Provided is a color adjustment method for a display apparatus. The color adjustment method includes: measuring first luminance coordinate data indicating a luminance and color coordinates of a color displayed on a display device when image data corresponding to a white point is supplied to a drive circuitry; measuring second luminance coordinate data indicating luminances and color coordinates of colors displayed on the display device when image data corresponding to the white color of intermediate grayscale values are supplied to the drive circuitry; measuring third luminance coordinate data indicating a luminance and color coordinates of a color displayed on the display device for each of R, G and B elementary color points when image data corresponding to each of the R, G and B elementary color points is supplied to the drive circuitry; and calculating correction parameters based on the first to third luminance coordinate data.

The present invention provides a liquid crystal display device capable of suppressing a decrease in display quality when pause drive is performed in an alternating-voltage drive mode, as well as a method for driving the same. In a first drive frame, overshoot drive is performed using correction values provided by an LUT to apply overshoot voltages whose absolute values are higher than absolute values of signal voltages to data signal lines. Subsequently, in a second drive frame, normal drive is performed to write signal voltages of the same polarity as the overshoot drive voltages to the data signal lines. Thereafter, a pause period in which an image written by normal drive is displayed continues until the start of a drive period in the next pause drive period. As a result, a decrease in luminance immediately after the signal voltages are written during the second drive frame is suppressed significantly, so that the viewer barely recognizes flicker.

Transitions between monitor configurations may be streamlined by minimizing the tearing down and recreating of render targets and primary frame buffers associated with the monitors. In at least one example, the techniques described herein include identifying at least one render target in a first monitor configuration that is also in a second monitor configuration. In response to identifying the at least one render target in the first monitor configuration that is also in the second monitor configuration, the techniques herein describe maintaining the at least one render target during a transition between the first monitor configuration to second monitor configuration.

A display apparatus according to the present invention includes: N driver ICs (first to third driver ICs); N or more bidirectional memories (first to third bidirectional memories) that simultaneously allow data writing and data reading; a phase locked loop that converts an input clock to an output clock; a write controller that writes data to the plurality of bidirectional memories in synchronization with the input clock; and a read controller that reads the data from the plurality of bidirectional memories and causes the data to be output to the plurality of driver ICs in synchronization with the output clock. A frequency of the output clock is smaller than a frequency of the input clock and is larger than 1/N times the frequency of the input clock.

An electronic device is provided. The electronic device includes at least one memory storing instructions, a display, and at least one processor. The at least one processor is, when executing the instructions, configured to display a first screen in a first region using the display, while displaying the first screen in the first region, receive a specified input, and in response to receiving the specified input, display at least a portion of the first screen in a first sub region included in the first region and display a second screen and a third screen in a second sub region, which is included in the first region, is disposed beside the first sub region, and has an area smaller than the area of the first sub region.

A method for storing data of an image frame into a frame buffer includes at least the following steps: dividing the image frame into a plurality of access units, each having at least one encoding unit, wherein each encoding unit is a unit for data compression; and performing the data compression upon each encoding unit of the image frame, and generating an output bitstream to the frame buffer based on a data compression result of the encoding unit. A processing result of each access unit includes each output bitstream of the at least one encoding unit included in the access unit; a plurality of processing results of the access units are stored in a plurality of storage spaces allocated in the frame buffer, respectively; and a size of each of the storage spaces is equal to a size of a corresponding access unit.

The present invention discloses a Mura offset data input device, including a Mura offset chip, a first memory unit, a second memory unit, a connector and a control circuit, the Mura offset chip is connected to the first memory unit, the second memory unit and the connector, the connector and the first memory unit are connected, the connector and the second memory unit are connected by the control circuit, the first memory unit and the second memory unit both include two operative modes—an editable mode and a read-only mode, the control circuit is applied to control the first memory unit and the second memory unit that are in different modes, the connector is applied to transfer first data to the first memory unit when the first memory unit is editable, and transfer second data to the second memory unit by the Mura offset chip.

Interactive display system and method are provided, and the interactive display system includes a head-mounted display and an electronic device. The head-mounted display is configured to be worn by a user. The electronic device generates a previous frame and frame pixel depth information and transmits the previous frame and the frame pixel depth information to the head-mounted display so that the head-mounted display displays the previous frame. The head-mounted display generates current state information in response to a motion of the user and generates a current frame according to the current state information, the previous frame and the frame pixel depth information. The head-mounted display displays the current frame.

A display apparatus includes a pixel array, an optical modulator, a controller, and at least one memory device storing a frame memory. The optical modulator modulates the light emitted from the pixel array to corresponding angles. The controller generates images of a scene with different lighting profiles corresponding to different viewing angles according to information stored in the frame memory. The frame memory stores color information and material information of objects in the scene. The display apparatus displays the images through the first pixel array at the same time.

When rendering a frame, e.g. that is to be used for rendering subsequent frames to be rendered, two versions of the frame are rendered, and sets of information representative of the content of the versions of the frame are compared to determine whether the first and second versions of the frame match or not. When the comparison determines that the two versions of the frame match, the frame is, e.g. used for rendering subsequent frames, but when the comparison determines that the two versions of the frame do not match, an error operation is performed.