Fabrication of high dimensional structured nanoceramic by the liquid phase deposition method

液相沉积法制备高维结构纳米陶瓷

• 批准号: 15205026
• 负责人: DEKI Shigehito
• 金额: $ 32.61万
• 依托单位: Kobe University
• 依托单位国家: 日本
• 项目类别: Grant-in-Aid for Scientific Research (A)
• 财政年份: 2003
• 资助国家: 日本
• 起止时间: 2003 至 2006
• 项目状态: 已结题
• 来源: https://kaken.nii.ac.jp/en/grant/KAKENHI-PROJECT-15205026/
• 关键词: Liquid phase deposition method; Metal oxide thin films ceramics; High dimensional structured; Nano-arrayed ceramics; Inversed-opal structure; Photonic crystals; Metalfluoro complex equilibrium; Deep-RIE process; 酸化モリブデン; Dcep-RIE法; 酸化タングステン; 金含

Liquid Phase Deposition (LPD) method has been studied for the fabrication of metal oxide thin films using equilibrium reaction of metal-fluoro complex in aqueous solution systems. Various kinds of metal oxide can be deposited with a good step coverage on substrates having various and high structure ordering. The high dimensional structured metal oxide thin films were fabricated among the template substrate by the Liquid Phase Infiltration (LPI) method. This method has a various advantages in fabrication process, such as low energy, low cost solution reaction, high adhesive and step coverage performance, etc.We developed a novel technique for the direct synthesis of two-dimensional metal oxide films with highly ordered periodic structure. TiO2 films with highly nano-ordered architectures were directly deposited on substrates at room temperature by LPI method. 2D arrays of several kinds of metal oxide rods with diameters ranging from ca. 100 to 1000 nm are fabricated by filling the holes in a Si wafer designed by Deep-RIE method. A novel soft solution process for the direct synthesis of large-area well-crystallized oxides with 3D ordered periodic structure of polystyrene colloidal crystal has been developed based on the LPI method. Metal oxide thin films were deposited directly into the nanospace, and thus the nanospace was completely infiltrated with metal oxide. In such systems, the crystallinity of the metal oxide is higher than conventional thin films prepared on the surface of the planer substrate. It is suggested that the limited reaction region caused the hindrance of diffusion of the dissolving species and high crystallinity during the crystal growth in the Liquid Phase Deposition reaction. The LPI process provides a direct fabrication route for metal oxide films with highly ordered structures, enabling nanoscale modification of optical properties of photonic crystals.

液相沉积（LPD）方法已被研究用于利用水溶液体系中金属氟配合物的平衡反应来制备金属氧化物薄膜。各种金属氧化物可以在具有各种和高结构有序性的基底上以良好的阶梯覆盖性沉积。采用液相渗透（LPI）方法在模板基底之间制备高维结构金属氧化物薄膜。该方法在制备过程中具有低能量、低成本溶液反应、高附着力和阶梯覆盖性能等优点。我们开发了一种直接合成具有高度有序周期结构的二维金属氧化物薄膜的新技术。采用 LPI 方法在室温下将具有高度纳米有序结构的 TiO2 薄膜直接沉积在基材上。多种金属氧化物棒的二维阵列，直径范围从 ca.通过在采用 Deep-RIE 方法设计的 Si 晶片上填充孔来制造 100 至 1000 nm。基于LPI方法，开发了一种直接合成具有3D有序周期结构的聚苯乙烯胶体晶体大面积良好结晶氧化物的新型软溶液工艺。将金属氧化物薄膜直接沉积到纳米空间中，从而使纳米空间完全被金属氧化物渗透。在此类系统中，金属氧化物的结晶度高于在平面基底表面上制备的常规薄膜。这表明有限的反应区域导致了液相沉积反应中晶体生长过程中溶解物质扩散的阻碍和高结晶度。 LPI工艺为具有高度有序结构的金属氧化物薄膜提供了直接制造途径，从而能够对光子晶体的光学特性进行纳米级修饰。

项目成果

出来成人: "水溶液からの機能性材料合成"GS News Technical Report. 第62巻・第2号. 46-53 (2003)

完成：《从水溶液合成功能材料》GS新闻技术报告第62卷第2. 46-53期（2003年）。

Fabrication of two-dimensional arrays of graded oxide thin films by LPI method

LPI法制备二维阵列渐变氧化物薄膜

• 发表时间: 2005
• 期刊: Proceedings of Nanoscale Devices, Materials, and Biological Systems : Fundamental and Applications PV2004-13
• 作者: Toshikatsu Maki;Sachihiko Iizuka
• 通讯作者: Sachihiko Iizuka

Fabrication of nano-structured materials from aqueous solution by liquid phase deposition

• DOI: 10.1016/j.jelechem.2004.05.027
• 发表时间: 2005-10
• 期刊: Journal of Electroanalytical Chemistry
• 影响因子: 4.5
• 作者: S. Deki;S. Iizuka;M. Mizuhata;A. Kajinami

Preparation and luminescence property of transparent Eu^<3+>/ZrO_2 thin films by the liquid phase deposition(LPD) method

液相沉积法制备透明Eu^3/ZrO_2薄膜及其发光性能

• 期刊: Proceedings of Thin Film Materials, Processes, and Reliability PV2003-13(印刷中)
• 作者: T.Inabe;H.Tajima;Kentaro Kuratani
• 通讯作者: Kentaro Kuratani

日本化学会編第5版実験化学講座27機能性材料,5.機能性材料の合成1.機能薄膜材料6.セラミック薄膜

日本化学会编第5版实验化学教程27功能材料5.功能材料的合成1.功能薄膜材料6.陶瓷薄膜

• 发表时间: 2004
• 作者: Y.Takata;M.Yabashi;K.Tamasaku;Y.Nishino;D.Miwa;T.Ishikawa;E.Ikenaga;K.Horiba;S.Shin;M.Arita;K.Shimada;H.Namatame;M.Taniguchi;H.Nohira;T.Hattori;S.Sodergren;B.Wannberg;K.Kobayashi;H.Kinoshita;藤原 英樹;T.Shirahata;出来成人
• 通讯作者: 出来成人