Collaborations
Joint research
ongoing project
| Research task | Partner | Duration |
|---|---|---|
| Development of the Organic EO Devices | Sumitomo Electric Industries, Ltd | 2016- |
| Development of the super-high-speed optical phased arrays | NHK | 2014- |
| Development of the high-performance nonlinear optics polymer | TEIJIN | 2015- |
| EOポリマーを用いた垂直入射型光変調デバイス | The University of Tokyo | 2015- |
| Development of the portable Vacuum container | Nara Institute of Science and Technology Japan Synchrotron Research Institute (JASRI) |
2013- |
| Development of the portable Vacuum system | Saga Light Source kyushu Synchrotron Light Research Center | 2013- |
| Development of basic technology using molecular super-structure | Hiroshima University | 2006- |
| Development of the new nanoscale structure manufacture technique | Kansai University | 2007- |
| Development of electron, spin, and optical function element by the organic molecule structures. | Kumamoto University | 2010- |
| グラフェン・ナノ金属複合構造における電子移動素過程の解明とデバイス応用 | Kwansei Gakuin University | 2015- |
previous project
| 高速光位相制御技術の研究開発 | SUMITOMO OSAKA CEMENT | 2013-2015 |
| EOポリマー超小型光変調器技術 | Tokyo Institute of Technology | 2014-2015 |
| ３波共鳴型差動複合共振器制御による高効率ＣＷ光パラメトリック発振器の開発と応用に関する研究 | The University of Electro-Communications | 2010-2015 |
| Development of optical Nano super-focusing technology on the metal nanostructure | University of Fukui | 2009-2015 |
| 光感受性膜蛋白質によるセンシングデバイス構築基盤技術の開発 | Graduate School of Science, Nagoya University | 2012-2015 |
| 高分子材料と光通信デバイス技術の研究 | Institute for Materials Chemistry and Engineering, Kyushu University | 2012-2015 |
| ナノ材料の形態制御による電子・スピン・光機能素子の開発 | Hokkaido University, Graduate School of Science | 2013-2015 |
| Applied sensing based on biomaterials | The University of Electro-Communications | 2010-2015 |
| バクテリオロドプシンの構造制御と光デバイスへの応用に関する研究 | Osaka city University | 2010-2015 |
| 深紫外LEDの光取出しフォトニック構造の作製と評価 | Tokuyama Co. | 2011-2015 |
| 光・分子先端素子の新材料・デバイス技術の研究 | IMCE, Kyushu University | 2006-2010 |
| Development of emission-controlled photonic devices by controlling photonic structures | Chinese Academy of Sciences | 2009-2010 |
| Studies on the frequency stabilization of an extended-cavity diode laser in reference to an iodine saturated absorption line | The University of Electro-Communications | 2010 |
| Development of applied technology of organic electrooptics material | IMCE, Kyushu University Sumitomo Electoric Industries,Ltd. |
2010 |
| Development of ecological manufacturing method of high performance organic nano crystal transistor | Japan Science and Technology Agency | 2008-2010 |
| 金属光導波路伝搬機構の解明 | RCAST, The University of Tokyo | 2008-2010 |
| Construction and characterization of nano molecular device with photochromic molecules | Kyushu University | 2008-2009 |
| Development of organic electronic device on the Nano electrolysis method | Hokkaido University | 2008-2009 |
| ナノ構造における低次元光波伝搬技術の研究開発 | Osaka University | 2007-2010 |
| 金属微細構造による電場増強利用技術の研究開発 | The University of Tokushima | 2007-2010 |
| Development of Nano scale device using phenomenon of magnetic field responds | ISSP, The University of Tokyo | 2007-2008 |
| 金属ナノ構造による半導体ナノ結晶および蛍光分子の 発光制御に関する研究 |
RIKEN | 2007-2008 |
| Development of polymeric material for telecommunication | Hakuto Co., Ltd. | 2007-2007 |
| Characterization and nano process of nano magnetic materials | Nagoya University | 2005-2007 |
| Development of nano fabrication technique using highly charged ion impact process | The University of Electro-Communications | 2002-2006 |
| 有機無機複合素材によるナノスケール新機能素子の開発 | Konan University | 2005 |
| 情報通信ソフト材料の開発 | Hakuto Co., Ltd. | 2005 |
| 有機分子回路作成のための超平坦回路作成プロセス | University of Hyogo | 2002-2003 |
| 有機結晶表面構造と電気特性の解明に関する共同研究 | Hokkaido University | 2002 |
Entrusted research
Contract research
- 2004
- Development and application of highly charged ion source for nano process
- Reconfigurable Nanocomputers
- 2003
- Research of nano process technique with highly charged ions
- Fault-tolerance in nanocomputers
- Investigation of the molecular nanostructure fabrication technique based on the wet method.
