Abstract:
A thin-film packaging method and an organic light-emitting device are provided. The method includes following steps: forming an OLED layer on a TFT substrate, forming a first inorganic packaging layer on the OLED layer, forming a coupling agent unit on the first inorganic packaging layer, and forming an organic packaging layer on the coupling agent unit. Wherein, the organic packaging layer includes a buffer sublayer and a resist sublayer sequentially formed. The coupling agent unit generates chemical reactions with the first inorganic packaging layer and the buffer sublayer in order to increase an adhesive strength between the first inorganic packaging layer and the organic packaging layer so that they are not easily to be separated, and have a good water and oxygen insulation property.
Abstract:
The TFT array substrate and the manufacturing method thereof are disclosed. The dual-layer structure having the bottom gate electrode, including the metal layer and the transparent metal oxide layer, and the common electrode, including the common electrode, may be formed by the same masking process. In this way, the number of masking processes may be decreased so as to enhance the manufacturing efficiency and the cost.
Abstract:
A seamless splicing multi-panel display device includes a plurality of first liquid crystal panels being spaced apart, at least one second liquid crystal panel between every two the first liquid crystal panels, and a backlight module opposite to the first liquid crystal panel and the second liquid crystal panel. The first liquid crystal panel includes a first display portion and first non-display portions extending from edges of the first display portion. The second liquid crystal panel includes a second display portion and second non-display portions extending from edges of the second display portion. The second non-display portion is fixed on an area between the first display portion and the first non-display portion. In this way, the multi-panel display device realizes the seamless splicing display so as to enhance the display performance.
Abstract:
The present invention discloses a backlight module, which comprises a plastic frame, a backplane, a light guide and an optical film, the backplane comprises a mutually perpendicular vertical plate and horizontal plate, the plastic frame and the light guide are provided inside the backplane, the optical film is close to the upper surface of the plastic frame and the light guide. The present invention further provides a display device, which reduces the size of the plastic frame through pasting the optical film on the upper surface of the plastic frame and the light guide, achieving the ultra-narrow frame design.
Abstract:
A plasma enhanced chemical vapor deposition (PECVD) device includes a deposition box, a first electrode, and a second electrode, where the first electrode and the second electrode are arranged in the deposition box. A process chamber is arranged in the deposition box, a gas line and a pump port are respectively arranged along a first side wall and a second side wall of the deposition box, and a valve is arranged along a third side wall of the deposition box. The first electrode is arranged in an inside of the process chamber, and is connected to a radio frequency (RF) power source. A first end of the first electrode corresponds to the valve and is adjacent to the pump port. The PECVD device further includes an electrode regulating device, the electrode regulating device adjusts an angle between the first electrode and the second electrode to make a plasma airflow between the first electrode and the second electrode be even, which reduces a thickness difference of a film in different areas due to the airflow deflecting to a valve.
Abstract:
The invention provides a display device, which employs ultra-thin flexible substrate with WOA disposed on both sides of the flexible substrate, wherein the WOA on the front side is directly connected to the active area, and the WOA on the back side passes through the holes in the flexible substrate to extend to the front side to connect to the active area. As such, the circuit area utilization is improved so that the same size of substrate area can carry almost twice the circuit structure to reduce the border width of the non-active area to achieve borderless or ultra-narrow borders.
Abstract:
Provided are a scanning driving circuit and a liquid crystal display device. The scanning driving circuit comprises multiple cascaded scanning driving units (1). Each scanning driving unit (1) comprises an input module (100) for outputting a low-level signal and a plurality of driving circuits (200). Each driving circuit (200) corresponding drives one scanning line. Each driving circuit (200) comprises: a control module (210), for outputting a control signal according to the received low-level signal; an output module (220), and a pull-down module (230), for being connected or cut off according to the received control signal; scanning lines (G(N−1), G(N), G(N+1)), for outputting a high-level or low-level scanning driving signal to pixel units. When the output module (220) is cut off, the pull-down module (230) is connected, and the scanning lines (G(N−1), G(N), G(N+1)) output the low-level scan driving signals to the pixel units; and when the output module (220) is connected, the pull-down module (230) is cut off, and the scanning lines (G(N−1), G(N), G (N+1)) output high-level scanning driving signals to the pixel units. Accordingly, a circuit of the liquid crystal display device is simplified, and the space is saved, thereby facilitating the narrow-frame design of the liquid crystal display device.