Abstract: A system for creating a broad spectrum lighting apparatus for illuminating a subject. The system includes a lighting panel formed by an array of colored light emitting diodes (LEDs) representing pixels corresponding to red pixels, green pixels, blue pixels, and pixels corresponding to at least color other than red, green or blue. A control interface converts a video signal consisting of red, green, blue (RGB) data into a full spectrum light display including all of the LEDS to create a higher quality white than would have been possible with only RGB LEDs.

Abstract: A method for of encoding an application screen comprises partitioning graphic data into a plurality of graphic layers and classifying each of the plurality of graphic layers as either a screen content (SC) or a non-screen content (non-SC) layer. The method further comprises classifying each of the plurality of graphic layers as either a screen content (SC) or a non-screen content (non-SC) layer. Further, the method comprises rendering and encoding the one or more SC layers using a first codec and the one or more non-SC layers using a second codec.

Abstract: Head-mounted Displays (HMDs) are commonly used for virtual reality, mixed reality, and augmented reality. HMDs are, by definition, worn on the head of a user to provide a display in the line of sight of the user. By viewing the display, the user is able to experience one of the aforementioned types of reality. Oftentimes, HMDs are configured to integrate live video captured from the user's perspective, especially in the case of the HMD providing augmented reality where a virtual environment is combined with video of the real world. The present disclosure provides a configuration for a HMD having an array of image sensors to accurately capture image data to form the live video from the user's perspective.

Abstract: A method for image generation and colorization includes displaying a drawing board interface; obtaining semantic labels of an image to be generated based on user input on the drawing board interface, each semantic label indicating a content of a region in the image to be generated; obtaining a color feature of the image to be generated; and automatically generating the image using a generative adversarial network (GAN) model according to the semantic labels and the color feature. The color feature is a latent vector input to the GAN model.

Abstract: A display screen quality detection method, an apparatus, an electronic device and a storage medium. The method includes receiving a quality detection request sent by a console deployed on a display screen production line, where the quality detection request includes a display screen image captured by an image capturing device on the display screen production line, performing image preprocessing on the display screen image, and inputting the preprocessed display screen image into a defect detection model to obtain a defect detection result, where the defect detection model is obtained by training with a historical defect display screen image using a deep convolutional neural network structure and an instance segmentation algorithm, determining, according to the defect detection result, quality of a display screen corresponding to the display screen image. The technical solution has high defect detection accuracy, good system performance, and high business expansion capability.

Abstract: A color space mapping method includes: confirming data volume of original data, and determining a data extraction ratio according to the data volume; determining a preset order of extracting the original data according to the data extraction ratio; extracting the original data in the preset order, calculating feature data according to the extracted original data, and calculating a feature coefficient according to the original data and the feature data; generating a 3D pixel gray scale table according to the feature coefficient and the feature data; transmitting the 3D pixel gray scale table to a color processing area, to allow a target TV terminal to read a stored data content of the 3D pixel gray scale table for image color mapping; and performing the image color mapping through the 3D pixel scale table. A non-transitory computer readable storage medium and a color space mapping device are further provided.

Abstract: The present disclosure generally relates to creating and editing avatars, and navigating avatar selection interfaces. In some examples, an avatar feature user interface includes a plurality of feature options that can be customized to create an avatar. In some examples, different types of avatars can be managed for use in different applications. In some examples, an interface is provided for navigating types of avatars for an application.

Abstract: Generating, at a server of a generative adversarial network (GAN) for color selection, a training set of color palettes. A color palette generator of the server generates a first set of color palettes based on the training set of color palettes. The first set of color palettes may be compared with a reference set of color palettes to predict a curated set of color palettes. Colors from the curated set of color palettes may be removed that are within a predetermined distance from one another in a color space. The GAN may be validated by performing cluster analysis to determine outlier latent dimensions to be changed for the color selection by the GAN. Proposed color palettes may be generated based on the GAN to be displayed on a display device.

Abstract: In a normal state, a video input interface receives video data. In a setup state, a control input interface receives graphics data for an On Screen Display (OSD) function. In the setup state, an encoder encodes the graphics data, and stores compressed image data S6 thus encoded in memory. In the normal state, a decoder reads one item of the compressed image data from the memory according to an instruction signal, and decodes the compressed image data thus read so as to reproduce the original graphics data. A multiplexer superimposes graphics data on frame data, and outputs the superimposed graphics data.

Abstract: An image reproduction system and methods for providing colorant data to an end device. A method includes extracting general HSV value data for each pixel of an image from image data. For each pixel, the general HSV value data is transformed to generate universal perceived brightness, Bp, and universal perceived-chroma, Cp, value data. End-device colorant data associated with the general HSV value data is retrieved for each pixel and scaled using the Bp and Cp value data to obtain scaled end-device colorant data. The scaled end-device colorant data is transmitted to the end device.

Abstract: An electronic device includes: a display panel and a host. The host is electrically connected to the display panel, and includes a processing unit and a graphics processing unit. The processing unit executes a driver program of the graphics processing unit and a specific program to render a display image of the specific program, wherein the display image includes a user interface. The processing unit obtains position information about a static area of the user interface. In response to the processing unit obtaining the position information about the static area of the user interface, the graphics processing unit performs a burn-in-prevention process on the static area via the driver program to generate an output image, and transmits the output image to the display panel for displaying.

Abstract: A display apparatus includes a display and a processor. The processor is configured to obtain information related to a use environment of the display apparatus, obtain a first image, identify a style among a plurality of styles which are applicable to the first image, based on the information related to the use environment, obtain a second image which is converted from the first image based on information related to the identified style, and control the display to display the second image.

Abstract: Identifying a state of a user (e.g., attentive, distracted, mind wandering, etc.) based on the user's physiological (e.g., pupillary) response to luminance change events in which a portion or all of the content quickly becomes brighter or dimmer.

Abstract: An electronic device may have a display. A protective display cover layer for the display may tend to dim pixels near the edge of the display. Control circuitry in the electronic device may boost luminance for pixels in an edge region of a displayed image relative to a center region of the image. This ensures that image brightness does not vary across the image. The control circuitry may include a graphics processing unit, a pixel pipeline implemented in a system-on-chip circuit block, and a display drive circuit block. Luminance compensation may be implemented in the system-on-chip block and/or in the display driver circuit block.

Abstract: A computing system includes a memory configured to store information regarding a battery. The computing system also includes a processor operatively coupled to the memory. The processor is configured to generate a battery status display that includes one or more relationships between a current battery charge of the battery and a current battery capacity of the battery. The processor is also configured to present the battery status display.

Abstract: A problem to be solved is to identify a person from an image of the visual field of a wearable terminal, and display personal information collected according to the person as augmented reality on a display board of the wearable terminal. Provided is a display system of a wearable terminal that displays personal information about a person on a display board of the wearable terminal, the display system of a wearable terminal including: an image acquisition unit for acquiring an image of a person who enters the visual field of the wearable terminal; an identification unit for identifying the person by performing image parsing on the image; a collection unit for collecting personal information about the person; and a personal information display unit for displaying the personal information about the person seen through the display board as augmented reality on the display board of the wearable terminal.

Abstract: An electronic device includes a display panel that outputs content through a plurality of pixels, a display driver integrated circuit configured to transmit a driving signal for driving the display panel, and a processor configured to transmit image data and/or a control signal to the display driver integrated circuit. In the case where the display driver integrated circuit receives first image data transmitted together with a command of a first command group from the processor, the display driver integrated circuit is configured to store the first image data in a first memory area. In the case where the display driver integrated circuit receives second image data transmitted together with a command of a second command group from the processor, the display driver integrated circuit is configured to store the second image data in a second memory area different from the first memory area.

Abstract: A wearable display system can be capable of determining a user interface (UI) event with respect to a virtual UI device (e.g., a button) and a pointer (e.g., a finger or a stylus) using a neural network. The wearable display system can render a representation of the UI device onto an image of the pointer captured when the virtual UI device is shown to the user and the user uses the pointer to interact with the virtual UI device. The representation of the UI device can include concentric shapes (or shapes with similar or the same centers of gravity) of high contrast. The neural network can be trained using training images with representations of virtual UI devices and pointers.

Abstract: A blended reality user interface and gesture control system includes one or more sensors, a head-mounted display, and a blending engine. The blending engine is configured to receive a live reality and virtual reality feeds, track movement of a user using the sensors, detect a command based on the tracked movement, blend the live and virtual reality feeds into a blended view based on the detected command, and display the blended view on the head-mounted display. In some embodiments, the blending engine is further configured to detect an amount of head tilt of the user and adjust a blending factor controlling an amount of transparency of the live reality feed within the blended view based on the amount of head tilt. In some embodiments, the blending engine is further configured to detect manipulation of a controller by the user and adjust the blending factor based on the detected manipulation.

Abstract: A display apparatus includes a display and a processor. The processor is configured to obtain information related to a use environment of the display apparatus, obtain a first image, identify a style among a plurality of styles which are applicable to the first image, based on the information related to the use environment, obtain a second image which is converted from the first image based on information related to the identified style, and control the display to display the second image.