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Dive into the research topics where Kengo Suzuki is active.

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Featured researches published by Kengo Suzuki.


international conference on solid-state sensors, actuators and microsystems | 2011

Wafer-level two-step bonding process for combined sensor with two different pressure chambers

Takanori Aono; Kengo Suzuki; Akira Koide; Heewon Jeong; M. Degawa; Kiyoko Yamanaka; Masahide Hayashi

We developed a wafer-level two-step anodic bonding process for a combined sensor with two different pressure chambers: ambient and low vacuum pressure. This two-step bonding process features: a bonding and non-bonding area controlled with a glass bump array, an anodic bonding process with plastic deformation of the glass bumps at high temperature and high loading, and two different pressure chambers formed with a sequence of bonding processes.


Journal of Micromechanics and Microengineering | 2016

Development of wafer-level-packaging technology for simultaneous sealing of accelerometer and gyroscope under different pressures

Takanori Aono; Kengo Suzuki; Masatoshi Kanamaru; Ryoji Okada; D Maeda; Masahide Hayashi; Yoshitada Isono

This research demonstrates a newly developed anodic bonding-based wafer-level-packaging technique to simultaneously seal an accelerometer in the atmosphere and a gyroscope in a vacuum with a glass cap for micro-electromechanical systems sensors. It is necessary for the accelerometer, with a damping oscillator, to be sealed in the atmosphere to achieve a high-speed response. As the gyroscope can achieve high sensitivity with a large displacement at the resonant frequency without air-damping, the gyroscope must be sealed in a vacuum. The technique consists of three processing steps: the first bonding step in the atmosphere for the accelerometer, the pressure control step and the second bonding step in a vacuum for the gyroscope. The process conditions were experimentally determined to achieve higher shear strength at the interface of the packaging. The packaging performance of the accelerometer and gyroscope after wafer-level packaging was also investigated using a laser Doppler velocimeter at room temperature. The amplitude at the resonant frequency of the accelerometer was reduced by air damping, and the quality factor of the gyroscope showed a value higher than 1000. The reliability of the gyroscope was also confirmed by a thermal cyclic test and an endurance test at high humidity and high temperature.


Archive | 2006

Combined sensor and its fabrication method

Teruhisa Akashi; Ryoji Okada; Masahide Hayashi; Kengo Suzuki


Archive | 2011

Manufacturing method of combined sensor

Takanori Aono; Kengo Suzuki; Akira Koide; Masahide Hayashi


Archive | 2005

Combined sensor and manufacturing method therefor

Teruhisa Akashi; Masahide Hayashi; Ryoji Okada; Kengo Suzuki; 亮二 岡田; 照久 明石; 雅秀 林; 健悟 鈴木


Archive | 2007

LIGHT REFLECTION BOARD AND LIGHTING BODY USING THE SAME

Masahiro Shinto; Kengo Suzuki; Kenichi Yoshida; 賢一 吉田; 雅浩 新堂; 健悟 鈴木


Archive | 2011

Reflection plate, illumination unit, illumination device, and display device

Tomohiko Mizutani; Kengo Suzuki; Tadaatsu Ueno; 忠篤 上野; 友彦 水谷; 健悟 鈴木


Archive | 2008

Physical sensor and method of process

Kengo Suzuki; Takeshi Harada; Yasuo Osone; Masahide Hayashi; Teruhisa Akashi


Archive | 2011

Composite sensor and method for manufacturing same

Takanori Aono; Kengo Suzuki; Akira Koide; Masahide Hayashi


Archive | 2014

Pressure sensor, and mass flow meter and mass flow controller using same

Kengo Suzuki; Isao Sakaguchi; Atsushi Kazama

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