Abstract: Provided are a binder composition for a secondary battery electrode, and an electrode mixture including the same, and more particularly, a binder composition for a secondary battery electrode capable of providing excellent binding strength for an active material and an electrode while having excellent latex stability, thereby improving performance of a secondary battery, and an electrode mixture including the same.

Abstract: A light emitting display device includes a first light emitting electrode positioned on a substrate; a pixel defining film including a groove and an opening exposing a portion of the first light emitting electrode; a separator positioned within the groove of the pixel defining film and including a side wall having a reverse tapered structure; a light emitting layer positioned in the opening of the pixel defining film; and a second light emitting electrode separated by the separator.

Abstract: A light emitting display device includes: a first light emitting electrode; a pixel definition layer including a light-emitting element opening exposing a part of the first light emitting electrode and including a separator; an emission layer in the light-emitting element opening; a second light emitting electrode divided by a separator; and an auxiliary insulating layer between the first light emitting electrode and the pixel definition layer and in contact with the first light emitting electrode and the pixel definition layer, wherein the separator is formed of an opening in the pixel definition layer, and an under-cut is formed under the opening in the separator.

Abstract: A display device includes a base layer; a first pattern disposed on the base layer; an insulating layer disposed on the first pattern and including layers; and a second pattern disposed on the insulating layer. At least two of the layers of the insulating layer include a same material.

Abstract: Proposed is a method of selectively leaching lithium (Li) and aluminum (Al) from a mixed carbonate precipitate (MCP) and, more specifically, a method of selectively leaching Li and Al from an MCP, by which a high-purity MCP can be prepared through selective leaching of Li and Al contained in an MCP used as a raw material for recovering valuable metals including nickel (Ni), cobalt (Co), and manganese (Mn).

Abstract: A display device includes a pixel circuit on a substrate and including a transistor, a first pixel electrode on the pixel circuit and electrically connected to the pixel circuit, a bank on the first pixel electrode and including first, second, third, and fourth open parts, a first contact electrode on the bank and the first and second open parts and in contact with the first pixel electrode through the first open part, a second pixel electrode overlapping the second and third open parts, the second pixel electrode and the first pixel electrode formed as a same layer, a second contact electrode on the bank and the third and fourth open parts and in contact with the second pixel electrode through the third open part, and a common pixel electrode overlapping the fourth open part, the common pixel electrode and the second pixel electrode formed as a same layer.

Abstract: A display device includes a substrate, a first semiconductor layer, and including first and second transistors, first and second gate conductive layers above the first semiconductor layer, a second semiconductor layer above the second gate conductive layer, and including a third transistor, a third gate conductive layer above the second semiconductor layer, an insulating film defining a valley surrounding the first semiconductor layer, the first gate conductive layer, the second gate conductive layer, the second semiconductor layer, and the third gate conductive layer, a connection metal conductive layer above the insulating film, and including a first connection electrode electrically connecting the first and third transistors, the first connection electrode including a (1-1)-th region overlapping the first transistor, and a (1-2)-th region and a (1-3)-th region overlapping the third transistor and connected to the third transistor, and first and second data conductive layers above the connection metal condu

Abstract: A display device includes a pixel circuit layer including a base layer and a pixel circuit on the base layer; and a light emitting element layer disposed on the pixel circuit layer, the light emitting element layer including a light emitting element. The pixel circuit layer includes a lower auxiliary electrode layer; an active layer; and an interlayer conductive layer. The pixel circuit includes a driving transistor. The lower auxiliary electrode layer forms a first overlapped lower layer and a second overlapped lower layer. The interlayer conductive layer forms a gate electrode of the driving transistor. The first overlapped lower layer overlaps the gate electrode in a plan view. The second overlapped lower layer is electrically disconnected from the first overlapped lower layer.

Abstract: A display device includes a display area and a non-display area adjacent to the display area; a first scan line that extends in a row direction and transmits a first scan signal; a first pixel part electrically connected to the first scan line; a second pixel part electrically connected to the first scan line and spaced apart from the first pixel part in the row direction; and a first inspection pad disposed between the first pixel part and the second pixel part and electrically connected to the first scan line.

Abstract: A display device may include pixels disposed on a substrate. Each of the pixels may include a first conductive layer including first, second, and third conductive patterns, first and second insulating layers that are stacked on each other on the first conductive layer, a second conductive layer including a first power line, a second power line, and a connection pattern, third and fourth insulating layers that are stacked on each other on the second conductive layer, a third conductive layer including first alignment electrodes and second alignment electrodes, and a light emitting element disposed on the first and second alignment electrodes. At least one of the first alignment electrodes may be electrically connected to at least one of the first, second, and third conductive patterns.

Abstract: A display device includes first and second pixels including first to third sub-pixels. Each of the first to third sub-pixels includes a first area disposed at a side of a pixel circuit, a second area disposed on another side of the pixel circuit, light emitting elements electrically connected to the pixel circuit, and an electrode electrically connecting the light emitting elements and the pixel circuit. The electrode of the first sub-pixel of the first pixel includes a first extension electrically connected to the pixel circuit in the first area and overlapping the second area in plan view, and the electrode of the first sub-pixel of the second pixel includes a second extension electrically connected to the pixel circuit in the second area and overlapping the first area in plan view.

Abstract: A display device includes pixels disposed on a base layer, each of the pixels including electrodes and a light emitting element disposed on the electrodes, and scan lines that supply a scan signal to the pixels. The pixels include a first pixel and a second pixel disposed adjacent to the first pixel. The scan lines include a first pixel scan line that supplies a first scan signal to the first pixel, and a second pixel scan line that supplies a second scan signal to the second pixel. The electrodes include a first electrode and a second electrode, which are spaced from each other. The second pixel scan line is electrically connected to a second electrode of the first pixel.

Abstract: A display device includes a display area including pixels, a non-display area adjacent to the display area, and a display driver electrically connected to the non-display area. The display area includes a data line that supplies a data voltage received from the display driver to the pixel, the data line extending in a first direction, a gate input line electrically connected to the display driver and extending in the first direction, a gate driver electrically connected to the gate input line, and a gate line electrically connected to the gate driver and extending in a second direction intersecting the first direction.

Abstract: A fluid supply device and a wafer cleaning apparatus using the same are proposed. The fluid supply device is improved to minimize occurrence of particles generated in an operational process in order to reduce contamination of a wafer. The fluid supply device includes a supply tube connected to a supply tank storing a liquid chemical and a supply valve, a drain tube connected to the supply tube by a branch tube and a drain valve, a fluid tank, a provision tube connected to the supply tube via the branch tube to provide the liquid chemical into the fluid tank, a supply valve, a tank drain tube connected to the fluid tank to drain a liquid chemical in the fluid tank, and a tank drain valve, and a controller configured to control opening and closing of each of the valves and supply of the liquid chemical supplying through the supply tube.

Abstract: A chemical liquid supply unit and a substrate processing apparatus including the same are proposed, which is capable of efficiently removing contaminants in a chemical liquid.

Abstract: A substrate processing apparatus includes a support unit; a first nozzle for discharging a first rinse solution to a first area of the substrate; and a second nozzle for discharging a second rinse solution to a second area of the substrate, wherein the first nozzle discharges the first rinse solution to a first area during a first period so that the first area and the second area of the substrate are wetted by the first rinse solution, and some area of the substrate is not wetted by the first rinse solution, wherein the first nozzle discharges the first rinse solution to the first area and the second nozzle discharges the second rinse solution to the second area in a second period directly connected to the first period so that an entire upper surface of the substrate is wetted by the first rinse solution and the second rinse solution.

Abstract: An apparatus and method for treating a substrate that implement a recipe capable of increasing an absorption amount of metal ions to the substrate are provided. The method for treating the substrate includes: ejecting a substrate treating liquid onto the substrate; rotating the substrate at a first low-speed; and when the ejecting of the substrate treating liquid has been finished, drying the substrate.

Abstract: A substrate processing apparatus includes a support unit; a first nozzle for discharging a first rinse solution to a first area of the substrate; and a second nozzle for discharging a second rinse solution to a second area of the substrate, wherein the first nozzle discharges the first rinse solution to a first area during a first period so that the first area and the second area of the substrate are wetted by the first rinse solution, and some area of the substrate is not wetted by the first rinse solution, wherein the first nozzle discharges the first rinse solution to the first area and the second nozzle discharges the second rinse solution to the second area in a second period directly connected to the first period so that an entire upper surface of the substrate is wetted by the first rinse solution and the second rinse solution.

Abstract: A variable resistance memory device includes vertical electrodes vertically projecting from a substrate, first horizontal electrodes stacked along the vertical electrodes, second horizontal electrodes stacked along the vertical electrodes, and a variable resistance layer interposed between the vertical electrodes and the first and second horizontal electrodes, wherein the first and second horizontal electrodes are arranged in directions crossing with each other.

Abstract: A variable resistance memory device includes vertical electrodes vertically projecting from a substrate, first horizontal electrodes stacked along the vertical electrodes, second horizontal electrodes stacked along the vertical electrodes, and a variable resistance layer interposed between the vertical electrodes and the first and second horizontal electrodes, wherein the first and second horizontal electrodes are arranged in directions crossing with each other.