According to one embodiment, a display device includes a pair of substrates including a display area in which pixels are arranged, pixel electrodes and memories provided in the pixels, signal lines supplied with digital signals, switching elements connecting the memories and the signal lines, scanning lines supplied with scanning signals, a first driver unit, and a second driver unit. The first driver unit is provided in a peripheral area around the display area, and supplies the digital signal to the signal line. The second driver unit is provided in the peripheral area, and supplies the scanning signal to the scanning line. In the display device, at least a part of the first driver unit is provided between the display area and the second driver unit.

One of the objects is to improve display quality by reduction in malfunctions of a circuit. In a driver circuit formed using a plurality of pulse output circuits having first to third transistors and first to fourth signal lines, a first clock signal is supplied to the first signal line; a preceding stage signal is supplied to the second signal line; a second clock signal is supplied to the third signal line; an output signal is output from the fourth signal line. Duty ratios of the first clock signal and the second clock signal are different from each other. A period during which the second clock signal is changed from an L-level signal to an H-level signal after the first clock signal is changed from an H-level signal to an L-level signal is longer than a period during which the preceding stage signal is changed from an L-level signal to an H-level signal.

A special-shaped display screen includes a carrier, and a plurality of pixel point light sources. The plurality of pixel point light sources are provided on the carrier, each of the pixel point light sources is controllable independently, and at least a portion of the pixel point light sources are arranged in a non-matrix array. A special-shaped pixel light includes a special-shaped display screen, a storage unit, and a main control unit. A control method of a special-shaped pixel light includes the following steps: S1, the main control unit establishing a mapping rule according to orientation characteristics of the pixel point light sources; S2, storing the mapping rule into the storage unit; and S3, receiving a control signal and invoking relevant data in the storage unit to scan the pixel point light sources according to the mapping rule.

A display device is provided that includes a display panel including one or more sub-pixels and a gate driving circuit supplying a gate signal to the sub-pixels through gate lines, the gate driving circuit including a gate output buffer circuit including a pull-up transistor that controls a connection between a clock input node and a gate output node, and a pull-down transistor that controls a connection between a low level voltage node and the gate output node, a control circuit capable of controlling the gate output buffer circuit, and a dummy pull-down transistor whose a gate node is shared with a gate node of the pull-down transistor.

A gate driver and a display device including the gate driver are discussed. The gate driver in one example includes a shift register configured to control charging and discharging of a Q node and a QB node, and i output buffers sequentially connected to the shift register, where i is a natural number of at least 2. Each output buffer is configured to output a gate signal to a corresponding gate line in response to a voltage of the Q node and a voltage of the QB node. The gate driver further includes a dummy output buffer connected to the last stage of the shift register and configured to output a dummy signal to a dummy line in response to the voltage of the Q node.

A display apparatus including a display module and a support module configured to support the display module, wherein the support module includes: a fixed frame configured to support the display module and a link structure disposed between the fixed frame and the display module and configured to rotate the display module through at least a six-bar link structure, so that the display module is easily detachably attached to the fixed frame, thereby shortening a time for an operation of replacing, repairing, or installation of the display module.

A vehicular screen central control system includes a processor, an information acquisition module communicatively coupled to the processor, a rotator communicatively coupled to the processor, and a display device coupled to the rotator. The display device includes a first display area and a second display area. The information acquisition module is configured to acquire a light intensity signal received by the display device. The processor is configured to control the display device to display and analyze the light intensity signal to transmit an instruction to the rotator. The rotator adjusts an angle between the first display area and the second display area according to the instruction.

A display device of embodiments of the present disclosure includes: a plurality of display panels each having a display side and a back side opposite to each other; a positioning substrate facing the back side of the display panel; and a plurality of connection structures, each of the plurality of display panels corresponding to at least one connection structure and being fixed on the positioning substrate by bonding through its corresponding connection structure(s); wherein each connection structure includes: a fixing member connected to the back side of the display panel; a first connection member detachably connected to the fixing member; and a second connection member detachably connected to the positioning substrate, and configured to be bonded to the first connection member through a first bonding structure, so that the display panel is fixed on the positioning substrate by bonding.

The present application provides an under-screen camera assembly, including: an organic light-emitting diode display screen, a display area of which includes an under-screen camera area and a non-under-screen camera area; and a camera module, which is arranged locate at a rear end of the under-screen camera area, the camera module includes a lens barrel, a lens group and a photosensitive assembly, wherein the lens barrel includes: a lens group installation section, the lens group being installed on an inner side face of the lens group installation section; and an extension section, which is formed to extend upwards from the top of the lens group installation section, and a top surface of the extension section bearing against a bottom surface of the organic light-emitting diode display screen. The present application further provides a corresponding terminal device. The present application can enable the screen and the camera module to bear against each other by arranging an extension portion at the top of the lens barrel, so that the camera module can accurately align with the under-screen camera area; and the lens group of the same optical design can adapt to multiple models of terminal devices with different sizes.

[Object] Construct a system for freely changing images to be displayed or displaying images at appropriate timing [Solution] Control system for controlling the rotating displays. light emitting elements arranged in a line on a rotating plate. A server stores image data in a storage device and transmits the image data to the rotating displays. The storage device stores user data. user data includes a type of each rotating display held by the user. The user data includes a time schedule for displaying the image data. The server supplies to the terminal device an operation screen for user interface. User interface allows to select the image data and a time schedule for displaying the image data, or allows the user to create displayable image data. The server has a display controller that transmit to the rotating displays the image data, that selected or created by the user and transmit the data indicating the time schedule.