The present disclosure relates to display devices, controllers, and display driving methods, and more specifically, to a display device, a controller, and a display driving method capable of selectively overdriving only a pattern of an image or sub-pixel regarded as a more likely lack of charge. Through this, there is provided an effect of preventing excessive compensation due to unnecessary overdriving.

A captured image acquisition unit acquires a captured image showing work equipment from a camera provided at a work machine. A blade edge shadow generation unit generates a blade edge shadow obtained by projecting a blade edge of the work equipment on a projection surface toward a vertical direction. A display image generation unit generates a display image obtained by superimposing the captured image, the blade edge shadow, and a reference range graphic obtained by projecting the reachable range of the blade edge on the projection surface toward the vertical direction. A display control unit outputs a display signal for displaying the display image.

The present application discloses a display optimization method. The method includes setting a light-emitting substrate including a first plurality of unit regions. Each unit region is associated with a luminance produced by one or more light-emitting diodes. The method further includes determining a sensitive area having a second plurality of unit regions in part of the light-emitting substrate in association with eyeball position of viewer relative to the light-emitting substrate and a non-sensitive area having a plurality of combined-regions in remaining part of the light-emitting substrate. Additionally, the method includes transferring local variables including information about the sensitive area and the combining factor k to a processor. Furthermore, the method includes operating the processor based on the local variables to individually control a first luminance of the one unit region in the sensitive area and to commonly control a second luminance of one combined-region in the non-sensitive area.

Methods and systems for depth-based foveated rendering in the display system are disclosed. The display system may be an augmented reality display system configured to provide virtual content on a plurality of depth planes using different wavefront divergence. Some embodiments include determining a fixation point of a user's eyes. Location information associated with a first virtual object to be presented to the user via a display device is obtained. A resolution-modifying parameter of the first virtual object is obtained. A particular resolution at which to render the first virtual object is identified based on the location information and the resolution-modifying parameter of the first virtual object. The particular resolution is based on a resolution distribution specifying resolutions for corresponding distances from the fixation point. The first virtual object rendered at the identified resolution is presented to the user via the display system.

A method of driving a display panel includes dividing an input image into a plurality of segments, generating a flicker value of a segment of the plurality of segments, determining whether to compensate the flicker value of the segment or not according to a segment size, compensating the flicker value of the segment based on the segment size, determining a frame rate of the display panel based on the flicker value of the segment and outputting a data voltage to the display panel in the frame rate. The flicker value of the segment is compensated based on the flicker value of the segment and flicker values of segments that are adjacent to the segment.

This invention corrects, with consideration to the luminance of a display device, an image artifact related to the luminance or a color that originates from a high-luminance region set as the display target. To achieve this, the invention comprises an obtainment unit which obtains information corresponding to a luminance range which can be displayed by the display device, a derivation unit which derives a correction amount for correcting an artifact of display-target image data based on a maximum luminance value indicated by the obtained information, and a correction unit which corrects the image data based on the derived correction amount and generates display image data.

A display control apparatus includes: a determination unit configured to determine whether each of a plurality of images is an image having a high dynamic range (HDR) or an image having a standard dynamic range (SDR); and a control unit configured to display a list of the plurality of images in a display unit and display an image selected from the list of the plurality of images in the display unit, wherein the control unit is further configured: to display a selected image in the plurality of images using the HDR, in a case where the image having the HDR is selected, and to display the plurality of images in the list uniformly using the HDR or the SDR, in a case where the plurality of images in the list includes both the image having the HDR and the image having the SDR.

Disclosed are an image information processing method, an electronic device and a storage medium. The method includes: acquiring a color gamut space configured for an interface to be displayed; acquiring a color gamut space of a screen; if the color gamut space configured for the interface to be displayed is inconsistent with the color gamut space of the screen, detecting whether a color gamut space conversion condition is satisfied; and if the color gamut space conversion condition is satisfied, converting the color gamut space of the screen to be consistent with the color gamut space configured for the interface to be displayed.

Disclosed are an information display method, a terminal device, and a readable storage medium. The information display method includes: obtaining an information type of each of a plurality of to-be-displayed information; in response to the information type comprising a target information type, obtaining a first refresh frequency of a target to-be-displayed information corresponding to the target information type, and determining a first display frequency of a display screen according to the first refresh frequency; and displaying the plurality of to-be-displayed information according to the first display frequency.

A system and method for optimizing a display layout of multiple video streams at a sink device is provided. The display layout of multiple streams may be dynamically optimized based on a number of different variables, including characteristics of the sink device, total number of active incoming streams, active audio, and other characteristics of the source material or device. The source of an incoming media stream may contain useful characteristics for optimizing the display layout of multiple media streams. One such characteristic of a source device may include the device type, such as laptop, PC, phone, or tablet. Information may be extracted from each incoming stream in order to predict a source device type from which the incoming media stream originates.