A system including a rendering engine to render a field texture for a field display and a foveal texture for a steerable foveal display and a compositor including a field compositor to generate frames for the field display from the field texture and a foveal compositor to generate frames for the foveal display from the foveal texture. The system further including a composition manager designed to sequence and select what is presented including one or more of data in the field display and the foveal display.

A display control device for a vehicle includes a memory and a processor connected to the memory. The processor is configured to display an object display and a lane display at a display section provided in a cabin of the vehicle. The object display depicts an object located in front of the vehicle, the lane display depicts a lane extending in front of the vehicle, and the object display and lane display are each displayed as a view thereof from the side of the object at which the vehicle is disposed. The processor is also configured to, in accordance with a distance between the object and the vehicle, alter a display ratio of the object display relative to a width of the lane display.

The embodiments of the present disclosure disclose a display screen and a display device. A display screen (10) includes: a display panel (11), a compensation line assembly (12), a signal source circuit (13) and a compensation circuit (14). The display panel (11) includes a display area (111) and a non-display area (112). The compensation line assembly (12) is separately connected to each pixel unit. The signal source circuit (13) is configured to provide a preset driving voltage for each pixel unit. The compensation circuit (14) is configured to detect a real-time driving voltage of each pixel unit, determine a to-be-compensated pixel unit based on the preset driving voltage and the real-time driving voltage, and provide a compensation voltage for the to-be-compensated pixel unit. Therefore, brightness of the different display areas can be uniform, and brightness consistency of the display areas can be further improved.

The present disclosure provides a display device that includes a preprocessor, a controller, and a display panel. The preprocessor includes an area determiner outputting area data, a modulator outputting modulated data, and a synthesizer converting first image data and outputting second image data including the area data and the modulated data.

The present disclosure provides a display device. The display device includes a controller and a display panel displaying an image. The controller includes a detector, a compensator, and a converter. The detector separates image data into first image data corresponding to a first image recognized as a non-afterimage component and second image data corresponding to a second image recognized as an afterimage component using a pre-trained deep neural network. The compensator outputs a compensation signal to control a luminance value of the second image data. The converter converts the first image data to first converted image data and converting the second image data to second converted image data based on the compensation signal.

Provided herein may be a display device. The display device may include a display panel including a plurality of unit blocks disposed in a display area, the plurality of unit blocks including a first area displaying a logo or a banner, a second area having largest load value and a third area disposed between the first area and the second area, a display panel driver configured to generate data voltages based on input image data, and a zonal compensator configured to receive the input image data, to calculate load values of the input image data for the plurality of unit blocks, respectively, and to control luminance of each of the first area and the third area based on a location difference between the first area and the second area and a load value difference between the first area and the second area.

A compensation method of a display device includes: sensing a first luminance of the display device when a first pattern is displayed on the display device; calculating a luminance prediction value corresponding to a second pattern to be displayed on the display device based on the first luminance, where the second pattern is different from the first pattern; sensing a second luminance of the display device when the second pattern is displayed on the display device; adjusting a current flowing in a first power line of the display device until the second luminance reaches the luminance prediction value; and storing compensation data corresponding to an adjusted current in a lookup table when the second luminance reaches the luminance prediction value.

The present disclosure provides a display device and a driving method thereof, which relate to a field of display technology. According to the present disclosure, first image data and second image data are merged by using a graphics processor. The merged image data may be transmitted to a control chip through only one interface. Then the merged image may be split by the control chip to obtain first image data and third image data, which are respectively transmitted to a first driving chip and a second driving chip to drive a first display panel and a second display panel to display, wherein the third image data is at least partially the same as the second image data.

There is provided an information processing system, an information processing method, and a program capable of adaptively controlling a display on a display surface in response to an operation of moving an object in a certain display surface with respect to a transfer object. The information processing system includes a processing unit that performs, on a first display surface, a predetermined display control indicating that one or more pieces of display information in a second display surface corresponding to the first display surface is changed to be operable in the first display surface when a first operation for a first user to move a first object to a detection area having a predetermined positional relationship with one or more predetermined transfer objects positioned in the first display surface, and changes a display state of the second display surface based on a detection result of a second operation by the first user after the first operation.

A projector configured to generate a first image and a second image to be displayed by a projection section, the projection section displaying first pixels constituting the first image and second pixels constituting the second image so that the second pixels are shifted with respect to corresponding ones of the first pixels, includes a filter processing circuit configured to execute a filter process of limiting a frequency band of an image signal of an input image with a one-dimensional filter to generate an intermediate image, an image expanding circuit configured to expand the intermediate image to generate a second expanded image, and an image dividing circuit configured to divide some of second expanded pixels constituting the second expanded image into the first image and the second image.