Abstract: The present disclosure relates to a flame retardant or non-flammable liquid electrolyte and a lithium secondary battery including the same, wherein the liquid electrolyte is flame retardant or non-flammable and capable of preventing accidents such as a lithium secondary battery being on fire, catching fire, or exploding from occurring, thereby significantly improving battery safety, is capable of obtaining increased battery energy density by allowing high-voltage charge, is capable of rapid charge, and is capable of maintaining excellent battery performance for a long period of time.

Abstract: An anode active material and a high-capacity secondary battery for high speed charging including the same are described. When an anode active material including a composite material in which a high-capacity silicon-based anode active material and a graphite active material capable of enabling high-speed charging by increasing the interlayer distance are mixed is used as an anode, the high-speed charging performance of a secondary battery can be improved and the capacity thereof can be increased, and a secondary battery that can be mounted on small and medium-sized electronic devices such as portable phones and the like, various electric mobilities including commercial electric vehicles, and energy storage systems (ESS) can be provided.

Abstract: A display device includes a substrate, a plurality of pixel electrodes on the substrate and spaced apart from each other, a plurality of light-emitting elements on the plurality of pixel electrodes, respectively, and a common electrode layer on the plurality of light-emitting elements and to which a common voltage is applied. The plurality of light-emitting elements include a first light-emitting element that is configured to emit first light according to a first driving current and a second light-emitting element that is configured to emit second light according to a second driving current. An active layer of the first light-emitting element is the same as an active layer of the second light-emitting element.

Abstract: The present invention relates to a lithium secondary battery electrolyte and a lithium secondary battery including the same and, more specifically, to a flame retardant or nonflammable lithium secondary battery electrolyte having excellent stability even at a high voltage and a lithium secondary battery including the same.

Abstract: Disclosed is a nonincendive electrolyte for lithium secondary battery, the electrolyte using an organic solvent mixture including a first solvent containing fluorine and sulfur, a second solvent that is a linear carbonate-based compound containing fluorine, a third solvent that is a linear ester-based compound containing fluorine, and a fourth solvent that is a cyclic carbonate-based compound. Thus, the electrolyte is nonflammable or flame-retardant, thereby preventing a lithium secondary battery from catching on fire or exploding. That is, the electrolyte greatly improves the safety of a lithium secondary battery, allows the high voltage charge of a lithium secondary battery, and prevents the degradation of battery performance of a lithium secondary battery. In addition, a lithium secondary battery including the electrolyte is disclosed.

Abstract: The present invention relates to a binder for a lithium secondary battery, an electrode comprising the same, and a lithium secondary battery comprising the electrode. More specifically, the present invention provides a binder for a lithium secondary battery having excellent cycle life and high energy density, an anode for a lithium secondary battery comprising the same, and a lithium secondary battery prepared therefrom.

Abstract: The electrolyte for a lithium secondary battery includes: a lithium salt; a solvent; and a functional additive, wherein the functional additive includes: at least one high-voltage additive selected from a group consisting of lithium bis(phthalato)borate, represented by the following formula 1; hexafluoroglutaric anhydride, represented by the following formula 2; and phosphoric acid tris(2,2,2-trifluoroethyl)ester, represented by the following formula 3:

Abstract: Disclosed are an electrolytic solution for lithium secondary batteries capable of improving lifespan characteristics of a lithium secondary battery under a high voltage condition and a lithium secondary battery including the same. The electrolytic solution includes a lithium salt, a solvent, and a functional additive, and the functional additive includes a high-voltage additive including a first high-voltage additive, perfluoro-15-crown-5-ether, represented by [Formula 1] and a second high-voltage additive, fluoroethylene carbonate, represented by [Formula 2].

Abstract: Disclosed are an electrolytic solution for lithium secondary batteries capable of improving lifespan characteristics of a lithium secondary battery under a high voltage condition and a lithium secondary battery including the same. The electrolytic solution may includes a lithium salt, a solvent, and a functional additive. In particular, the functional additive includes a high-voltage additive including a first high-voltage additive, e.g., hexafluoroglutaric anhydride, and a second high-voltage additive, e.g., fluoroethylene carbonate.

Abstract: Disclosed are an electrolyte solution and an additive thereof, which may improve electrochemical properties of a lithium secondary battery.

Abstract: The electrolyte solution for a lithium secondary battery includes: a lithium salt, a solvent, and a functional additive, wherein the functional additive contains a bis(2,2,2-trifluoroethyl) carbonate, expressed by Formula 1 below:

Abstract: The electrolyte for a lithium secondary battery includes: a lithium salt; a solvent; and a functional additive, wherein the functional additive includes: at least one high-voltage additive selected from a group consisting of lithium bis(phthalato)borate, represented by the following formula 1; hexafluoroglutaric anhydride, represented by the following formula 2; and phosphoric acid tris(2,2,2-trifluoroethyl)ester, represented by the following formula 3:

Abstract: Disclosed is a nonincendive electrolyte for lithium secondary battery, the electrolyte using an organic solvent mixture including a first solvent containing fluorine and sulfur, a second solvent that is a linear carbonate-based compound containing fluorine, a third solvent that is a linear ester-based compound containing fluorine, and a fourth solvent that is a cyclic carbonate-based compound. Thus, the electrolyte is nonflammable or flame-retardant, thereby preventing a lithium secondary battery from catching on fire or exploding. That is, the electrolyte greatly improves the safety of a lithium secondary battery, allows the high voltage charge of a lithium secondary battery, and prevents the degradation of battery performance of a lithium secondary battery. In addition, a lithium secondary battery including the electrolyte is disclosed.

Abstract: An electrolytic solution is disclosed. The electrolytic solution can be used, for example, in a lithium secondary battery.

Abstract: The present invention relates to a lithium secondary battery electrolyte and a lithium secondary battery including the same and, more specifically, to a flame retardant or nonflammable lithium secondary battery electrolyte having excellent stability even at a high voltage and a lithium secondary battery including the same.

Abstract: The present invention relates to a binder for a lithium secondary battery, an electrode comprising the same, and a lithium secondary battery comprising the electrode. More specifically, the present invention provides a binder for a lithium secondary battery having excellent cycle life and high energy density, an anode for a lithium secondary battery comprising the same, and a lithium secondary battery prepared therefrom.

Abstract: Provided is a method for preparing transition metal oxide nanoparticles from a transition metal as a reactant. The method includes dissolving the transition metal into aqueous hydrogen peroxide to provide peroxi-metallate solution, and then adding a reactive solution containing an alcohol, water and an acid thereto to perform hydrothermal reaction. More particularly, the method for preparing transition metal oxide particles includes: dissolving transition metal powder as a reactant into aqueous hydrogen peroxide to provide a peroxi-metallate solution with a molar concentration of transition metal of 0.001-0.2 M; adding a reactive solution containing an alcohol, water and an acid to the peroxi-metallate solution to provide a mixed solution; and subjecting the mixed solution to hydrothermal reaction to provide transition metal oxide nanoparticles.

Abstract: A reactive solution with an amount of 250 mL is made of distilled water and LiOH·H2O (4M) melted in the distilled water. Then, the reactive solution is put in a flow-type reactor, and is flown in between an anode electrode and a cathode electrode set in the flow-type reactor at a given temperature and a given flow rate. Then, a given voltage is applied between the anode electrode and the cathode electrode with dropping an oxidizer of hydrogen peroxide (H2O2) into the reactive solution to form a lithium-cobalt oxide thin film on the anode electrode.

Abstract: A method of creating a ROM soft IP that can be built in a micro controller soft IP and a recording medium having a program for executing the same method are provided. The ROM soft IP capable of being built in the MPU core IP, thereby an IP designer can easily design a ROM built-in MPU soft IP. In addition, a user of the MPU core IP can create the ROM soft IP that ROM program data having a size equal to that of the program can be inserted thereinto.

Abstract: A reactive solution with an amount of 250 mL is made of distilled water and LiOH.H2O (4M) melted in the distilled water. Then, the reactive solution is put in a flow-type reactor, and is flown in between an anode electrode and a cathode electrode set in the flow-type reactor at a given temperature and a given flow rate. Then, a given voltage is applied between the anode electrode and the cathode electrode with dropping an oxidizer of hydrogen peroxide (H2O2) into the reactive solution to form a lithium-cobalt oxide thin film on the anode electrode.