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University Exhibition

Booth No. U-11

University Exhibition 11

Kansai Univ., Horii Lab.

Contact of Lab.
2-1-1 Ryozenji, Takatsuki, Osaka, 569-1095, JAPAN
TEL : +81(72)690-2476  FAX : +81(72)690-2476  E-mail : horii@kansai-u.ac.jp
[ Faculty of Informatics, Dept. of Informatics, Horii Lab. ]
Laboratory Introduction

We are working to elucidate the auditory mechanism from microwave engineering point of view. Though we all are amateurs in the field of medicine, students have a strong spirit of challenge for this research.

Title
* Study on Mechanics of Human Auditory System From Microwave Engineers' Point of View
Highlight
Considering the auditory mechanism from microwave engineers' point of view, we notice that
(1) the auditory system operates based on the even-odd mode theory,
(2) the sounds are detected by differential mechanism, and
(3) simulations should be done in accordance with the distribution constant theory.
Let's argue with us.
Booth No. U-12

University Exhibition 12

Utsunomiya Univ., Shimizu Lab.

Contact of Lab.
7-1-2 Yoto, Utsunomiya, Tochigi 321-8585, JAPAN
TEL : +81(28)689-6132  FAX : +81(28)689-6132  E-mail : tshimizu@cc.utsunomiya-u.ac.jp
[ Faculty of Engineering, Dept. of Fundamental Engineering, Shimizu Lab. ]
Laboratory Introduction

Our laboratory has been performed research and development about novel measurement techniques and passive devices to contribute to the creation of new values in wireless technology. Research topics are complex permittivity for low loss dielectric materials and surface resistance of conductor evaluation techniques based on the resonator method, ultra-low loss filter with HTS technology, microwave application of additive manufacturing technology.

Title
* Development of Evaluation Methods for Dielectric and Conductor Materials & Passive Circuits in Microwave and Millimeter Wave Bands
Highlight
In this exhibition, studies on microwave and millimeter-wave measurement methods for complex permittivity of dielectric material and surface resistance of conductor which are expected for next generation wireless devices are introduced. Furthermore, some microwave and millimeter wave passive circuits developed in our laboratory are presented.
Booth No. U-13

University Exhibition 13

Utsunomiya Univ., Kogami Lab.

Contact of Lab.
7-1-2 Yoto, Utsunomiya, Tochigi 321-8585, JAPAN
TEL : +81(28)689-6097  FAX : +81(28)689-6097  E-mail : kogami@cc.utsunomiya-u.ac.jp
[ Faculty of Engineering, Dept. of Fundamental Engineering, Kogami Lab. ]
Laboratory Introduction

There are two students in doctor's degree, five students in master's degree, and five students bachelor's with a professor to do reserch on microwave and millimeter wave passive circuit engineering in this laboratory.

Title
* Evaluation Techniques for the Microwave and Millimeter-Wave Complex Permittivity of Substrate Materials
Highlight
Recent investigations on the evaluation techniques, which are the cylindrical cavity resonator method, the balanced type circular disk resonator method, and Whispering-Gallery mode resonator method, to measure the microwave and millimeter wave characteristics of the circuit substrates will be presented.
Booth No. U-14

University Exhibition 14

Kanzawa Univ. Electromagnetic Wave Information Engineering Lab.

Contact of Lab.
Kakuma-machi, Kanazawa 920-1192, JAPAN
TEL : +81(76)234-4858  FAX : +81(76)234-4859  E-mail : yagitani@is.t.kanazawa-u.ac.jp
[ Inst. of Science and Engineering, Faculty of Electrical, Information and Communication Engineering, Electromagnetic Wave Information Engineering Lab. ]
Laboratory Introduction

Our laboratory has been studying measurement and analysis of electromagnetic waves in the geospace and on the ground, by developing novel electromagnetic sensors. Recently we are developing the Kanazawa University Microsatellite designed and built in-house by staff and students.

Title
* Radio Wave Visualization System
Highlight
Using a sheet-type sensor which absorbs radio waves, without disturbing the surrounding radio environment, 2-d electric field distribution of the absorbed radio wave is mapped and displayed in real-time. Furthermore, by wearing a head-mounted display, the two-dimensional map is displayed overlapped on the actual sensor image.
Booth No. U-15

University Exhibition 15

Aoyama Gakuin Univ., Hashimoto Lab.

Contact of Lab.
5-10-1 Fuchinobe, Chuo-ku, Sagamihara-shi, Kanagawa 252-5258, JAPAN
TEL : +81(42)759-6298  FAX : +81(42)759-6298  E-mail : rsuga@ee.aoyama.ac.jp
[ College of Science and Engineering, Dept. of Electrical Engineering and Electronics, Hashimoto Lab. ]
Laboratory Introduction

Our research focuses on the development of radio wave absorbers using the latest technology, including those for improving the radio wave environment for ETC and wireless LAN, and the measurement technology for their material constants necessary, as well as electromagnetic field analysis and antenna development.

Title
* Ultra-Thin Radio Wave Absorber
Highlight
Ultra-thin radio wave absorber.
Booth No. U-16

University Exhibition 16

Tokyo Univ. of Science, Yamamoto Lab.

Contact of Lab.
2641 Yamazaki, Noda, Chiba 278-8510, JAPAN
TEL : +81(4)7122-9531  FAX : +81(4)7123-7354  E-mail : t_yamamoto@rs.tus.ac.jp
[ Faculty of Science and Tech., Dept. of Electrical Engineering, Yamamoto Lab. ]
Laboratory Introduction

Our main research themes are medical applications of electromagnetic waves, such as transcutaneous energy and information transmission for implantable medical devices such as artificial heart, development of various electromagnetic phantoms in the hundreds of kHz and MHz bands, and investigation of the effects of electromagnetic waves on small experimental animals.

Title
* Antenna Unifying with Artificial Magnetic Conductor for Firefighting Activity Support System
* Evaluation of Magnetic Field Immunity to Experimental Animals
Highlight
We present design and fabrication of an antenna unifying with artificial magnetic conductor for a repeater of a firefighting activity support system, and evaluation of the effect of 400 kHz AC magnetic field on the behavior of experimental small animals.
Booth No. U-17

University Exhibition 17

National Inst. of Tech., (Hakodate, Asahikawa, Tomakomai, Akita, Tsuyama) College

Contact of Lab.
14-1, Tokura, Hakodate, Hokkaido 042-8501, JAPAN
TEL : +81(138)59-6424  FAX : +81(138)59-6424  E-mail : maruyama@hakodate-ct.ac.jp
[ Product System Engineering, Maruyama Lab. ]
Laboratory Introduction

We have established collaborative research groups in charge of wireless power transmission and robotics (NIT, Hakodate), optimal waveguide design (NIT, Asahikawa, NIT, Tomakomai, NIT, Akita), and CRLH application (NIT, Tsuyama), to realize the automatic snow melting system in heavy snowfall areas like Hokkaido.

Title
We introduce our research activities on investigations to achieve following three technique simultaneously using one antenna and the same frequency band ;
* Snow melting Using Microwave Heating
* Driving a Snow Removal Robot Providing Motive Power by Wireless Power Transmission
* Controlling a Snow Removal Robot by Wireless Data Communication
to prevent disasters during heavy snow removal in depopulated areas.
Highlight
We propose a circuit-type waveguide which is composed of leaky waveguides to melt snow in a wide area with a few facilities, and clarify its electromagnetic field distribution and wireless power transmission efficiency. The analysis result is also shown on the effect of microwaves' traveling direction aligning by combining left- and right-handed waveguides.
Booth No. U-18

University Exhibition 18

Kyoto Inst. of Tech., Microwave Engineering Lab.

Contact of Lab.
Matsugasaki, Sakyo-ku, Kyoto, Kyoto 606-8585, JAPAN
TEL : +81()  FAX : +81()  E-mail : simasaki@kit.ac.jp
[ Graduate School of Science and Tech., Dept. of Electronics, Microwave Engineering Lab. ]
Laboratory Introduction

Our research group is engaged in antenna design for wearable devices, IoT terminals, and UHF RFID tags, and also studying on the wave propagation characteristics on farms for precision agriculture.

Title
* Antenna Design for IoT and Wearable Devices
* Wave Propagation Characteristics on Farms and Underground Antennas
Highlight
Recent progress on (1) wearable antennas using conductive textiles, antennas for wireless modules loaded on machine parts, and underground antennas for wireless sensor networks, and (2) wave propagation characteristics on farms, will be presented.
Booth No. U-19

University Exhibition 19

Saitama Univ., Ma, Ohira & Misawa Lab.

Contact of Lab.
255 Shimo-Ohkubo, Sakura-ku, Saitama 338-8570, JAPAN
TEL : +81(48)858-3635  FAX : +81(48)858-3635  E-mail : mohira@mail.saitama-u.ac.jp
[ Faculty of Engineering, Dept. of Electrical Engineering, Electronics, and Applied Physics, Ma, Ohira & Misawa Lab. ]
Laboratory Introduction

Ma, Ohira & Misawa Laboratory is engaged in the research and development of small high-performance microwave and millimeter-wave passive circuits and related numerical analysis methods. In particular, our research focuses on the theory, design, and measurement evaluation of filters, antennas, and power dividers, and the development of new circuits integrating these components.

Title
* Research and Development of Miniaturized High-Performance Microwave Passive Circuits (Filters, Antennas, and Power Dividers) and Numerical Analysis
Highlight
Exhibition on the research and development of miniaturized high-performance microwave passive circuits (filters, antennas, and power dividers) and numerical analysis.
Booth No. U-20

University Exhibition 20

Tokyo Inst. of Tech., Okada Lab.

Contact of Lab.
2-12-1-S3-28, Ookayama, Meguro-ku, Tokyo 152-8552, JAPAN
TEL : +81(3)5734-3764  FAX : +81(3)5734-3764  E-mail : okada@ee.e.titech.ac.jp
[ School of Engineering, Dept. of Electrical and Electronic Engineering, Okada Lab. ]
Laboratory Introduction

We have been researching RF, analog and digital mixed signal integrated circuit design. Our main focus is to pursue the potential of analog-digital mixed systems and ultra-high-speed wireless communication systems using advanced CMOS technology, aiming for the world's highest performance and systematization and commercialization of the technology through a wide range of research from circuits to systems.

Title
* Millimeter-Wave Phased Array CMOS Transceiver for 5G
* Wireless System for Satellite Communication
* Ultra Low Power Wireless Circuits for IoT
Highlight
We will demonstrate our latest research activity of CMOS wireless transceivers for IoT, SATCOM, and 5G.

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