Abstract: The present specification relates to a display device including: a liquid crystal panel; and a backlight unit, in which the backlight unit includes one or more color conversion films, the liquid crystal panel or backlight unit includes a light absorption layer, and the color conversion film includes, during light irradiation, a first light emission peak in which a light emission peak having the largest height within a wavelength range of 500 nm to 560 nm is present within 520 nm to 535 nm and a full width at half maximum of the light emission peak is 50 nm or less and a second light emission peak in which a light emission peak having the largest height within a wavelength range of 600 nm to 780 nm is present within 625 nm to 640 nm and a full width at half maximum of the light emission peak is 60 nm or less.

Abstract: The present specification relates to a color conversion film comprising a color conversion functional layer including a microcapsule phase change material, and a backlight unit and a display apparatus including the same.

Abstract: The present specification relates to a compound, and a color conversion film, a backlight unit and a display apparatus including the same.

Abstract: The present specification relates to a color conversion film, and a backlight unit and a display device, including the same.

Abstract: The present specification relates to a color conversion film comprising a color conversion functional layer including a phase change material, and a backlight unit and a display apparatus including the color conversion film.

Abstract: A color conversion film having: a substrate film; and a color conversion functional layer including a solid phase change material; and a backlight unit and a display apparatus including the color conversion film.

Abstract: The present specification relates to a color conversion film, and a backlight unit and a display device, including the same.

Abstract: A color conversion film having: a substrate film, a color conversion layer provided on the substrate film and a phase transformation adhesive layer including an adhesive resin matrix and a phase change material, and a backlight unit and a display apparatus including the color conversion film.

Abstract: The present specification relates to a color conversion film comprising a color conversion functional layer including a microcapsule phase change material, and a backlight unit and a display apparatus including the same.

Abstract: A color conversion film having: a substrate film, a color conversion layer provided on the substrate film and a phase transformation adhesive layer including an adhesive resin matrix and a phase change material, and a backlight unit and a display apparatus including the color conversion film.

Abstract: A color conversion film having: a substrate film; and a color conversion functional layer including a solid phase change material; and a backlight unit and a display apparatus including the color conversion film.

Abstract: The present disclosure provides a color conversion film, and a backlight unit and a display device comprising the color conversion film.

Abstract: The present specification relates to a compound, and a color conversion film, a backlight unit and a display apparatus including the same.

Abstract: The present specification relates to a display device including: a liquid crystal panel; and a backlight unit, in which the backlight unit includes one or more color conversion films, the liquid crystal panel or backlight unit includes a light absorption layer, and the color conversion film includes, during light irradiation, a first light emission peak in which a light emission peak having the largest height within a wavelength range of 500 nm to 560 nm is present within 520 nm to 535 nm and a full width at half maximum of the light emission peak is 50 nm or less and a second light emission peak in which a light emission peak having the largest height within a wavelength range of 600 nm to 780 nm is present within 625 nm to 640 nm and a full width at half maximum of the light emission peak is 60 nm or less.

Abstract: Disclosed is a method of fabricating a metal nanowire pattern. The method of fabricating the metal nanowire pattern is characterized by, using an organic nanowire, which is fabricated by means of an electric field auxiliary robotic nozzle printer, as a template, forming a metal nanowire into a desired shape by plating a metal layer on the organic nanowire. Therefore, various metal nanowire patterns can be formed in a large area and applied to electrodes or electronic devices.

Abstract: A method for forming an aligned oxide semiconductor wire pattern includes: dissolving an oxide semiconductor precursor and an organic polymer in distilled water or an organic solvent to provide a composite solution of an oxide semiconductor precursor/organic polymer; continuously discharging the composite solution of the oxide semiconductor precursor/organic polymer in a vertical upper direction from a substrate to align an oxide semiconductor precursor/organic polymer composite wire on the substrate; and heating the oxide semiconductor precursor/organic polymer composite wire to remove the organic polymer and converting the oxide semiconductor precursor into an oxide semiconductor to form an aligned oxide semiconductor wire pattern.

Abstract: Disclosed is that a method of manufacturing horizontally aligned single crystalline inorganic nanowire patterns, including mixing an inorganic precursor and an organic polymer in water or an organic solvent to prepare an inorganic-polymer liquid, forming inorganic precursor/organic polymer composite nanowire patterns aligned on a substrate using the inorganic-polymer liquid, and irradiating eximer laser along the aligned inorganic precursor/organic polymer composite nanowire patterns.

Abstract: Disclosed is that a method of manufacturing horizontally aligned single crystalline inorganic nanowire patterns, including mixing an inorganic precursor and an organic polymer in water or an organic solvent to prepare an inorganic-polymer liquid, forming inorganic precursor/organic polymer composite nanowire patterns aligned on a substrate using the inorganic-polymer liquid, and irradiating eximer laser along the aligned inorganic precursor/organic polymer composite nanowire patterns.

Abstract: Provided is a method of forming a micropattern according to an aspect of the present invention. The method of forming a micropattern may include forming an organic wire or organic-inorganic hybrid wire mask pattern having a circular or elliptical cross section on a substrate, forming a material layer on an entire surface of the substrate having the organic wire or organic-inorganic hybrid wire mask pattern formed thereon, and removing the organic wire or organic-inorganic hybrid wire mask pattern from the substrate to allow only the material layer on a portion of the substrate having no organic wire or organic-inorganic hybrid wire mask pattern formed thereon to be remained.

Abstract: Provided according to an aspect of the present disclosure is an electric field aided robotic nozzle printer including a solution storage apparatus for supplying a discharging solution; a nozzle for discharging the discharging solution supplied by the solution storage apparatus; a voltage applying apparatus for applying high voltage onto the nozzle; a flat and movable collector, in which organic wires formed after discharge from the nozzle are aligned; a robot stage, which is installed below the collector and enables to move the collector in an x-y direction (horizontal direction) within a horizontal plane; a micro distance controller for regulating the distance between the nozzle and the collector in a Z direction (vertical direction); and a base plate, which is installed below the robot stage, for maintaining flatness of the collector and preventing vibration generated during the operation of the robot stage.