インドとの国際共同研究(日本学術振興会 二国間交流事業共同研究)に採択されました。インドとの国際共同研究(日本学術振興会二国間交流事業共同研究)に採択されました。インド理科大学院との国際共同研究(日本学術振興会(JSPS)二国間交流事業共同研究、代表 高尾英邦 2017年6月1日~2019年3月31日)に採択されました。「グラフェン-メタル/半導体ナノコンポジットによる力覚スマートセンサ開発とその応用」” Development of Graphene-Metal/Semiconductor Nanocomposite based Smart Torque and Shear Sensors and their Applications”日本学術振興会 二国間交流事業
高尾研究室と寺尾研究室が、The 30th IEEE International Conference on Micro Electro Mechanical Systems”MEMS 2017”(1/22-26, Las Vegas, USA)で研究成果を発表します。MEMS2017で発表しました。Prof. Takao and Assoc. prof. Terao give presentations on latest research developments at”MEMS 2017”.The 30th IEEE International Conference on Micro Electro Mechanical Systems (MEMS 2017)Las Vegas, Nevada, USAJanuary 22 - 26, 2017http://www.mems17.org/ORAL: Session Xa - Tactile & Flexible SensorsA ''MICRO-MACRO'' INTEGRATED PLANAR MEMS TACTILE SENSOR FOR PRECISE MODELING AND MEASUREMENT OF FINGERTIP SENSATIONK. Watatani1, R. Kozai1, K. Terao1,2, F. Shimokawa1,2, and H. Takao1,21Kagawa University, JAPAN and 2Japan Science and Technology Agency (JST), JAPANIn this paper, a ''micro-macro'' integrated planar MEMS tactile sensor with two different scale tactile sensors are presented. The ''micro-scale'' tactile sensor detects ''micro surface shape'' and ''micro-area frictional force'' that are generated and detected at a fingerprint in the human's fingertip skin. On the other hand, the integrated ''macro-scale'' tactile sensor detects ''overal contact pressure'' and ''macro-area sliding friction'' that are detected by wide-area of skin.POSTER SESSON: T-059NANOBLADE ARRAY FOR SPATIAL DISSECTION OF SINGLE CELLS AND TISSUESD. Kagawa1, M. Kusumoto1, Y. Takemura1, H. Takao1, F. Shimokawa1, and K. Terao1,21Kagawa University, JAPAN and 2Japan Science and Technology Agency (JST), JAPANWe propose a novel method for sampling single cells and intracellular biomolecules without losing spatial information in tissues or in single cells, using Si nano-blade array device. Pushing the device physically against cells or a sliced tissue allows us to dissect and keep them in the space walled by the blade structures. The biomolecules are extracted in each space are collected with ligand molecules immobilized on the blades or a micropipette approaching from the backside of the device.POSTER SESSON: M-061ON-SITE MANIPULATION OF SINGLE DNA MOLECULES USING OPTICALLY-DRIVEN MICROCHOPSTICKSR. Inukai1, H. Takao1, F. Shimokawa1, and K. Terao1,21Kagawa University, JAPAN and 2Japan Science and Technology Agency (JST), JAPANThis paper reports a novel DNA manipulation technique for the analysis of single DNA molecules under a fluorescence microscope. We successfully manipulated single DNA molecules using two microstructures driven by two laser beams, where we handled them like 'chopsticks'. This manipulation technique allows the imaging of single DNA molecules with its intact state, which will lead to the nanotechnology-based DNA analysis.