Abstract: A content display method of a user terminal device including a bended touch screen divided into a main area and a sub area, includes displaying, on the main area, a first main content provided by a first application, and displaying, on the sub area, a first sub content associated with the first main content, receiving a user gesture input on the main area, and in response to receiving the user gesture, displaying, on the main area, a second main content provided by a second application, and displaying, on the sub area, a second sub content associated with the second main content.

Abstract: A flexible display device including a display panel including a base surface, a first touch sensor disposed on the base surface, and a second touch sensor disposed on the base surface and intersecting the first touch sensor. The first touch sensor includes first sensor parts, each of the first sensor parts comprising first conductive lines, and a first crossing part connecting two adjacent first sensor parts, the first crossing part comprising second conductive lines. The second touch sensor includes second sensor parts, each of the second sensor parts including third conductive lines, and a second crossing part including fourth conductive lines disposed between the second conductive lines, and a first connection electrode connecting the third conductive lines to the fourth conductive lines and insulated from the second conductive lines.

Abstract: A user may select or interact with objects in a scene using gaze tracking and movement tracking. In some examples, the scene may comprise a virtual reality scene or a mixed reality scene. A user may move an input object in an environment and be facing in a direction towards the movement of the input object. A computing device may use sensors to obtain movement data corresponding to the movement of the input object, and gaze tracking data including to a location of eyes of the user. One or more modules of the computing device may use the movement data and gaze tracking data to determine a three-dimensional selection space in the scene. In some examples, objects included in the three-dimensional selection space may be selected or otherwise interacted with.

Abstract: A control method of an electronic device provides an application using an external electronic device. The method may include acquiring, by an electronic device including a display, a request to run an application, the acquiring including identifying execution information on the application; comparing the execution information with first device information corresponding to the electronic device and second device information corresponding to the external electronic device comprising another display. An execution screen of the application is provided through the display when the execution information corresponds to the first device information. The execution screen of the application or meta information corresponding to the execution screen to the external electronic device for output, so that the execution screen is provided through the other display when the execution information corresponds to the second device information.

Abstract: According to an aspect, a display device with a touch detecting function includes: a substrate; a display area; a touch detection electrode provided with a plurality of conductive thin wires, each of the conductive thin wires including a plurality of thin wire pieces each having a linear shape and including a first end and a second end; a drive electrode; and a display functional layer. The adjacent thin wire pieces are arranged so as to be bent at a bent portion serving as a portion at which the second end of the one thin wire piece of the adjacent thin wire pieces is connected to the first end of the other thin wire piece of the adjacent thin wire pieces, and the conductive thin wires include a bent portion having an angle formed by the adjacent thin wire pieces different from angles of the other bent portions.

Abstract: A display calibration system determines compensation factors for each subpixel in an electronic display to compensate for non-uniformity due to aging of the electronic display. The system takes a first measurement of the display at an input setting, instructs the display to operate an input sequence, and takes a second measurement of the display at the same input setting. The system determines one or more compensation factors for each subpixel of the electronic display based on the first measurement, the second measurement, and one or more previous characterizations of a similar subpixel on a similar display. A compensation matrix may be stored in memory on an HMD that houses the electronic display, or it may be stored in the cloud and accessed when the display is operating.

Abstract: The electronic devices described herein are configured to enhance user experience associated with using a pen on the touchscreens of the electronic devices. Contact of a pen on the touch screen is detected by a persistent, pen-aware shell that occupies some or all of the touch screen user interface throughout operation of the electronic device. Detected pen contact with the touch screen is captured/collected as pen input and used to perform a function of the electronic device or shared with an application such that the application may perform a function based on the pen input. A performed function or application with which to share the pen in put is selected by a user, automatically by an operating system, or a combination of the two. Automatic capture of pen input by the persistent, pen-aware shell provides an intuitive way of making use of pen/touch screen capability of an electronic device.

Abstract: A system for hand gesture recognition is described herein. The system includes a display, camera, memory, and processor. The memory that is to store instructions and is communicatively coupled to the camera and the display. The processor is communicatively coupled to the camera, the display, and the memory. When the processor is to execute the instructions, the processor is to estimate one or more motion vectors of an object using a pair of consecutive frames and estimate an average motion vector of the object. The processor is also to obtain a descriptor based on histogram values from a histogram of optical flow (HOOF) of the one or more motion vectors and the average motion vector and classify the descriptor as a gesture.

Abstract: One illustrative system disclosed herein includes a touch-sensitive surface, which includes: a first surface on a first plane; and a second surface adjacent to the first surface, wherein the second surface is on a second plane different from the first plane. The illustrative system also includes a haptic output device configured to receive a haptic signal and output a haptic effect. Further, the illustrative system includes a processor coupled to the haptic output device and the touch-sensitive surface, the processor configured to: determine an event; determine the haptic effect based at least in part on the event; determine the haptic signal based at least in part on the haptic effect; and transmit the haptic signal associated with the haptic effect to the haptic output device.

Abstract: A wearable biosignal interface and operation method of the wearable biosignal interface is provided wherein the wearable biosignal interface may perceive a motion unintentionally performed by a user and ignore a biosignal obtained thereby and thus, improve accuracy of a bio-based determination of an intention of the user for operating a device.

Abstract: Apparatus comprising an electrowetting element with a first fluid and a second fluid immiscible with the first fluid. A support plate has a surface with a first surface portion lying in a first plane and overlapping a first electrode, and a second surface portion lying in a second plane different from the first plane. On receiving display effect data indicative of a requested display effect, the electrowetting element is switched to a state in which the first fluid contacts substantially all of the first surface portion and the second fluid contacts substantially all of the second surface portion, using a voltage with a voltage value which is within a range of a plurality of voltage values at which the electrowetting element is in the state.

Abstract: An embodiment of a computer implemented method of performing a processing action includes detecting an input from a user via an input device of a processing device, the input including a touch by at least one finger of a plurality of fingers of the user, estimating a gesture performed by the at least one finger based on the touch, measuring at least part of a fingerprint of the at least one finger, and identifying the at least one finger used to apply the input by the user based on stored fingerprint data that differentiates between individual fingers of the user. The method also includes identifying an action to be performed based on the estimated gesture and based on the identified at least one finger, and performing the action by the processing device.

Abstract: An embodiment of a computer implemented method of performing a processing action includes detecting an input from a user via an input device of a processing device, the input including a touch by at least one finger of a plurality of fingers of the user, estimating a gesture performed by the at least one finger based on the touch, measuring at least part of a fingerprint of the at least one finger, and identifying the at least one finger used to apply the input by the user based on stored fingerprint data that differentiates between individual fingers of the user. The method also includes identifying an action to be performed based on the estimated gesture and based on the identified at least one finger, and performing the action by the processing device.

Abstract: The disclosure describes systems and methods of analyzing interactions with a user interface for an application, where the user interface is implemented at least partly within a virtual reality environment. Certain embodiments provide for receiving interactions that include gestures, spatial contexts, and applications contexts, and receiving results from the application, such as application behavior or error conditions. The user interface interactions and the application results are analyzed. Events, metrics, and relationships are determined based on the analysis. In some cases, additional data (such as historical interactions and results, system environment data, or system configuration data) are received and analyzed, and the determined relationships are further based on the additional data.

Abstract: A temperature sensing module for a display device includes a temperature sensing routing, configured on a panel of the display device; and a temperature sensing unit, able to sense a resistance of the temperature sensing routing and generate a temperature indicating information according to the resistance; wherein the temperature indicating information indicates an operating temperature of an active area of the panel and is utilized to adjust at least one driving signal that controls the active area to display images.

Abstract: Provided are a display device and a driving method thereof. Each source drive integrated circuit (IC) of the display device includes a first random signal generator configured to generate a first random signal, a delay unit configured to generate first and second Source Output Enable (SOE) signals by randomly delaying an SOE signal in response to the first random signal, a first output group configured to output a data voltage at a first timing in response to the first internal SOE signal, and a second output group configured to output a data voltage at a second timing in response to the second internal SOE signal. The present disclosure utilizes a random signal generator to randomly disperse timings of SOE signals temporally and spatially within a source drive IC or between source drive ICs, thereby minimizing the peak current.

Abstract: Disclosed is a mobile terminal device in which a locking mode is released based on a touch intensity in order to prevent an unlocking operation by an unintended touch, and a driving method thereof, wherein the driving method includes detecting a touch intensity for each touch when a plurality of touches occur in a locking mode, and releasing the locking mode on the basis of the plurality of touch intensities detected, or executing a function corresponding to the plurality of touch intensities detected.

Abstract: Meta-material with individually-addressable elements is applied to a video projector screen to dynamically control light reflectance and grayscale. Example meta-material includes piezo electric elements, liquid crystal elements, and electrochromic elements. Methods of calibrating the screen with meta-material are disclosed. In one embodiment the screen is adjustable pixel by pixel. In another embodiment the screen is adjust by multi-pixel spans per line of meta-material. A camera may be used to provide feedback to the alignment system to make corrective adjustments to the screen.

Abstract: The present disclosure relates to a head-up display apparatus (1). An image source (3) is provided for generating a composite image comprising a first image (IMG1) and second image (IMG2). An image splitter configured to separate the first image (IMG1) from the second image (IMG2). A first imaging assembly (5) is arranged to project the first image (IMG1) generated by the image source (3) to produce a first virtual image (VIMG1); and a second imaging assembly (7) is arranged to project the second image (IMG2) generated by the image source (3) to produce a second virtual image (VIMG2). The present disclosure also relates to a vehicle (V) incorporating a head-up display apparatus (1).