Abstract: The disclosure relates to a display panel, a display device, and related driving method. The display panel comprises: an array of pixel units comprising at least a plurality of rows of first pixel units and a plurality of rows of second pixel units; a scan drive circuit configured to scan the plurality of rows of the first pixel units in a first polarity inversion driving phase, and scans the plurality of rows of the second pixel units in a second polarity inversion driving phase; and a data drive circuit configured to change polarities of data drive signals applied to the plurality of rows of the first pixel units and the plurality of rows of the second pixel units in the first polarity inversion driving phase and the second polarity inversion driving phase, respectively.

Abstract: In an embodiment, a display device comprises a display panel, a light source and a controller. The display panel including pixels, a common electrode, pixel electrodes and a liquid crystal layer containing a polymer dispersed liquid crystal. The light source emits light to the display panel. The liquid crystal layer scatters light when scattering voltage is applied between the common electrode and the pixel electrodes, and transmits light when transparent voltage is applied between the common electrode and the pixel electrodes. The controller applies the transparent voltage in a first period, and applies voltage in accordance with image data in a second period.

Abstract: An extendable mouth stylus for activating functions on a touch screen or keys includes a piston housing having a first end part and a second end part, a piston having a piston rod with a first piston end and a second piston end, an activation part arranged at the second piston end of the piston, and a mouthpiece arranged at the one end of the piston housing.

Abstract: A touch interface includes a display screen and detects an approach and a position of a user's finger with respect to the screen. The interface displays at least one first graphical element associated with a first touch selection zone and lying in a first region and at least one second graphical element superimposed on a second touch selection zone, and lying in a second region distinct from the first region. The interface estimates a trajectory of a point of the finger and a point of impact of the trajectory on the screen. The interface displaces, when the point of impact is detected in one of the regions, the graphical element of the region and the associated touch selection zone in the direction of the point of impact, and then, when the point of impact exits the region, restore the display of the graphical element to an initial state.

Abstract: A display device, including: a substrate; an electrode unit provided on the substrate; an emission layer driven by the electrode unit; a capacitive touch sensor provided on the electrode unit; and a conductive layer provided on the touch sensor.

Abstract: An article of clothing comprises a glove, at least one electric operational element attached to the glove, an electrical contact point for the electric operational element, and at least one cable that electrically connects the electric operational element to the electrical contact point. The cable is attached to the glove and runs mainly in at least one neutral region of the glove in a neutral direction with respect to a change in length upon a movement of a hand or of a finger. Further, a method of manufacturing such an article of clothing is shown.

Abstract: The present application discloses a scanning driving circuit and a flat display apparatus, the scanning driving circuit includes a plurality of cascaded scanning driving unit, each scanning driving unit including a forward and reverse scanning circuit for controlling the forward or reverse scanning; an input circuit to perform charging to the pull-up control signal point and the pull-down control signal point; an output circuit for generating a scanning driving signal with two-valued high electrical level and outputting to the current level scanning line to drive a pixel unit.

Abstract: An information processing apparatus having a touch panel display includes a first detection unit configured to detect that an object touches the touch panel display, and a second detection unit configured to detect that the object touches an area of a display item on the touch panel display and then detect that the object moves outside the area of the display item while touching the touch panel display. When the display item is in a flick or drag operation detectable area, the information processing apparatus performs control not to carry out processing associated with the display item in response to the detection by the second detection unit.

Abstract: A touch substrate and a manufacturing method thereof, and a touch display device are provided. The touch substrate includes: a bearing substrate; a touch electrode layer, disposed on the bearing substrate and including a first touch electrode, a side of the first touch electrode is inclined relative to the bearing substrate; and an antireflective layer, disposed on the bearing substrate and including an antireflective portion, the antireflective portion covers the side of the first touch electrode, and a refractive index of a film formed by both the antireflective portion and the first touch electrode is less than a refractive index of the first touch electrode.

Abstract: A display device, a driving controller, and a driving method provide a fail-safe function. The operating states of driving-related circuits are monitored, and depending on the result of the monitoring, abnormal driving is rapidly and accurately normalized. The performance of display driving and the quality of displayed images are improved.

Abstract: According to one embodiment, a display device includes a display panel, a light source unit, and a controller which controls the display panel and the light source unit, wherein the controller applies scattering voltage between a common electrode and a first pixel electrode in a first area and between the common electrode and a second pixel electrode in a second area, and a liquid crystal layer scatters light in a first display color in the first area, and scatters light in a second display color different from the first display color in the second area.

Abstract: To provide a highly browsable data processing device or a highly portable data processing device, a data processing device including the following is devised: an input/output unit provided with a display portion which can be folded and unfolded and a sensor portion that can sense the folded and unfolded states of the display portion and can supply data on fold, and an arithmetic unit that stores a program for executing different processing depending on the data on fold.

Abstract: This disclosure presents systems and methods to synchronize visual effects and haptic feedback for interactive experiences. Visual circuit control signals may dictate control of a presentation device to present images forming virtual content. Haptic circuit control signals may dictate control of a haptic feedback device to provide haptic output. Timing information conveying one or both of latency in the execution of the visual circuit control signals by the presentation device and/or latency in the execution of the haptic circuit control signals by the haptic feedback device may be determined. Based on the timing information, transmission of the visual circuit control signals to the presentation device and/or transmission of the haptic circuit control signals to the haptic feedback device may be effectuated so that the presentation of images and provision of haptic output occur within a threshold time span.

Abstract: The present disclosure relates to a display screen assembly, an electronic device and an assembling method of the display screen assembly. The display screen assembly includes a cover plate, a display screen, a bracket and a decoration enclosure. A top surface of the display screen is joined with a lower surface of the cover plate, a width of the display screen is larger than that of the cover plate, and a side edge of the cover plate is indented inwards relative to the display screen. The bracket includes a top portion joined with a bottom surface of the display screen and a side wall. The decoration enclosure includes a first joining part joined with the side wall and a second joining part. The second joining part is joined with the side edge of the cover plate and configured to cover a non-display area of the display screen.

Abstract: The embodiments provide a head up display device comprising: at least one light source for emitting light; a first optical member for changing the path of light emitted from the light source; an optical sheet for transferring light emitted from the first optical member to a second optical member described below; and the second optical member for changing the path of light transferred from the optical sheet, and including a first surface in the direction of the optical sheet and a second surface in the direction of an image panel described below, wherein the first surface and the second surface are both curved surfaces.

Abstract: According to an aspect, a display apparatus includes: a plurality of first pixels to which at least one color is allocated; and a second pixel to which a high luminance color having higher luminance than luminance of the color of the first pixels is allocated. The first pixels are driven at a first drive frequency. The second pixel is driven at a second drive frequency higher than the first drive frequency.

Abstract: A method for manufacturing a touch panel and a conductive strippable adhesive are provided. The method for manufacturing the touch panel including forming a touch electrode and forming a conductive strippable adhesive layer on the touch electrode, wherein the conductive strippable adhesive layer is electrically connected with the touch electrode. The conductive strippable adhesive layer enables charges to flow freely in the touch electrodes, so as to balance the electric potential in the touch electrodes, and improve the ability of resisting electrostatic breakdown of touch panel products in the production process, and effectively eliminate risk of ESD in a manufacturing process of a touch panel, and hence improve the product yield, and reduce the cost.

Abstract: Methods and an electronic device for providing visual and haptic feedback are provided. At least one first touch made to an object displayed on a touch screen is detected. The object is transformed and displayed in response to movement of the first touch. At least one second touch made to the displayed object is detected. Visual feedback is displayed on the touch screen in response to the second touch, and haptic feedback corresponding to a predetermined haptic pattern is output using a vibration motor.

Abstract: An electrostatic sensing device comprises an electrostatic sensing module and a control unit electrically connected to the electrostatic sensing module. The electrostatic sensing module comprises a first electrostatic sensing element comprising opposite ends, and two first electrodes. The two first electrodes are separately located on and electrically connected to the two opposite ends of the first electrostatic sensing element. The first electrostatic sensing element is a single walled carbon nanotube or a few-walled carbon nanotube. The control unit electrically is configured to apply a direct voltage to the first electrostatic sensing element and measure a current/resistance of the first electrostatic sensing element.

Abstract: An electrostatic sensing device comprises an electrostatic sensing module and a control unit electrically connected to the electrostatic sensing module. The electrostatic sensing module comprises a first electrostatic sensing element comprising opposite ends, and two first electrodes. The two first electrodes are separately located on and electrically connected to the two opposite ends of the first electrostatic sensing element. The first electrostatic sensing element is a single walled carbon nanotube or a few-walled carbon nanotube. The control unit electrically is configured to apply a direct voltage to the first electrostatic sensing element and measure a current/resistance of the first electrostatic sensing element.