Abstract:
Two contact holes are formed through an insulating layer at its portion corresponding to a drain of a switching thin film transistor and a height of a wall portion between the two contact holes is selected to be smaller than that of a surrounding insulating layer, whereby the transparent electrode is connected to the drain via the two contact holes with excellent coverage. Thus, a connection between the switching transistor and the transparent pixel electrode in the liquid crystal display device can be effected with improved reliability.
Abstract:
The display device may include a display panel and a frame diposed on a rear surface of the display panel. The display device also includes a plurality of binders fixed to the rear surface of the display panel and disposed between the display panel and the frame, and a plurality of coupling members penetrating through the frame and coupled to the plurality of binders. Therefore, the flatness of the display panel attached to the plurality of binders may be improved by adjusting the locations of the frame and the plurality of binders. Also, the display panel and the frame may be easily attached and detached using the plurality of binders and the plurality of coupling members.
Abstract:
The present disclosure provides a light-on detection device and a light-on detection method. The light-on detection device includes a substrate, and a probe block provided with probes and connected to the substrate. The light-on detection device further includes a flattening element configured to apply a force onto a surface of the display panel so as to change the surface of the display panel from a first shape having a first height difference to a second shape having a second height difference less than the first height difference, thereby to enable the probes to perform the light-on detection on the display panel with the second shape.
Abstract:
An integrated circuit is configured for optical communication via an optical polymer stack located on top of the integrated circuit. The optical polymer stack may include one or more electro-optic polymer devices including an electro-optic polymer. The electro-optic polymer may include a host polymer and a second order nonlinear chromomophore, the host polymer and the chromophore both including aryl groups configured to interact with one another to provide enhanced thermal and/or temporal stability.
Abstract:
The present disclosure provides a light-on detection device and a light-on detection method. The light-on detection device includes a substrate, and a probe block provided with probes and connected to the substrate. The light-on detection device further includes a flattening element configured to apply a force onto a surface of the display panel so as to change the surface of the display panel from a first shape having a first height difference to a second shape having a second height difference less than the first height difference, thereby to enable the probes to perform the light-on detection on the display panel with the second shape.
Abstract:
A display apparatus includes a substrate including a display area, an encapsulation member facing the substrate, a pad unit around the display area of the substrate, the pad unit including a contact area and an exposure area that is spaced apart from the contact area, and a flexible printed circuit (FPC) that is connected to the contact area of the pad unit and is curved towards the encapsulation member.
Abstract:
In a display region, pixel electrodes are arranged with a predetermined pitch in a matrix. Dummy pixel electrodes provided in a dummy display region surrounding the display region are formed from the same layer as the pixel electrodes, and are arranged in an island shape so as to have the same size and pitch as the pixel electrodes. The dummy pixel electrodes are connected to each other via a wire positioned under the pixel electrodes.
Abstract:
An array substrate, which is formed with a gate electrode (2), a source electrode (5), a drain electrode (6), a gate insulating layer (3), an active layer (4) and a passivation layer (9) in a thin film transistor region, and with the gate insulating layer (3), a pixel electrode (7), the passivation layer (9) and a common electrode (8) in a pixel electrode pattern region, and a color resin layer (11) is formed between the passivation layer (9) and the common electrode (8). Since the color resin layer (11) for planarization is formed on the passivation layer (9), the horizontal driving manner may be suitably applied in order to reduce light leakage, to improve contrast ratio and aperture ratio of a panel and to lower production costs.
Abstract:
A thin film transistor array substrate and a fabricating method are disclosed. A gate line and a data line cross each other and a thin film transistor (TFT) is provided at the intersection between the gate and data lines. A protective film covers the data line and the thin film transistor and has a contact hole exposing a drain electrode of the TFT. A pixel electrode is connected, via the contact hole, to the drain electrode of the TFT. A storage capacitor includes a gate insulating film between the pixel electrode and the gate line and/or a common line. Some or all of the protective film within the storage capacitor is removed such that the storage capacitor contains no protective film or a layer of protective film that is thinner than the portion covering the TFT.
Abstract:
A liquid crystal display (LCD) device is provided. The LCD includes first and second substrates facing each other; a plurality of protrusions formed on the first substrate; a plurality of column spacers formed on the second substrate to correspond to the protrusions; and a liquid crystal disposed between the first and second substrates. The plurality of column spacers have a contact density with the protrusions in the range of 170 ppm or less with respect to a surface area of the first substrate.