Abstract:
In an organic light-emitting display panel and an organic light-emitting display device, lighting lines arranged in the organic light-emitting display panel to be used for lighting inspection are connected to portions of power lines arranged in the organic light-emitting display panel, in which a voltage drop occurs. In a display driving period, a voltage the same as a voltage applied to the power lines is applied to the lighting lines. Then, the lighting lines can be used as auxiliary power lines, so that additional lines for compensating for the voltage drop are not required. Power compensation is enabled without increasing the voltage applied to the power lines. The uniformity of images can be improved without increasing power consumption.
Abstract:
Disclosed is a curved cover plate comprising an upper structure, a lateral structure provided at a predetermined angle with respect to the upper structure, and a bending structure formed between the upper structure and the lateral structure and curved with a predetermined curvature, a curved display device using the same, and a method of manufacturing the same, wherein the bending structure, which is curved with the predetermined curvature, is formed between the upper structure and the lateral structure so that it helps to change the curvature of the curved cover plate by changing the curvature of the bending structure, and also enables realization of various shapes of product by adjusting the position of the bending structure.
Abstract:
A light emitting display apparatus, which turns on a first transistor included in a pixel driving unit and connected to a data line during a data period where a data voltage is supplied from a data driver to the data line, is provided. The light emitting display apparatus includes a light emitting display panel including a pixel including a first transistor connected to a gate line and a data line, a gate driver supplying a gate signal to the first transistor, a data driver supplying a data voltage to the data line, and a switching driver connecting the data line to the data driver or connecting a sensing line to the data driver, wherein the gate driver turns on and then turns off the first transistor during a data period where a data voltage is supplied from the data driver to the data line through the switching driver.
Abstract:
A bi-directional shift register can include a plurality of stages, an Nth stage among the plurality of stages including a first switching unit configured to receive a forward driving signal and a reverse driving signal, and control a Q-node; a second switching unit configured to receive an (N+2)th clock signal, and control a QB-node; a third switching unit configured to discharge the QB-node to a low-level voltage when the Q-node is charged to a high-level voltage, and discharge the Q-node to the low-level voltage when the QB-node is charged to the high-level voltage; and an output unit configured to output an Nth clock signal to an output terminal based on a voltage at the Q-node, in which the forward driving signal is an output signal from an (N−1)th stage or a forward start signal from an external source external to the shift register, and the reverse driving signal is an output signal from the (N+1)th stage or a reverse start signal from the external source.