Abstract: The present invention provides an electrochemical unit, a manufacturing method for the same and a use of the same as a component of batteries, and an electrochemical device including the same. The electrochemical unit includes a mixture layer and a transition metal oxide layer. The mixture layer includes an oxide made of a first transition metal, an oxide made of a second transition metal, and a first alkali metal. The transition metal oxide layer is disposed on one side of the mixture layer, where the transition metal oxide layer includes a third transition metal oxide.

Abstract: A refined microcrystalline electrode manufacturing method is provided. The refined microcrystalline electrode manufacturing method includes the following step. First, an active material electrode layer is subjected to a conventional thermal annealing (CTA) process in an oxygen-containing environment at a first temperature interval to form an active material crystallization precursor; the active material crystallization precursor is subjected to a rapid thermal annealing (RTA) process in the oxygen-containing environment at a second temperature interval to form an active material coating layer with uniformly distributed fine microcrystal grains, wherein the temperature range of the second temperature interval is greater than the temperature range of the first temperature interval. In addition, a thin film battery and a thin film battery manufacturing method are also provided.

Abstract: An apparatus is provided for plating a lithium (Li)-compound thin film. In the thin film, Li is obtained through thermal evaporation, and titanium (Ti) or other metal by using arc plasma. The elements converted into gas phase are co-deposited in a plasma environment with a reaction gas (oxygen) to be activated as excited atoms or molecules for reaction. In the end, all of the constituent elements are deposited on a substrate to form the Li-compound thin film. Thus, reaction efficiency is high with a fast deposition rate. The composition ratio of each element is independently determined to control its yield according to the requirement. Hence, the present invention greatly enhances the fabrication rate with lowered production cost for applications in the thin-film battery industries.

Abstract: A Li—Sn—O—S compound, a manufacturing method therefor and use thereof as an electrolyte material of Li-ion batteries, and a Li—Sn—O—S hybrid electrolyte are provided. The Li—Sn—O—S compound of the present invention is laminated Sn—O—S embedded with lithium ions. The Li—Sn—O—S compound is represented by the formula Li3x[LixSn1?x(O,S)2], where x>0. The manufacturing method for a Li—Sn—O—S compound includes the following steps of: (S1000) providing a Sn—O—S compound; (S2000) adding a lithium source into the Sn—O—S compound to form a Li—Sn—O—S precursor; and (S3000) performing calcination on the Li—Sn—O—S precursor in a vulcanization condition.

Abstract: The present invention provides an electrochemical unit, a manufacturing method for the same and a use of the same as a component of batteries, and an electrochemical device including the same. The electrochemical unit includes a mixture layer and a transition metal oxide layer. The mixture layer includes an oxide made of a first transition metal, an oxide made of a second transition metal, and a first alkali metal. The transition metal oxide layer is disposed on one side of the mixture layer, where the transition metal oxide layer includes a third transition metal oxide.

Abstract: An apparatus is provided for plating a lithium (Li)-compound thin film. In the thin film, Li is obtained through thermal evaporation, and titanium (Ti) or other metal by using arc plasma. The elements converted into gas phase are co-deposited in a plasma environment with a reaction gas (oxygen) to be activated as excited atoms or molecules for reaction. In the end, all of the constituent elements are deposited on a substrate to form the Li-compound thin film. Thus, reaction efficiency is high with a fast deposition rate. The composition ratio of each element is independently determined to control its yield according to the requirement. Hence, the present invention greatly enhances the fabrication rate with lowered production cost for applications in the thin-film battery industries.

Abstract: A method for manufacturing a nanostructure composite material includes a step of preparing an inorganic material nanostructure, and a step of embedding an organic material to the inorganic material nanostructure so as to form the nanostructure composite material. In addition, a nanostructure composite material is also provided.

Abstract: An anti-reflection composite layer including a substrate, a plurality of first optical layers and a plurality of second optical layers is provided. The first optical layers and the second optical layers are alternately formed on the carrier surface of the substrate by a PVD coating process, and the refractive index of the materials forming the first optical layers is higher than that of the materials forming the second optical layers. A manufacturing method thereof is also provided.

Abstract: A method for manufacturing a Zinc oxide nanocapsule includes: a step of preparing a Zinc oxide narorod; a step of etching the Zinc oxide narorod to form a Zinc oxide nanotube, wherein the Zinc oxide nanotube is a hollow tubular structure; a step of filling a material into the Zinc oxide nanotube; and, a step of regrowing the Zinc oxide nanotube to encapsulate the hollow tubular structure so as to form a Zinc oxide nanocapsule. In addition, a zinc oxide nanocapsule is also provided.

Abstract: A Li—Sn—O—S compound, a manufacturing method therefor and use thereof as an electrolyte material of Li-ion batteries, and a Li—Sn—O—S hybrid electrolyte are provided. The Li—Sn—O—S compound of the present invention is laminated Sn—O—S embedded with lithium ions. The Li—Sn—O—S compound is represented by the formula Li3x[LixSn1?x(O,S)2], where x>0. The manufacturing method for a Li—Sn—O—S compound includes the following steps of: (S1000) providing a Sn—O—S compound; (S2000) adding a lithium source into the Sn—O—S compound to form a Li—Sn—O—S precursor; and (S3000) performing calcination on the Li—Sn—O—S precursor in a vulcanization condition.

Abstract: The present invention discloses a method for fabricating an electrochromic device, which adopts the vacuum cathodic arc-plasma deposition to comprise five layers with an ionic conduction layer (electrolyte) in contact with an electrochromic (EC) layer and an ion storage (complementary) layer, all sandwiched between two transparent conducting layers sequentially on a substrate. The method owns superior deposition efficiency and the fabricated thin film structures have higher crystalline homogeneity. In addition, thanks to the nanometer pores in the thin film structures, the electric capacity as well as the ion mobility are greater. Consequently, the reaction efficiency for bleaching or coloring is enhanced.

Abstract: A method for manufacturing a nanostructure composite material includes a step of preparing an inorganic material nanostructure, and a step of embedding an organic material to the inorganic material nanostructure so as to form the nanostructure composite material. In addition, a nanostructure composite material is also provided.

Abstract: A method for manufacturing a Zinc oxide nanocapsule includes: a step of preparing a Zinc oxide narorod; a step of etching the Zinc oxide narorod to form a Zinc oxide nanotube, wherein the Zinc oxide nanotube is a hollow tubular structure; a step of filling a material into the Zinc oxide nanotube; and, a step of regrowing the Zinc oxide nanotube to encapsulate the hollow tubular structure so as to form a Zinc oxide nanocapsule. In addition, a zinc oxide nanocapsule is also provided.

Abstract: A refine microcrystalline electrode manufacturing method is provided. The refine microcrystalline electrode manufacturing method includes the following step. First, an active material electrode layer is subjected to a conventional thermal annealing (CTA) process in an oxygen-containing environment at a first temperature interval to form an active material crystallization precursor; the active material crystallization precursor is subjected to a rapid thermal annealing (RTA) process in the oxygen-containing environment at a second temperature interval to form an active material coating layer with uniformly distributed fine microcrystal grains, wherein the temperature range of the second temperature interval is greater than the temperature range of the first temperature interval. In addition, a thin film battery and a thin film battery manufacturing method are also provided.

Abstract: A method for manufacturing electrochemical device, which may include the following steps: disposing a metal material or a metal oxide material to be doped on the anode of the plasma source of the arc plasma coating equipment; forming a metal oxide film of the electrochemical device by the arc plasma coating equipment via an arc plasma coating process; and doping the metal material or the metal oxide material into the metal oxide film after being mixed with the plasma by heat vaporization via the phenomenon of the electrons heating the anode of the plasma source.

Abstract: A method for manufacturing a hybrid-structured solid electrolyte membrane includes a step of preparing a liquid solution formed by heating and mixing an electrolytic solution and a lithium salt, a step of mixing orderly a first monomer and then a second monomer into the liquid solution so as to form a hybrid structure, and a step of curing the hybrid structure so as to form a hybrid-structured solid electrolyte membrane. In addition, a hybrid-structured solid electrolyte membrane, an all-solid-state battery and a method for manufacturing the all-solid-state battery are also provided.

Abstract: The present invention discloses a method for fabricating an electrochromic device, which adopts the vacuum cathodic arc-plasma deposition to comprise five layers with an ionic conduction layer (electrolyte) in contact with an electrochromic (EC) layer and an ion storage (complementary) layer, all sandwiched between two transparent conducting layers sequentially on a substrate. The method owns superior deposition efficiency and the fabricated thin film structures have higher crystalline homogeneity. In addition, thanks to the nanometer pores in the thin film structures, the electric capacity as well as the ion mobility are greater. Consequently, the reaction efficiency for bleaching or coloring is enhanced.

Abstract: The invention provides a method for manufacturing solid electrolyte membrane. The manufacturing method includes the following steps. A solution is provided. The solution is heated and mixed with an electrolytic solution and a lithium salt. Then, a solid-state polymer material is added to the solution. Then, a heating and stirring step is performed so as to form a viscous mass. Then, a forming step is performed to form a solid electrolyte membrane. In addition, a lithium battery and manufacturing method thereof is provided.

Abstract: The present invention relates to a microcrystalline silicon thin film solar cell and the manufacturing method thereof, using which not only the crystallinity of a microcrystalline silicon thin film that is to be formed by the manufacturing method can be controlled and adjusted at will and the defects in the microcrystalline silicon thin film can be fixed, but also the device characteristic degradation due to chamber contamination happening in the manufacturing process, such as plasma enhanced chemical vapor deposition (PECVD), can be eliminated effectively.

Abstract: A method for manufacturing polycrystalline electrode is provided, which may include the following steps: providing a conductive substrate; using a film coating method to deposit an active material on one side of the conductive substrate by a hydrogen-containing plasma source to form an electrode layer; executing a thermal annealing process for the electrode layer in an oxygen-containing environment. The grains of the polycrystalline electrode manufactured by the method will be more uniform in size, which can significantly increase the volumetric energy density of thin-film battery to significantly improve its performance.