A novel display system and a moving object are provided. The display system includes a display panel and a display driver. The display panel has a curved shape. The display panel includes a first display region and a second display region on the curved surface. The display driver generates first analog data by a first clock signal and first digital data and generates second analog data by a second clock signal and second digital data. An image can be displayed in accordance with the curved shape of the display panel by transmitting the first analog data to the first display region and transmitting the second analog data to the second display region.

An application engine renders an image based on image data from a content source. A display engine displays the image to a user. The image is adjustable from a first size to a second size. A detection system detects the size adjustment. An application executes a clarification routine to maintain sharpness of the image.

A display panel includes a first set of pixels that each include a respective red sub-pixel and a respective green sub-pixel and a second set of pixels that each include a respective blue sub-pixel and a respective green sub-pixel, where the first set of pixels and the second set of pixels are arranged on the display panel such that at least one side of each of the pixels in the first set of pixels is adjacent to at least one of the pixels in the second set of pixels, at least one side of each of the pixels in the first set of pixels is not adjacent to any pixel, and the green sub-pixels are arranged on the display panel such that the green sub-pixels are evenly distributed in the display panel.

Disclosed are an image display method applied to a splice display screen included by splicing multiple screen bodies along a first direction, and a video processing device. The image display method may include: an output size in the first direction, of the splice display screen is determined according to resolutions and dot spacings in the first direction, of the multiple screen bodies; an input size in the first direction, of an input source is determined according to a resolution in the first direction, of the input source; an image scaling ratio in the first direction of the splice display screen is determined according to the input size and the output size; and display control parameters in the first direction, of the each screen body are determined according to the image scaling ratio.

Techniques for implementing and/or operating an electronic device that includes a display panel, which displays an image and includes a first panel section implemented with a lower pixel resolution and a second panel section implemented with a higher pixel resolution, an optical sensor disposed behind the first panel section of the display panel, and image processing circuitry communicatively coupled to the display panel. The image processing circuitry receives source image data corresponding with the image, in which the source image data is indicative of target luminance of a display pixel, determines a pixel resolution surrounding the display pixel, processes the source image based at least in part on the pixel resolution surrounding the display pixel to facilitate determining display image data corresponding with the display pixel, and outputs the display image data to enable the display panel to display the image based on the display image data.

An electronic device, according to various embodiments of the present invention, comprises: a display comprising a first region exposed on the front surface of the electronic device and a second region accommodated within the electronic device or exposed to the exterior of the electronic device; at least one sensor for detecting a change in the display structure of the display; at least one display processor for controlling the driving of the display; and a main processor, wherein the main processor identifies a display area in which image data is to be displayed on the display, according to the change in the display structure of the display on the basis of sensing information transmitted from the at least one sensor, determines a frame rate of the at least one display processor on the basis of the change in the display area, and drives the display at the determined frame rate.

Various display control methods and apparatuses are provided. A method comprises inclining at least one lens relative to an initial optical axis thereof to change a ratio of pixels distributed along two directions in each effective display region of the at least one display unit corresponding to the at least one lens in a display system, wherein light emitted by each pixel in the effective display region of each display unit in the at least one display unit is transmitted to a visual angle range by a lens corresponding to the display unit in the display system, and the two directions comprise a first direction and a second direction parallel with the display unit and orthogonal with each other; and displaying a content to be displayed by the changed display system. Accordingly, differentiated display of visual angle information of two mutually orthogonal different directions can be realized.

Image processing in accordance with the shape of a display device is performed at high speed with low power consumption, without the use of a large frame memory or a high-throughput GPU. Used is a data conversion circuit including: a latch circuit that takes in data from input data in synchronization with a writing clock signal and stores the data as writing data; a memory circuit that stores the writing data and outputs the writing data to an external circuit as readout data in synchronization with a readout clock signal; and a clock selection control circuit. The writing clock signal is one of a plurality of clock signals with different frequencies and is output in accordance with control by the clock selection control circuit.

The present invention provides a method of driving a display panel and a driving device. The present invention determines sub-pixels shared by sub-pixel rendering technology through comparing differences of the color components, and the sub-pixels shared by the display image are not fixed. Since the sub-pixels with the smallest absolute value of the color component difference are selected for sharing, a contrast of an edge region of an image is improved, and distortion of an edge region of an image is reduced.

Scalable displaying for a mobile device is provided, including receiving an instruction to scale a display of the mobile device, and scaling the display on a screen of the mobile device in response to the instruction. The scalable displaying for the mobile device can be provided by activating only a portion of the screen of the mobile device for use as a display, such that an overall power consumed by the screen is reduced.