公开(公告)号：US09291595B2

公开(公告)日：2016-03-22

申请号：US13797401

申请日：2013-03-12

Applicant: Korea Atomic Energy Research Institute ,  Korea Hydro & Nuclear Power Co., Ltd.

Inventor： Sang Eun Bae ,  Kyuseok Song ,  Dae Hyeon Kim ,  Yong Joon Park ,  Jong Yun Kim ,  Jei Won Yeon

IPC: G01N27/411 ,  G01N27/416 ,  G01N27/48

CPC classification number: G01N27/4166 ,  G01N27/4118 ,  G01N27/416 ,  G01N27/48

Abstract: A monitoring method of metal ions or oxygen ions applicable to a high concentration non-aqueous electrolyte includes: applying a potential in a non-aqueous electrolyte to obtain current information with respect to the potential; varying the potential applied in the non-aqueous electrolyte containing metal ion concentration or oxygen ion concentration such that the metal ion concentration or the oxygen ion concentration is maintained in spite of the potential being applied; detecting a linear relationship among the concentration, the current, and passed charges in the non-aqueous electrolyte by repeatedly performing the obtaining step and the varying step, while changing the concentration; and calculating metal ion concentration or oxygen ion concentration of the non-aqueous electrolyte in pyroprocessing of the non-aqueous electrolyte by using the linear relationship. Concentration and components of a solute existing in a non-aqueous electrolyte can be measured while an electrowinning process and pyroprocessing is being conducted.

Abstract translation: 适用于高浓度非水电解质的金属离子或氧离子的监测方法包括：在非水电解质中施加电位以获得关于电位的电流信息; 改变在含有金属离子浓度或氧离子浓度的非水电解质中施加的电位，使得即使施加电位也保持金属离子浓度或氧离子浓度; 通过在改变浓度的同时反复进行获得步骤和变化步骤，检测非水电解质中的浓度，电流和通过的电荷之间的线性关系; 并且通过使用线性关系计算非水电解质的热处理中的非水电解质的金属离子浓度或氧离子浓度。 可以在进行电解提取处理和热处理的同时测量存在于非水电解质中的溶质的浓度和组分。

公开(公告)号：US20150050816A1

公开(公告)日：2015-02-19

申请号：US14463584

申请日：2014-08-19

Applicant: Korea Atomic Energy Research Institute

Inventor： Sang Eun Bae ,  Jong-Yun Kim ,  Jei-Won Yeon ,  Tae-Hong Park ,  Kyuseok Song ,  Dae Hyeon Kim ,  Young Hwan Cho ,  Yong Joon Park ,  Yeong-Keong Ha

IPC: H01L21/02

CPC classification number: C25B1/006 ,  C23C18/1212 ,  C23C18/122 ,  C23C18/1241 ,  C23C18/1245 ,  C23C18/1283 ,  C23C18/1295 ,  C23C18/16 ,  C23C18/1637 ,  C23C18/1642 ,  C23C18/1648 ,  C23C18/54 ,  C25D5/50 ,  C25D9/08 ,  H01L21/02126 ,  H01L21/02164 ,  H01L21/02211 ,  H01L21/02282 ,  H01L21/02288 ,  H01L21/02343 ,  H01L21/02356 ,  H01L21/02373 ,  H01L21/02376 ,  H01L21/02425 ,  H01L21/02532 ,  H01L21/02625 ,  H01L21/02628 ,  H01L31/182 ,  Y02E10/546 ,  Y02P70/521

Abstract: A method of preparing a silicon thin film, silicon thin film prepared using the method, and an electronic device including the silicon thin film are provided. The method includes applying an oxidized silicon element solution to a substrate and sintering the silicon oxide film to prepare a compact silicon oxide thin film, electrochemically reducing the silicon oxide thin film to form a porous silicon film, and re-sintering the porous silicon film. Therefore, the silicon thin film used in semiconductors, solar cells, secondary batteries and the like can be easily prepared at a low cost with a smaller number of processes than the conventional methods, and thus price competitiveness of products can be enhanced.

Abstract translation: 提供了制备硅薄膜的方法，使用该方法制备的硅薄膜和包括硅薄膜的电子器件。 该方法包括将氧化硅元素溶液施加到衬底上并烧结氧化硅膜以制备紧凑的氧化硅薄膜，电化学还原氧化硅薄膜以形成多孔硅膜，并重新烧结多孔硅膜。 因此，与传统方法相比，可以以较少的成本便宜地制造半导体，太阳能电池，二次电池等中使用的硅薄膜，能够提高产品的价格竞争力。