Abstract: The present disclosure relates to an organic electroluminescent device. The organic electroluminescent device of the present disclosure shows high luminous efficiency and good lifespan by comprising a specific combination of the plural kinds of host compounds and a specific hole transport compound.

Abstract: A display device includes a substrate that includes a display area and a non-display area, a display element layer disposed on the display area of the substrate, an opposing substrate that faces the substrate and the display element layer, a sealing member disposed on the non-display area and that couples the substrate and the opposing substrate, and a filler disposed between the substrate and the opposing substrate. A thickness of the filler varies in the range of 60% to 400% of a thickness of the sealing member.

Abstract: Provided are a negative electrode active material including a three-dimensional composite. The three-dimensional composite includes secondary particles containing a silicon carbide-based (SiCx, 0<x?1) nanosheet having a bent portion and amorphous carbon. Also provided are a method of producing the same, and a negative electrode and a lithium secondary battery including the negative electrode active material.

Abstract: The present invention relates to a multi-component host material and an organic electroluminescent device comprising the same. By comprising a specific combination of the multi-component host compounds, the organic electroluminescent device according to the present invention can provide high luminous efficiency and excellent lifespan characteristics.

Abstract: The present disclosure relates to an organic electroluminescent device. The organic electroluminescent device of the present disclosure shows high luminous efficiency and good lifespan by comprising a specific combination of the plural kinds of host compounds and a specific hole transport compound.

Abstract: A coil component includes a wound coil having a winding portion, including at least one turn, and a lead-out portion extending from an end portion of the winding portion to form a separation space, together with the winding portion, the wound coil being formed of a metal wire having a surface on which an insulating coating portion is disposed, a body embedding the wound coil therein and including magnetic powder particles and an insulating resin, and an insulating layer disposed on at least one of a surface of the winding portion and a surface of the lead-out portion forming the separation space.

Abstract: A coil component includes a wound coil having a winding portion, including at least one turn, and a lead-out portion extending from an end portion of the winding portion to form a separation space, together with the winding portion, the wound coil being formed of a metal wire having a surface on which an insulating coating portion is disposed, a body embedding the wound coil therein and including magnetic powder particles and an insulating resin, and an insulating layer disposed on at least one of a surface of the winding portion and a surface of the lead-out portion forming the separation space.

Abstract: The present disclosure relates to a current collector formed of nanofiber, which includes PEDOT:PSS and a conductive dopant, a lithium secondary battery electrode including the current collector, and a lithium secondary battery, and the current collector of the present disclosure is characterized in that excellent structural stability, mechanical properties, and electrical conductivity may be achieved by doping nanofiber prepared through electro-spinning with a conductive dopant. The present disclosure was created with the support for a sub-director enterprise support project from Chungbuk Innovation Institute of Science & Technology.

Abstract: The present invention relates to a composition for preventing or treating liver disease, comprising icaritin and quercetin. It is ascertained that when icaritin and quercetin are used in combination rather than individually, the composition of the present invention has a superior effect of hepatic cell protection, and the optimal mixing ratio is derived, and it is also ascertained that the composition exhibits hepatoprotective action and does not induce toxicity in normal cells, and thus the present invention can be used as an active ingredient of a therapeutic agent for liver disease or a health functional food for preventing liver disease.

Abstract: A method for manufacturing a coil component includes: preparing a wound coil, a first jig and a second jig; disposing the wound coil on the first jig; and pressing the wound coil, wherein the pressing the wound coil includes bringing the first jig and the second jig into contact with each other by a first rotation of the first jig.

Abstract: A motor for a vehicle includes a rotor and a pair of end plates having a first end plate and a second end plate. Each of the pair of end plates is respectively disposed on opposite sides of the rotor. At least one path extends from the first end plate to the second end plate and penetrating through the second end plate through the rotor from the first end plate.

Abstract: The present disclosure relates to an organic electrode manufactured into a non-woven type by using an electro-spin method, a stretchable battery which is stretchable and shrinkable, utilizing same, and a method of manufacturing the battery.

Abstract: The present invention relates to a ceramic solid electrolyte, which is a key component of an all-solid-state lithium secondary battery, for improving safety, and a method for synthesizing the same. The present invention relates to an oxide-based conductive ceramic of a new NASICON structure of the chemical formula Li1+xAlxX2?xP3O12 (X is Zr, Si, Sn, or Y, 0<x<2) or Li1+xZr2XxP3?xO12 (X=Si, Sn, Ge, or Y, 1.5?x?2.3). The present invention relates to a method for manufacturing an oxide-based conductive ceramic having the above novel NASICON structure.

Abstract: The present invention is a technology for replacing a lithium ion secondary battery using an inorganic material, which is currently commercially available, and is a technology for constructing a secondary battery using an organic material as an electrode material. The organic electrode has a disadvantage in that the actual energy density is low because it has to include a large amount of carbon-based conductor in the electrode due to poor electrical conductivity. In order to overcome this drawback, in the present invention, the loading amount of the organic active material in the electrode is increased by filling the pores of the carbon structure body, such as porous activated carbon, with an organic electrode material and coating the outside of the carbon structure body with an organic electrode material.

Abstract: Inorganic-based lithium mixed electrode materials have a low charge transfer rate and thus have poor fast charging or discharging characteristics. Positive electrode active materials include LCO (lithium cobalt oxide, LiCoO2), NCM (nickel cobalt manganese, Li(NiCoMn)O2), NCA(nickel cobalt aluminum, Li(NiCoAl)O2), LMO(lithium manganese oxide, LiMn2O4), LFP(Lithium iron phosphate, LiFePO4), etc. High nickel technology is attracting attention because if nickel is used a lot, the capacity of lithium ions can be increased. However, as the content of nickel increases, the reactivity increases, resulting in a risk of explosion of the battery and deterioration in cycle life characteristics. As the negative active material, carbon, transition metal oxide, nickel metal, silicon-nickel alloy, and the like may be used. As the carbon, natural graphite, artificial graphite, soft carbon, hard carbon, etc. can be used. As the transition metal oxide, Co3O4, CoO, FeO, NiO, and the like can be used.

Abstract: There is provided a method for providing a super self-management service to provide step-by-step consulting and mentoring of a life value house (LVH) for self-management, the method executed on a super self-management service providing server, and the method comprising a cornerstone creation step for receiving, from a user terminal, cornerstone data including a mission and core value corresponding to a cornerstone of the LVH and storing the cornerstone data, a pillar creation step for receiving, from the user terminal, pillar data corresponding to health, personal connection, reading, language, and asset corresponding to a pillar of the LVH, an interior creation step for receiving, from the user terminal, differential knowledge, careful planning, bold action, excellent achievements, efficient promotion, and continuous management corresponding to an interior of the LVH, a roof creation step for receiving, from the user terminal, love data corresponding to a roof of the LVH, and a step for automatically generat

Abstract: The present invention relates to a method for manufacturing a new type of composite solid electrolyte for improving the safety and electrochemical properties of a secondary battery, and an all-solid-state battery using the same. An ion conductive ceramic and a polymer are mixed with a solvent to make a slurry, and then a net structure is formed through electrospinning. After drying, a liquid electrolyte is absorbed into the pores to produce a composite solid electrolyte composed of a ceramic, a polymer, and a liquid electrolyte with excellent electrical conductivity. The composite solid electrolyte having such a structure can improve not only the safety of a secondary battery but also the electrochemical properties of a secondary battery.

Abstract: The present invention relates to a composite electrolyte for a secondary battery, having a multi-layer structure, the composite electrolyte comprising: a first electrolyte layer positioned toward a cathode part; and a second electrolyte layer positioned toward an anode part, wherein each of the first electrolyte layer and the second electrolyte layer comprises a polymer base and ceramic particles, and the first electrolyte layer and the second electrolyte layer are formed of different materials.

Abstract: A coil component includes a wound coil having a winding portion, including at least one turn, and a lead-out portion extending from an end portion of the winding portion to form a separation space, together with the winding portion, the wound coil being formed of a metal wire having a surface on which an insulating coating portion is disposed, a body embedding the wound coil therein and including magnetic powder particles and an insulating resin, and an insulating layer disposed on at least one of a surface of the winding portion and a surface of the lead-out portion forming the separation space.

Abstract: The present invention relates to a method for preparing a ceramic solid electrolyte having a even particle distribution, excellent crystallinity, and high ionic conductivity. Step 1 for preparing the ceramic solid electrolyte particles may be a step for adding and mixing raw materials to distilled water to prepare a solid electrolyte precursor. Step 2 may be a step for mixing the solid electrolyte precursor with a ball-mill. Step 3 may be a step for drying first by rotary concentrating or spraying. Step 4 may be a step for drying second in a dryer at 80° C. for at least 24 hours to completely remove the distilled water solvent. Step 5 may be a step for calcining first ceramic particles in a heat treatment device and firing second the ceramic particles.