Abstract: Disclose are a cathode of an all-solid lithium battery, and a secondary battery system using the same. The cathode includes a lithium composite, and a method of manufacturing the lithium composite comprises: dispersing a solid electrolyte to be uniformly distributed in the pores of a mesoporous conductor to provide a solid electrolyte composite, and coating the solid electrolyte composite on the surface of a lithium compound including nonmetallic solids such as S, Se, and Te.

Abstract: Disclose are a cathode of an all-solid lithium battery, and a secondary battery system using the same. The cathode includes a lithium composite, and a method of manufacturing the lithium composite comprises: dispersing a solid electrolyte to be uniformly distributed in the pores of a mesoporous conductor to provide a solid electrolyte composite, and coating the solid electrolyte composite on the surface of a lithium compound including nonmetallic solids such as S, Se, and Te.

Abstract: Disclose are a cathode of an all-solid lithium battery, and a secondary battery system using the same. The cathode includes a lithium composite, and a method of manufacturing the lithium composite comprises: dispersing a solid electrolyte to be uniformly distributed in the pores of a mesoporous conductor to provide a solid electrolyte composite, and coating the solid electrolyte composite on the surface of a lithium compound including nonmetallic solids such as S, Se, and Te.

Abstract: Disclose are a cathode of an all-solid lithium battery, and a secondary battery system using the same. The cathode includes a lithium composite, and a method of manufacturing the lithium composite comprises: dispersing a solid electrolyte to be uniformly distributed in the pores of a mesoporous conductor to provide a solid electrolyte composite, and coating the solid electrolyte composite on the surface of a lithium compound including nonmetallic solids such as S, Se, and Te.

Abstract: A bipolar current collector for a lithium-air battery includes a substrate having a plate shape. A plurality of nanowires are anodized on the substrate and have a pillar shape with a predetermined height. An air path is formed between the plurality of nanowires and through which outside air flowing into a battery moves. The plurality of nanowires include titanium dioxide (TiO2).

Abstract: Disposed is a heat dissipation plate, which is an interface plate interposed between a plurality of battery cells, can respond to changes in volume of the battery cells, and can effectively dissipate heat accumulated in the battery cells, and a battery module having the same. To this end, the heat dissipation plate includes a porous metal foam plate formed by foaming and having a plate shape. A sheet plate is stacked on both sides of the metal foam plate. When the battery cells expand, the metal foam plate is compressed by the expansion of the battery cells, thereby responding to changes in volume of the battery cells and improving heat dissipation performance by air cooling due to increased specific surface area.