Fabrication of the High conductive diamond like carbon films and development of the novel nano-structumd electrochemical devioas

高导电类金刚石碳膜的制备及新型纳米结构电化学器件的开发

• 批准号: 18550166
• 负责人: HONDA Kensuke
• 金额: $ 2.69万
• 依托单位: Yamaguchi University
• 依托单位国家: 日本
• 项目类别: Grant-in-Aid for Scientific Research (C)
• 财政年份: 2006
• 资助国家: 日本
• 起止时间: 2006 至 2007
• 项目状态: 已结题
• 来源: https://kaken.nii.ac.jp/grant/KAKENHI-PROJECT-18550166/
• 关键词: Conductive DLC; Ideal oolarizable electrode; Template synthesis; Nano-structured material; Porous alumina

In this study, highly conductive and polarizable electrode material was tried to be fabricated by improving the conductivity of diamond like carbon films using the impurity (nitrogen atoms) doping methods and the novel electrochemical device that combines the specificity of the nano-structure and the superior electrochemical properties of conductive DLC films was tried to be developed.(1) Establishment of the deposition methods of highly conductive DLC films and its electrochemical properties. The heavily nitrogen doped DLC films was successfully fabricated by adding nitrogen atoms in the DLC thin films that was synthesized using plasma CVD methods. The resistivity of DLC films could be controlled by changing the RF plasma power during the CVD synthesis. The resulting highly conductive DLC films show the wide working potential range (ca. 4.0 V) in 0.1 M H_2SO_4, that is in the same range with that fir the boron-doped diamond electrodes (ca. 3.5 V). Therefore, it turned out that highly … More conductive DLC films works as an ideal polarizable electrode material with good response fix electrochemical reaction of typical redox species like Fe(CN)_6^<〓>. Moreover, the highly conductive DLC films show high corrosion resistance for the electrochemical treatment (long term potential cycling from -0.65 to 1.3 V) in strong acid solution (0.1M NaF in 1M HNO_3, indicating that the DLC films was highly stable fir the electrochemical application in extreme environmental conditions.(2) Fabrication of the conductive DLC thorough-hole membrane and the development of the switching ion permeation filtersConductive DLC thorough-hole membrane was fabricated by depositing DLC films with thickness of by nano meters on the surface of porous alumina with highly ordered nano-pore allays. By using the conductive nano-porous membrane with 25 nm of pore diameter as a filter material, the permeability of cation was suppressed by applying positive potential on conductive DLC membrane and the permeability of anion was suppressed by applying negative potential. For the mixed media of cation and anion, the selective permeability for cation could be achieved by applying negative potential Therefore the switching filters that can arbitrarily control the ion permeability by the size of pore diameters and the membrane potential could be successfully realized. Less

In this study, highly conductive and polarizable electrode material was tried to be fabricated by improving the conductivity of diamond like carbon films using the impurity (nitrogen atoms) doping methods and the novel electrochemical device that combines the specificity of the nano-structure and the superior electrochemical properties of conductive DLC films was tried to be developed.(1) Establishment of the deposition methods of highly conductive DLC电影及其电化学特性。通过在DLC薄膜中添加氮原子，成功制造了氮掺杂的DLC膜，该膜是使用等离子体CVD方法合成的。 DLC膜的电阻可以通过在CVD合成过程中改变RF等离子体功率来控制。最终的高导电DLC膜显示了0.1 m H_2SO_4的宽工作势范围（Ca. 4.0 V），即与新鲜的硼掺杂钻石电极（CA. 3.5 V）的范围相同。因此，事实证明，高度……更多的导电DLC膜充当理想的极化电极材料，良好响应固定了典型的氧化还原物种（例如Fe（CN）_6^<〓>）的电化学反应。此外，高电导性DLC膜在强酸溶液中（1M HNO_3中的0.1m NAF中的0.1m NAF）显示出高耐腐蚀性（长期电势从-0.65到1.3 V），表明DLC膜是高度稳定的，这是高度稳定的，首先是在极端环境条件下进行电化学的发展。 permeation filtersConductive DLC straight-hole membrane was fabricated by depositing DLC​​ ​​films with thickness of by nano meters on the surface of porous alumina with highly ordered nano-pore allas. By using the conductive nano-porous membrane with 25 nm of pore diameter as a filter material, the permeability of cation was suppressed by applying positive potential on conductive DLC membrane and the通过对阳离子和阴离子的混合介质施加负电位来抑制阴离子的渗透性，可以通过施加负电位来实现阳离子的选择性渗透性，因此可以成功地实现孔径大小和膜电位的切换过滤器。较少的

项目成果

Fabrication of Covalent SAM/Au Nanoparticle/Boron-Doped Diamond Conflgurations with a Sequential Self-Assembly Method

采用顺序自组装方法制造共价 SAM/Au 纳米颗粒/硼掺杂金刚石配置

• 发表时间: 2007
• 期刊: J. Phys. Chem. C 111(34)
• 作者: Tribidasari;A;Takeshi Kondo
• 通讯作者: Takeshi Kondo

Hybrid Electrochemical Treatment for Persistent Metal Complex at Boron-doped Diamond Electrodes and Clarification of its Reaction Route

硼掺杂金刚石电极上持久性金属络合物的混合电化学处理及其反应路线的阐明

• 发表时间: 2006
• 期刊: J. Electrochem. Soc. 153
• 作者: Tribidasari;A;Takeshi Kondo;S.Matsuda,K.Matsumura,M.Watanabe,T.Yamanoi;T.Yamanoi,N.Misawa and M.Watanabe;Tribidasari A.Ivandini;Y. Yamaguchi
• 通讯作者: Y. Yamaguchi

不純物ドープ法によるダイヤモンドライクカーボン薄膜の作製とその電気化学特性

杂质掺杂法制备类金刚石碳薄膜及其电化学性能

• 发表时间: 2008
• 作者: T. Yamanoi;N. Misawa;M. Watanabe;田中 与子
• 通讯作者: 田中 与子

Establishment of the conductivity controlling for DLC thin films using impurity doping methods and its stability for electrochemical applications

利用杂质掺杂方法建立DLC薄膜的电导率控制及其电化学应用的稳定性

• 发表时间: 2007
• 作者: Kensuke;Honda
• 通讯作者: Honda

Fabrication of the Conductive DLC Thin Films using Plasma CVD method and its Electrochemical Application

等离子体CVD法制备导电DLC薄膜及其电化学应用

• 发表时间: 2006
• 作者: Yikiko;Kastuki
• 通讯作者: Kastuki