts Subjects

 

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Department of Mechanical Systems Engineering

This department aims to promote Mechanical Engineers who will contribute to the realization of a sustainable society, equipped with solid basic academic skills, a broad perspective, and rich communication skills related to Mechanical Engineering. To achieve this goal, we have organized a systematic curriculum along with liberal arts education, career development education, data science education, and environmental literacy education, which are implemented University-wide. Also, we focus on promoting a rich sense of humanity and improving students' ability to explore issues through classes in which students work on issues in groups and graduation research under the guidance of faculty members.

 

Thermal and Fluid Engineering

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Measurements of thermodynamic properties of next-generation refrigerants

We study heat transfer phenomena, flow phenomena, and thermophysical properties that are deeply involved in increasing the efficiency and sophistication of energy conversion and utilization technologies that support "Environmentally Conscious Manufacturing”.

Solid Mechanics

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Tension test machine

We study the strength and deformation of solid materials, which are necessary to improve the reliability and quality of electronic devices, automobiles, industrial machinery, etc., through both experiments and numerical simulations, and research the technologies necessary for manufacturing.

Design and Production Engineering

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Development of inventory management system

We study and develop support systems for product design, supply chain management, talent management, and manufacturing efficiency to promote social sustainability. We also evaluate environmental impact reduction through the use of recycled automobile parts and contributions from recycling companies.

Materials Design and Process

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Lamellar structure of heat-resistant Ti alloys

We research mechanical materials (metallic materials, composite materials, and polymer materials), from understanding their basic properties to their applications, high performance, manufacturing processes, and productization.

Department of Electrical and Electronic Engineering

The Department of Electrical and Electronic Engineering offers two courses, the “Electronic Devices Engineering” and “Electronic and Communication Systems Engineering.” These equip students with the basic and advanced knowledge and skills in the field of electrical and electronic engineering, supported by a systematic curriculum and state-of-the-art research projects.

 

Electronic Devices Engineering

For convenient, comfortable, and energy-efficient lives, the development of high-performance semiconductor integrated circuits, functional electronic devices, sensor devices, and power electronics devices is essential. Together with this advancement, the design of electronic circuits incorporating these devices and system development are necessary. This division develops materials and technologies for fabricating these devices and conducts research on electronic circuits and systems.

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    Student-designed IC
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    Atomically thin-film electronic device

 

  • Ultra-low loss and energy-saving SiC power devices for power electronic applications
  • Developing a novel gate oxide for SiC MOSFETs to enable the fabrication of ultra-efficient power semiconductor devices
  • High-performance IC systems, including mixed signal circuits such as ADCs, DACs, amplifiers, and high-speed interfaces
  • Integrated circuits for reliability evaluation and quantum computing
  • Micropatterning of ferroelectric thin films by electron-beam-induced reaction process
  • Novel electronic properties in nano-materials and devices
  • Quantum transport in atomically thin electronic devices

 

Electronic and Communication Systems Engineering

To realize safe, reliable, and comfortable lives, we need technologies that measure information about the objects and events around us, along with information and communication technologies that connect this information to humans. In order to support these, broadband communication technologies and optical/electromagnetic wave measurement technologies are required. This division is advancing research and development on the integration of these information and communication technologies, measurement technologies, and system control technologies.

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    Characterization of multispectral sensor
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    The observation rocket equipped with the developed electric field detector © JAXA

 

  • Multispectral image sensors utilizing nano-photonic elements, which cover visible to near infrared wavelengths
  • Non-invasive laser-spectroscopic sensing of contents in products and materials
  • High-performance radio receiver for spacecraft and advanced transceiver system for sensor networks
  • Secure, reliable, and high-quality communication networks
  • Computer simulation about electromagnetic systems and analysis of the electromagnetic environment in space
  • Decentralized control for distributed energy resources
  • Data-driven modelling and control of large-scale complex plants

Department of Environmental and Civil Engineering

Our department develops engineers who have expertise of both environmental engineering to solve environmental problems and civil engineering to construct safe and sustainable society. The students systematically learn environmental problems caused by interaction between natural environment such as soil, water, air and life, and social environment where human lives, from the local level to the global level. Our department is dedicated for education and research in order to solve the environmental problems from various perspectives, thereby contributing to sustainable development.

 

Environmental Engineering

Our section researches measures and technologies for conservation of water, air, soil, and ecosystem, pollution remediation, energy conversion, and so on, to protect our health and pleasant environment and to develop sustainable society where materials circulate.

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    Separation of disaster waste
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    Analysis of developed material and device
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    Microcosm experiment

 

Civil Engineering

We research measures and technologies of planning, constructing and maintaining infrastructure that supports our life, such as river protection, soil improvement, road, and energy facilities, toward creating a social environment that is harmonized with natural ecosystem and resilient against natural disaster.

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    Measurement of irrigation canal
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    Seawall blocks using fly ash
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    Energy system scenario

Department of Biotechnology

The Department of Biotechnology offers seven courses. The faculty is responsible for teaching advanced subjects that cover the themes mentioned below, under each course of study.

1 Enzyme Chemistry

Applied microbiology, biochemistry, molecular biology, gene expression, enzymology, organic chemistry, X-ray crystallography, protein engineering based on 3D structure, high-throughput screening of enzymes, enzymatic synthesis of chiral intermediates, and biotransformation of synthetic chemicals.

2 Biocatalysis and Bioprocessing

Biocatalysis, enzyme engineering, molecular genetics, protein engineering, biological chemistry, and applied microbiology.

3 Microbial Engineering

Exploration of new bioactive compounds from underexploited marine and terrestrial microorganisms, structure elucidation, evaluation of bioactivity, and biosynthesis.

4 Bioorganic Chemistry

Total synthesis of bioactive natural products, computational chemistry, drug design, and chemistry of woody biomass and lignin.

5 Food Science and Technology

Molecular biochemistry of functional foods, metabolism of biofactors including physiological and dietary compounds, enzyme chemistry of xenobiotic-metabolizing enzymes, and molecular biology in animals.

6 Plant and Cell Engineering

Biochemistry, enzymology, bioorganic chemistry, plant cell and tissue culture, genetic engineering, molecular breeding, natural product biosynthesis, secondary metabolism and its regulation, and biomass utilization.

7 Applied Bioinformatics

Microbioinformatics, genome engineering, genome evolution, cell engineering, cell evolution, and systems biology.

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    Protein purification using a fast protein liquid chromatography (FPLC) system.
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    Cultivating anaerobic microorganisms using an anaerobic chamber.
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    In an organic synthesis experiment, a reagent is added to the reaction system.
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    Culturing plant cells in various media for useful compound production.
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    Elucidating microbial evolution and environmental adaptation through computational and experimental approaches.

Department of Pharmaceutical Engineering

Pharmaceutical engineering is a developing field that focuses on the discovery and manufacture of drugs and medicines. It is intended to complement other scientific fields that are engaged in drug development, and assist in solving contemporary problems related to medicine and healthcare by producing quality products with the perspective of engineering. The aim of the department is to nurture highly qualified engineers who are well-grounded in science and technology to work in the pharmaceutical industry with creativity and capability. We train individuals who can create and develop new pharmaceutical technologies and support the future industry based on the traditions of Toyama's medicine.
Department of Pharmaceutical Engineering

1 Pharmaceutical Chemistry and Formulation

Education and research in this course are geared toward small drug development. It involves studying how small drugs are chemically synthesized in simple and effective processes, how drug formulations are designed to maximize their efficacy in the body, and how final products are inspected and packaged with cutting-edge technologies.
Keywords: Organic chemistry, process chemistry, fine chemistry, analytical chemistry, advanced lithography, functional materials, chemical engineering, powder engineering, drug delivery system.

2 Biopharmaceutical Engineering

This course aims to foster qualified persons with the knowledge and skills that are required to apply engineering principles to the pharmaceutical industry by using biological systems including materials from molecules to cells. These systems are based on recent advancements in scientific fields described by the following key words.
Keywords: Biochemistry, genetic engineering, drug metabolism, cell engineering, protein chemistry, protein engineering, bioinformatics, biophysics, protein design, structure-based drug design, antibody engineering, drug discovery, pharmacology, regenerative medicine.

Schematic illustration of drug (red)-loading 
nanoparticles (drug carriers)