Abstract: The present disclosure relates to a display substrate. The display substrate includes an active region and a non-active region, and a depth camera is disposed in the non-active region. The depth camera includes at least one receiving unit and a plurality of diffractive units. At least a part of the diffractive units includes an infrared light emitting device disposed on the substrate that emits infrared light. The part of the diffractive units includes a diffractive optical element disposed on the infrared light emitting device and used to transmit the infrared light emitted from the infrared light emitting device to an object. The receiving unit includes an infrared photosensitive device disposed on the substrate and used to receive the infrared light reflected by the object.

Abstract: Embodiments of systems and methods for concealing loss of Simultaneous Localization and Mapping (SLAM) data in edge cloud architectures are described. In some embodiments, a method may include: receiving SLAM data usable to produce a first map of a physical space for a first HMD; in response to a portion of the SLAM data being lost or corrupt, retrieving a first landmark detected in previous SLAM data with a first confidence value; receiving, from a second IHS coupled to a second HMD, a second landmark usable to produce a second map for the second HMD, where the second landmark has a second confidence value; in response to the first and second landmarks overlapping, selecting one of the first or second landmark with greatest confidence value; and producing the first map using the selected landmark.

Abstract: An array substrate includes: a display region, a non-display region surrounding the display region, at least one notch in the non-display region, and multiple gate lines. The gate lines include regular gate lines and irregular gate lines. The regular gate line is located in the display region and extends in a first direction. The irregular gate line includes a regular section located in the display region and extends in the first direction and an irregular section located in the non-display region around the notch. The regular section and the irregular section of the same irregular gate line are electrically connected. The irregular section includes a first sub-section and/or a second sub-section. The first sub-section and the second sub-section of the same irregular section are electrically connected to each other. A resistivity of the first sub-section is greater than a resistivity of the second sub-section.

Abstract: Calibration of displays are disclosed herein. An example method includes obtaining an image of a display including a position-determining pattern and pixels, the image including pixel location data and position-determining pattern location data; comparing the pixel location data and the position-determining pattern location data; and based on the comparison, determining calibration data that accounts for misalignment between the position-determining pattern and the pixels.

Abstract: A stylus-tracking device may include a piezoelectric receiver or transceiver array on a first side (e.g., underneath) a display. Image data may be acquired from the piezoelectric receiver array. The image data may correspond to signals produced by the piezoelectric receiver array in response to an acoustic signal and/or a mechanical deformation caused by a target object (e.g., a stylus) in contact with a surface, such as a cover glass, proximate a second side of the display. A doublet pattern in the image data may include a first area of having signals below a threshold level and a second area having signals above the threshold level. Based on one or more doublet pattern characteristics, a position of the target object on the surface, a force of the target object on the surface and/or a first direction of movement of the target object relative to the surface may be estimated.

Abstract: A display device includes a display area including a plurality of pixels arrayed next to one another in a first direction and in a second direction that is different from the first direction, and a control circuit. Each of the pixels includes a light-emitting element configured to emit light by a current flowing therethrough, a drive transistor, and a holding capacitance.

Abstract: An EL display panel including: a pixel array section in which EL display elements whose light emission state is controlled by an active matrix driving system are arranged in a form of a matrix; a first writing control line driving section and a second writing control line driving section configured to drive each writing control line from both sides of the pixel array section; and a first power supply line driving section and a second power supply line driving section configured to drive a power supply line disposed along a direction of a horizontal line from both sides of the pixel array section, the first power supply line driving section and the second power supply line driving section being respectively arranged between the first writing control line driving section and the pixel array section and between the second writing control line driving section and the pixel array section.

Abstract: A display device includes a pixel circuit, a drive circuit that drives a data line connected to the pixel circuit, and a capacitor that is provided between an output node of the drive circuit and the data line. The drive circuit outputs a constant current to the output node during a driving period of which a length is set according to display data.

Abstract: A method and system for displaying information on a transparent display device includes receiving a touch input for selecting an object displayed on a screen of an external device that is viewable through a screen of the transparent display device, requesting the external device for information related to the object, receiving the information related to the object from the external device, and displaying the received information on the screen of the transparent display device.

Abstract: Systems and methods for context-sensitive hand interaction with an immersive environment are provided. An example method includes determining a contextual factor for a user and selecting an interaction mode based on the contextual factor. The example method may also include monitoring a hand of the user to determine a hand property and determining an interaction with an immersive environment based on the interaction mode and the hand property.

Abstract: A common electrode for a display, which is originally provided in a liquid crystal display element, is also used as one (drive electrode) of a pair of electrodes for a touch sensor, and the other (detection-electrode-for-the-sensor) of the pair of electrodes is newly formed. An existing common drive signal as a drive signal for display is used in common for a drive signal for the touch sensor. A capacitance is formed between the common electrode and the detection-electrode-for-the-sensor, and touch detection is performed by utilizing a change of this capacitance caused by a finger touch of a user. Thus, a display device with a touch sensor is also applicable to a mobile device in which electric potential of the user is inconstant in many cases. The newly-provided electrode is only the detection-electrode-for-the-sensor, and it is unnecessary to newly prepare a drive signal for the touch sensor.

Abstract: An input system includes at least one sensor and a controller communicatively coupled to the at least one sensor. The at least one sensor is configured to identify a position of an eye. The controller is configured to receive a first signal indicative of a first position of an eye from the at least one sensor and map the eye position to a user's selection.

Abstract: A transparent conductive film includes a substrate having opposed first and second surfaces; a first optical adjustment layer formed on the first surface; a first transparent conductive layer formed on the first optical adjustment layer; a first metal layer formed on the first transparent conductive layer; a second optical adjustment layer formed on the second surface; a second transparent conductive layer formed on the second optical adjustment layer; and a second metal layer formed on the second transparent conductive layer. At least one of the first optical adjustment layer and the second optical adjustment layer comprises a plurality of particles therein, such that a plurality of protrusions corresponding to the plurality of particles are formed on a surface of at least one of the first metal layer and the second metal layer.

Abstract: Provided are a device and a method of controlling the device. The method includes obtaining information regarding type of a hovering input unit configured to transmit a hovering input to the device; and displaying a user interface corresponding to the obtained information regarding type of the hovering input unit from among a plurality of user interfaces related to an application executed on the device.

Abstract: A method and system is provided for controlling a display in a machine operating in a work area whereby a plurality of views are displayed on a screen with each of the plurality of views corresponding to a plurality of functions and having one or more of the views independently available on another display.

Abstract: Enhanced telestrators are presented. Such enhanced telestrators provide visual elements (e.g. annotations and/or visual cues) to a user of a wearable device, such as a head-mounted display device. The visual elements may be superimposed, combined, composited, blended, and/or layered over image data displayed by a display device included in the wearable device. The visual elements may also be projected (by a projection system included in the wearable device), onto physical surfaces of the user's environment. Such projection systems may include lasers and/or light emitting diodes for photon source. The projection systems are enabled to project the visual elements onto surfaces of the environment of the user of the wearable device. More particularly, the various embodiments herein provide annotations and/or visual cues superimposed over image data viewed by the user and/or projected onto (and reflected by) physical surfaces the user's environment, via a photon-emitter.

Abstract: The present disclosure relates to methods and systems for providing virtual environments that are responsively adaptable to users' characteristics. Embodiments provide for identifying a virtual action to be performed by a virtual representation of a patient within a virtual environment. The virtual action corresponds to a physical action by a physical limb of the patient in the real-world. In embodiments, the virtual action is required to be performed to a first target area within the virtual environment. Embodiments determine that the patient has at least one limitation that limits the patient performing the physical action. A determination of whether the patient has performed the physical action to at least a physical threshold associated is made. The virtual environment is caused to adapt in order to allow the virtual action to be performed in response to the determination that the patient has performed the physical action to the physical threshold.

Abstract: A computer implemented method (500) of generating a virtual representation (110) of a linear lighting device (120) is disclosed.

Abstract: Embodiments herein provide a dual optical and capacitance sensor. During a first time period, the dual sensor uses optical sensing to capture a fingerprint (e.g., to identify or verify the fingerprint). During a second time period, the dual sensor uses one or more capacitive sensor electrodes to perform capacitive sensing. The capacitive sensing may be absolute capacitive sensing or transcapacitive sensing.

Abstract: The embodiments of the present disclosure provide a gate driving circuit and its driving method, an array substrate and a display device. The gate driving circuit is configured to drive an irregular-shaped display panel that includes a regular-shaped display area and a first irregular-shaped display area, wherein the gate driving circuit includes a first driving module configured to drive one or more first scan lines in the regular-shaped display area and a second driving module configured to drive one or more second scan lines in the regular-shaped display area; wherein one or more third scan lines are driven by the first driving module or the second driving module, and one or more fourth scan lines are driven by the first driving module or the second driving module.