Abstract: A floated button and a vehicle screen assembly are provided. The vehicle screen assembly includes a display and the floated button. The floated button includes an adapter board electrically connect to a controller and a power source of the vehicle screen assembly through signal cables; a fixed base includes a receiving space, the adapter board is received in the receiving space, and the fixed base is connected to a rotation motor holder of the vehicle screen assembly; a button supporter arranged on the fixed base; and a button module arranged on the button supporter and floated on a side of the display. The button module includes a plurality of buttons arranged along a broadside extending direction. The buttons are electrically connected to the adapter board, and each of the buttons is configured to transmit corresponding button data to the controller through the adapter board when the button is triggered.

Abstract: An electronic device is provided. The electronic device includes a communication module, a first ultra-wideband (UWB) module, a second UWB module, and a processor operatively connected to the communication module, the first UWB module, and the second UWB module, wherein the processor is configured to determine a direction of a user's gaze, based on data acquired from the first UWB module and data acquired from the second UWB module, select at least one external electronic device positioned in the gaze direction, and send, through the communication module, a request to the selected external electronic device to output media.

Abstract: The present invention provides an operating method of a display device. An example operating method includes driving each pixel for each frame, wherein a plurality of pixels of the display device are disposed in an array of rows and columns, a period of one frame comprises one or more data sections and one or more off-sections, ratios of time length of the one or more data sections are substantially the same as a sequence of powers of 2, each of the one or more data sections corresponds to an ON period or an OFF period related to a specified brightness, grey scale color, or luminance, and each of the one or more off-sections corresponds to the OFF period unrelated to the specified brightness, grey scale color, or luminance.

Abstract: A visor for a military, combat or specialist services helmet with a heads up display function wherein positions of all wearers during operations can be visualized in real time. The invention is directed to live streaming of troop and specialist service personnel positions which are digitized and represented as two dimensional moving icons projected on the heads up display. Its objective is particularly directed to the purposes of rapid location and efficient search and rescue of injured and/or isolated soldiers or personnel.

Abstract: A control method for a data driver, a control method for a timing controller, a data driver control apparatus, a timing controller, an electronic device, and a storage medium are provided. The control method for the data driver includes: obtaining a data comparison signal, where the data comparison signal represents a comparison relationship between first display data for enabling a first pixel row to display and second display data for enabling a second pixel row to display, and in time, the second pixel row is driven to display after the first pixel row is driven to display; and controlling an operation state of the data driver according to the data comparison signal.

Abstract: Display units with automated power governing features and related systems and methods are disclosed. A control subsystem is in electronic communication with a power subsystem electrically connected to an electronic display, temperature sensors, and a thermal management subsystem for the display unit. The control subsystem includes at least one governor which monitors external power supply and internal power demand, and where either of the external power supply or internal demand exceeds respective predetermined thresholds, commands reduction to power levels of the electronic display.

Abstract: A display panel (20), a display device and a debugging method thereof are provided. The display panel (20) includes: a base substrate (1), including a display region (A) and a non-display region (B) surrounding the display region (A), the non-display region (B) including a binding region (C) located on one side of the display region (A); and a plurality of sub-pixels (2), located in the display region (A). Areas of pixel aperture regions of the plurality of sub-pixels (2) tend to increase in a direction from the binding region (C) to the display region (A).

Abstract: A control device generates a first image in which, together with an object in the real world appearing in an image captured by a camera of a robot, a virtual object appears and which presents an exterior appearance of the virtual object while the position of the camera of the robot is set as a view-point. An HMD displays the first image generated by the control device. In a case in which the position of the HMD in the height direction changes, the control device generates a second image from which the object in the real world is deleted and which presents the exterior appearance of the virtual object viewed from a new view-point according to the change in the position of the HMD in the height direction. The HMD displays the second image in place of the first image.

Abstract: Provided are a frame rate setting method, apparatus, storage medium, and mobile terminal; The frame rate setting method is applied to a mobile device, and comprises: when a wake-up instruction carrying a frame rate refresh signal is received and said frame rate refresh signal is not a preset low-power signal, then setting a display frame rate of a mobile device according to a list of applications for which the frame rate is to be refreshed.

Abstract: The present disclosure relates to a screen projection method. In the method, an electronic device displays M application interfaces on a display of the electronic device, where M is an integer greater than 1. The electronic device receives a first selection operation, and determines N application interfaces based on the first selection operation, where the first selection operation is performed on the electronic device to determine the N application interfaces from the M application interfaces, and N is a positive integer less than or equal to M. The electronic device sends first data to an external display device in response to the first selection operation, where the first data is used by the external display device to display the N application interfaces.

Abstract: A display driving method and a display device. The display driving method includes: scanning a plurality of subpixels arranged in an N×M array one row by one row or multiple rows by multiple rows to turn on each row of scanned subpixels, so that two adjacent rows of sub-pixels are simultaneously in an on-state for a duration greater than or equal to twice a unit scanning time, the unit scanning time is a time required to scan one row of sub-pixels, wherein N and M are both integers greater than 1; applying data signals to at least two rows of sub-pixels that are simultaneously in the on-state, such that at least a portion of rows of sub-pixels are applied with data signals for a duration greater than the unit scanning time.

Abstract: Systems, methods, and devices are provided to selectively perform a frame replay at various stages of an image processing pipeline for an electronic display. Image processing circuitry may include first compensation circuitry that compensates for a first compensation factor relating to a first physical parameter of an electronic display and second compensation circuitry that compensates for a second compensation factor relating to a second physical parameter of the electronic display. A first tap point that enables the image frame to be stored and reused may be located between the first compensation circuitry and the second compensation circuitry, while a second tap point may be located after the second compensation circuitry.

Abstract: Systems and methods for varying an intensity of pixels of displays are provided. A display subsystem may include a display driver for receiving image frame data and commands from an image or data source, including pixel intensity values for bit planes of an image frame; a parser for receiving the image frame data and the commands, and configured to determine a drive waveform having an pixel drive value and a pixel drive time interval for each bit plane of the image frame data; a display backplane for receiving the drive waveform, the display backplane including a pixel array comprising an array of pixels, each pixel driven by a pixel circuit; and display driver circuitry for driving the pixels in accordance with the drive waveform; and wherein an intensity of the pixel varies for each bit plane according to the pixel drive value and the pixel drive time interval.

Abstract: The disclosed computer-implemented method includes systems for optimizing color rendition in an LED volume virtual production stage. For example, the described systems optimize or correct color rendition by applying a series of color correction matrices to color pixel values within the virtual production stage and to final captured imagery filmed within the virtual production stage. The described systems generate the color correction matrices from four calibration images taken within the virtual production stage. Various other methods, systems, and computer-readable media are also disclosed.

Abstract: Provided is a method and device for recognizing, by a wearable device, a gesture. The method of recognizing, by a wearable device, a user gesture includes identifying a trigger gesture of the wearable device, obtaining an electromyographic signal set from a plurality of electromyography sensors, based on a movement of a user's body for the identified trigger gesture, obtaining at least one output value by using one or more electromyographic signals from among the obtained electromyographic signal set, as an input to a gesture recognition model, selecting, based on the wearable device being in a standby mode, at least one active electromyography sensor to recognize the user gesture, based on the obtained output value, activating the selected active electromyography sensor and recognizing the user gesture by using the activated at least one active electromyography sensor based on the wearable device being in standby mode.

Abstract: An electronic device is provided. The electronic device includes a pixel array, a gate driver and a bias signal driver. The pixel array includes a pixel unit. The gate driver generates a plurality of gate control signals. The bias signal driver is electrically connected to the pixel unit and the gate driver, and configured to generate a bias signal to activate the pixel unit according to a part of the plurality of gate control signals. The bias signal driver includes a first logic circuit and a second logic circuit.

Abstract: Systems and methods for varying an intensity of pixels of displays are provided. A display subsystem may include a display driver for receiving image frame data and commands from an image or data source, including pixel intensity values for bit planes of an image frame; a parser for receiving the image frame data and the commands, and configured to determine a drive waveform having an pixel drive value and a pixel drive time interval for each bit plane of the image frame data; a display backplane for receiving the drive waveform, the display backplane including a pixel array comprising an array of pixels, each pixel driven by a pixel circuit; and display driver circuitry for driving the pixels in accordance with the drive waveform; and wherein an intensity of the pixel varies for each bit plane according to the pixel drive value and the pixel drive time interval.

Abstract: The embodiments of the disclosure disclose a splitter, an LED display system, a method for configuring display screen and a device for configuring display screen. The splitter is applicable to an LED display screen, wherein the LED display screen includes a plurality of display units, each of the display units includes an assembly controller and an LED display assembly electrically connected to the assembly controller, and the LED display assembly includes a plurality of LED display pixels; and the splitter includes: a processor; a master interface electrically connected to the processor; and a plurality of loading interfaces electrically connected to the processor, wherein each of the loading interfaces is configured to load one of the display units or a plurality of cascaded display units.

Abstract: Improved methods for driving a four particle electrophoretic medium including a scattering particle and at least two subtractive particles. Such methods allow displays such as a color electrophoretic display including a backplane having an array of thin film transistors, wherein each thin film transistor includes a layer of metal oxide semiconductor. The metal oxide transistors allow faster, higher voltage switching, and thus allow direct color switching of a four-particle electrophoretic medium without a need for top plane switching. As a result, the color electrophoretic display can be updated faster and the colors are reproduced more reliably.

Abstract: PWM-frame rate misalignment is mitigated through implementation of a discrete variable refresh rate (VRR) scheme. A target frame rate is limited to a frame rate selected from only those frame rates that facilitate alignment of each frame period to a specified edge of a PWM cycle of a brightness control signal of a display panel. This alignment results in each frame period at the selected frame rate starting at a same point in a corresponding PWM cycle and ending at a same point in a corresponding PWM cycle to help ensure a constant effective duty cycle across each successive frame period, which in turn mitigates perception of flicker that otherwise would arise. Further, the discrete VRR scheme can employ a compensation mode for compensating for the delay in rendering or otherwise obtaining a frame for display so as to maintain a consistent duty cycle in the brightness control signal.