Abstract: Methods, devices, and computer readable storage device for navigation of a touchscreen display include calculating a scaled position based on a scaling factor. The scaling factor is based on dimensions of a region of reach and dimensions of the touchscreen display.

Abstract: The sensor (1) for determining an orientation of the sensor in a gravity field comprises a ball (2) and a rolling surface (R) describing a generally concave shape on which the ball can roll inside the sensor. A further surface (F) is arranged opposite said rolling surface, and a light emitter (E), a light detector (D) and another light emitter or detector is provided. A region (R) within which the ball (2) can move is limited by at least the rolling surface (R) and the further surface (F). And the light emitters (E) and detectors (D) are arranged outside the region (R) for emitting light through the rolling surface (R) into said region and detecting light exiting the region (3) through the rolling surface (R) or for emitting light through the further surface (F) into said region (R) and detecting light exiting said region (R) through the further surface (F). Corresponding measuring methods and manufacturing methods are described, too.

Abstract: An interactive projector and an operation method thereof for determining a depth information of an object are provided. The interactive projector includes an optical engine, an image capture unit and a process unit is provided. The optical engine projects a visible image via a visible light source and an invisible pattern via an invisible light source to a projection area. The visible light source and the visible are integrated to the optical engine. The image capturing unit captures an image having depth information from the projection area, which the image is being projected on an object via the invisible light source. A processing unit is electrically coupled to the optical engine and the image capturing unit. The processing unit receives the image having depth information and determines an interactive event according to the image having depth information. According to the interactive event, a status of the optical engine is refreshed.

Abstract: A method includes determining by a sensor of a mobile device that a first ambient sound level represents a quiet context for the mobile device, providing a audio signal to a speaker of the mobile device in response to determining that the first ambient sound level represents a quiet context, determining, by the sensor, that a second ambient sound level represents a first noisy context for the mobile device, wherein the second ambient sound level is louder than the first ambient sound level, modifying the audio signal into a beam forming audio signal in response to determining that the second ambient sound level represents the first noisy context, and providing the beam forming audio signal to the speaker.

Abstract: Systems and methods for processing data from a motion sensor to detect intentional movements of a device are provided. An electronic device having a motion sensor may process motion sensor data along one or more dimensions to generate an acceleration value representative of the movement of the electronic device. The electronic device may then determine whether the acceleration value changes from less than a low threshold, to more than a high threshold, and again to less than the low threshold within a particular amount of time, reflecting an intentional movement of the electronic device by the user. In response to determining that the acceleration value is associated with an intentional movement of the electronic device, the electronic device may perform a particular event or operation. For example, in response to detecting that an electronic device has been shaken, the electronic device may shuffle a media playlist.

Abstract: A control unit is provided with a selector and a plurality of value indicators. One of the value indicators provides a coarse indication of an existing value of an adjustable control quantity. The other value indicators are in another state, distinguishable from the value indicating state. A rotary adjustor provides a manual adjustment facility for a user. Selection of the selector puts the adjustable control quantity in an adjustment mode. In this adjustment mode, rotary actuation of the rotary adjustor allows adjustment of the control quantity. A new value of the control quantity is indicated by a change in the display states of the value indicators.

Abstract: The method includes the steps of: a) connecting a handheld touchscreen computer with a first display to a personal computer with a second display and mouse, wherein a screen picture of the handheld touchscreen computer is projected on the second display as a subwindow, and a cursor is shown on the second display; b) directly moving the cursor by the mouse when no item in the subwindow is clicked; c) calculating a displacement quantity of the cursor against a virtual origin of the subwindow when an item in the subwindow is being clicked; and d) generating a mouse event to an item of the handheld touchscreen computer at a position corresponding to the displacement quantity.

Abstract: A system and method may include a device including a user interface, a detector, and a central processing unit (CPU) in communication with the detector. The CPU controls operation of the device. A stylus is used to input data with respect to the device. The stylus may include a main body and an engagement member operatively coupled to the main body. The engagement member alters a mechanical relationship within the main body in response to engagement by a user. The stylus generates a signal in response to the altered mechanical relationship within the main body. The detector detects the signal generated by the stylus. The CPU performs an action in response to detection of the signal.

Abstract: A stylus pen and a touch panel are provided. The stylus pen includes: a conductive tip configured to receive an electric field transmission signal from at least one electrode of the touch panel; a circuit portion configured to generate an electric field receiving signal corresponding to the received electric field transmission signal; a variable capacitor between the conductive tip and the circuit portion, and configured to vary the electric field receiving signal depending on a writing pressure applied to the conductive tip; and a conductive body outside the variable capacitor and electrically connecting the conductive tip and the circuit portion.

Abstract: An apparatus used for pressing keys on a keyboard, scrolling through a touch sensitive screen, or handling a work tool contains a structural body and a tip accessory. The structural body further contains a size adjustable ring and a protruding arm. The size adjustable ring is worn by an individual with limited hand function. When worn, the protruding arm extends outwards from the size adjustable ring. Upon wearing the size adjustable ring, the protruding arm and the tip accessory which is attached to the protruding arm is directed towards the keyboard, the touch sensitive screen or other receiving surface. Depending on user preference, the tip accessory can be a stylus tip, a screw driver head, or a knife.

Abstract: A manual device comprising a longitudinal prehension body and a pad for a capacitive screen mounted on one end of said body, wherein the body is insulating, while the pad is conductive, and a rod of polymer material filled with at least one conductive material and/or comprising a conductive coating is electrically in contact with the pad and extends longitudinally inside the body.

Abstract: Disclosed is a touch pen which comprises a pen head, an encasing member, and a shaft. The pen head comprises a conductive elastic casing, a ball member, a fixing device, and an elastic device. The conductive elastic casing comprises a first sealing end and a first receiving portion, wherein the ball member is deposited in the first receiving portion. The fixing device comprises a second sealing end and a second receiving portion. The second receiving portion is connected to the first receiving portion. The elastic device is deposited in the first receiving portion and the second receiving portion and contacts the ball member and presses against the second sealing end. The encasing member encases the conductive elastic casing and is connected with the fixing device. The shaft is connected with the encasing member. The friction can be dispersed by the ball member of the present invention.

Abstract: A score system is applied to an electronic device. The electronic device includes a storage unit storing a mapping relationship between touch points and score values, and a touch screen generating input signals. The control system includes a number of processing units and a number of modules which are collections of instructions executed by the number of processing units. The number of modules includes a gesture recognition module recognizing a gesture in response to the input signals and determines all coordinate values of the gesture, a comparison module comparing the coordinate values of the gesture with coordinate values of the plurality of touch points and a calculation module obtaining a score value of each touch point of which the coordinate value is equal to the one of coordinate values of the gesture and calculate a total score of the score values.

Abstract: A touch projection screen including a first substrate, a plurality of first touch layers, a plurality of second touch layers, and a reflective projection film is provided. The first touch layers are disposed on the first substrate and at least two of the first touch layers are arranged adjacent to each other. Each of the first touch layers includes a first base layer and a first patterned electrode disposed on the first base layer. The second touch layers are disposed on the first touch layers and at least two of the second touch layers are arranged adjacent to each other. Each of the second touch layers includes a second base layer and a second patterned electrode disposed on the second base layer. The reflective projection film is disposed on the second touch layers. A manufacturing method of the touch projection screen is also provided.

Abstract: A laminate which includes a substrate 230, conductive fibers 221 and a resin layer, wherein, in said laminate, a ratio of increase in resistance after irradiation with light emitted from a xenon lamp at an intensity of 60 W/m2 (integrated value of spectral irradiance at a wavelength of 300 nm to 400 nm) for 300 hours is 20% or less.

Abstract: A stretchable display device, including a stretchable display panel to display images; and a window on a touch sensing layer, the window including a soft part and a plurality of hard parts attached on a surface of the soft part, the hard parts including an attachment portion attached to the soft part and a non-attachment portion not attached to the soft part.

Abstract: A head mounted display includes a display unit that displays an image, a touch sensor provided along at least a part of a periphery of the display unit, and a control unit that changes the image in response to an operation detected by the touch sensor.

Abstract: A touch window according to one embodiment comprises: a substrate having an effective area and an ineffective area; a sensing electrode arranged in the effective area and sensing a position; and a wiring arranged in the effective area and the ineffective area and electrically connecting to the sensing electrode, wherein the wiring comprises a first wiring and a second wiring such that the first wiring and the second wiring are vertically arranged.

Abstract: In one embodiment, a method includes determining, based on output from a sensor, a proximity of an object to a device and comparing the determined proximity to a threshold proximity. The method further includes selecting, based on the comparison, an interaction mode for processing interactions between the object and the device. The method further includes processing interactions between the object and the device according to the selected interaction mode.

Abstract: A touch sensor panel includes a first set and a second set of sensor elements patterned in a plurality of intersecting rows and columns. The first set of sensor elements are configured to be drive electrodes. The second set of sensor elements are configured to be sense electrodes. Each row includes at least one drive electrode from the first set. Each column includes at least one sense electrode from the second set. A method for manufacturing a touch sensor panel is also provided.

Abstract: A device, having a touch screen display, performs a mutual capacitance scan of rows and columns of an array of capacitive touch sensors associated with the touch screen display. The device selects a subset of the rows, and a subset of the columns, of the array of capacitive touch sensors, and performs a self capacitance scan of the selected subset of the rows, and the selected subset of the columns, of the array of capacitive touch sensors based on results of the mutual capacitance scan. The device identifies an accidental or false touch input on the touch screen display based on results of the self capacitance scan.

Abstract: A method for capturing screen content of a mobile terminal and a device thereof are provided. The method comprises: detecting a DOWN event of a specified key of the mobile terminal and recording the time of occurrence of the DOWN event as a first time stamp; detecting an UP event of the specified key and recording the time of occurrence of the UP event as a second time stamp; and comparing a difference between the second time stamp and the first time stamp with a preset time threshold, performing a full screen capturing or a regional screen capturing on the screen content of the mobile terminal if the difference is less than the preset time threshold, or performing a regional screen capturing or a full screen capturing on the screen content of the mobile terminal if the difference is greater than the preset time threshold.

Abstract: A touch display device including: a plurality of first sensing electrodes; a plurality of second sensing electrodes forming a mutual capacitance with the plurality of first sensing electrodes; an oscillation circuit connected with the plurality of second sensing electrodes and supplying energy so as to generate a first sinusoidal wave signal; a first electrode plate forming a parasitic capacitance with the first and second sensing electrodes and receiving a second sinusoidal wave signal corresponding to the first sinusoidal wave signal; and a scanning driver configured to sequentially select the plurality of first sensing electrodes one-by-one, apply a reference voltage to the selected first sensing electrode, and float the first sensing electrodes which are not selected.

Abstract: A self-capacitive touch screen and a display device are disclosed. The self-capacitive touch screen includes a first substrate and a second substrate arranged opposite to each other. A conductive layer and a plurality of first touch electrodes are provided on the first substrate. The conductive layer includes a plurality of hollow areas distributed in a matrix. The first touch electrodes are in one-to-one correspondence with the hollow areas, and orthographic projections of the first touch electrodes on the first substrate are disposed in orthographic projections of the hollow areas on the first substrate. Second touch electrodes are formed in areas, which correspond to the conductive layer, on the second substrate. The second touch electrodes and the first touch electrodes are configured for the touch-control of the touch screen in the touch process.

Abstract: In a display device, a driving element is disposed on a rear substrate, and a passivation layer covers the driving element. A pixel electrode is disposed on the passivation layer and is connected to the driving element. An organic emission layer is disposed on the pixel electrode and is configured to emit tight toward the rear substrate. A common electrode is disposed on the organic emission layer. A touch electrode is disposed between the rear substrate and the passivation layer, and it forms a capacitive component when an external touch occurs.

Abstract: A device including a mechanical input and a touch-sensitive surface for detecting one or more touch inputs and an input from the mechanical input. The touch-sensitive surface can include a first portion for detecting at least the touch inputs, and a second portion for detecting at least the mechanical input. The touch-sensitive surface can include a first portion for detecting at least the touch inputs and the mechanical input. The mechanical input can comprise an electrically conductive material, and the mechanical input can be detected based on capacitance measurements between the mechanical input and the touch-sensitive surface. The device can include a sensing element, the mechanical input can comprise an electrically insulating material, and the mechanical input can be detected based on capacitance measurements between the touch-sensitive surface and the sensing element. The device can include logic to differentiate between the touch inputs and the mechanical input.

Abstract: An in-cell touch screen and a display device are provided. In the in-cell touch screens, an insulation layer, in an area that each self-capacitance electrode overlap a wire, is provided with at least a first hole that runs through the insulation layer and each self-capacitance electrode is electrically connected with a corresponding wire via a corresponding first via hole; each self-capacitance electrode, within an area overlapping other wire than the corresponding wire and at a position corresponding to the first via hole, is disposed with a second via hole that runs through the self-capacitance electrode. An orthogonal projection of a second via hole on a lower substrate covers an orthogonal projection of a first via hole on the lower substrate. The in-cell touch screen can solve a problem of uneven image display due to nonuniform distribution of via holes in an insulation layer.

Abstract: A touch detection apparatus that detects a touch to a capacitive touch sensor is provided. The touch detection apparatus includes: a capacitive dummy sensor that is disposed to an operation portion; a capacitance detector that detects values of capacitances of the touch sensor and the dummy sensor; and a touch determination portion that determines whether the touch sensor is touched and that disables determination. Multiple dummy sensors are disposed corresponding to multiple touch sensors. The touch determination portion disables the determination of whether the touch sensor disposed in a vicinity of the one of the dummy sensors is touched.

Abstract: The electroconductive laminate according to the present invention is obtained by laminating a hard coat layer and an electrically conducting layer on at least one surface of a polycarbonate base. This electroconductive laminate is characterized in that the hard coat layer is formed from a hard coating composition which contains (A) a phenolic novolac acrylate having two or more acrylate groups, (B) an orthophenyl phenol acrylate containing 1-2 mol of an ethylene oxide structure in each molecule and (C) a bisphenol skeleton-containing diacrylate containing 2-4 mol of an alkylene oxide structure having two or three carbon atoms in each molecule.

Abstract: A liquid crystal display device is provided in which a touch panel and a liquid crystal display panel are placed under a front window. A touch-panel flexible wiring substrate is connected to the touch panel, and a main flexible wiring substrate is connected to the liquid crystal display panel. The main flexible wiring substrate includes a touch-panel control IC and a touch-panel electronic component group to control the touch panel. The touch-panel flexible wiring substrate includes only lines. In this configuration, there is only one flexible wiring substrate, or the main flexible wiring substrate, on which the electronic components are mounted. As a result, the production cost of the liquid crystal display device as a whole can be reduced.

Abstract: Provided are a conductive film in which the area of an intersection portion between a first electrode pattern and a second electrode pattern is defined and is suitable for a touch panel in terms of, for example, the accuracy of detection (S/N ratio), a touch panel including the conductive film, and a display device including the touch panel. The conductive film includes a transparent base, two or more first electrode patterns, and two or more second electrode patterns. The first electrode pattern and the second electrode pattern face each other, with the transparent base interposed therebetween, and intersect each other. Each of the first electrode pattern and the second electrode pattern is a combination of a plurality of cells formed by thin metal wires. The area of an intersection portion between the first electrode pattern and the second electrode pattern is greater than 1 mm2 and less than 20 mm2.

Abstract: Portable multimedia devices, and techniques for their manufacture, are provided that feature functional parts embedded with a resin matrix that obviates the need for traditional structural components such as midframes and/or outer casings. The resin matrix may be provided through the use of a flowable liquid resin that is flowed around the functional components within a mold cavity. The liquid resin may then be cured into the resin matrix.

Abstract: A touch sensor panel having co-planar single-layer touch sensors fabricated on a single side of a substrate is disclosed. The drive and sense lines can be fabricated as column-like patterns in a first orientation and patches in a second orientation, where each column-like pattern in the first orientation is connected to a separate metal trace in the border area of the touch sensor panel, and all patches in each of multiple rows in the second orientation are connected together using a separate metal trace in the border area of the touch sensor panel. The metal traces in the border areas can be formed on the same side of the substrate as the patches and columns, but separated from the patches and column-like patterns by a dielectric layer.

Abstract: Provided is a laminate for a touch panel that is a laminate that is used in a touch panel, and that can prevent migration of wiring caused by incursion of moisture. The laminate for a touch panel includes a substrate; wiring that is formed on a surface of the substrate; and an adhesive layer that is in contact with the wiring and is provided on the substrate, in which moisture permeability of the adhesive layer is 40 g/(m2·day) or less, and a shortest distance from an end surface to the wiring is 500 ?m or greater.

Abstract: The embodiment of the present disclosure discloses a touch display device and a driving method thereof, relates to the display technical field, and can extend the time for the touch display device to perform touch control. The touch display device includes n rows of pixels and divides the n rows of pixels into several display regions, wherein n is a natural number greater than 1, the driving method of the touch display device comprising: after the touch display device sends a display signal to the ith row of pixels, and before the touch display device sends a display signal to the (i+1)th row of pixels, sending a touch control signal, by the touch display device, to perform touch control on one display region thereamong, wherein 1?i<n.

Abstract: An array substrate comprises a substrate, transistors arranged on the substrate, a first transparent electrode electrically connected with a drain of the transistor, and a second transparent electrode arranged between the first transparent electrode and the substrate. The first transparent electrode comprises strip-shaped electrodes electrically connected with each other. The second transparent electrode corresponds to the first transparent electrode and comprises electrode sets insulated from each other. Each of the plurality of electrode sets comprises two sub-electrodes arranged in the same layer, insulated from each, and arranged in a staggered and complementary manner. The sub-electrodes of the second transparent electrode act as a common electrode in a first preset time and a touch control electrode in a second preset time. A method for controlling the array substrate and a liquid crystal display device are also disclosed.

Abstract: An electronic device has a touch screen comprising a transparent substrate having a first supporting side and an opposing second supporting side. The first supporting side of the touch screen has at least one electrically-conductive pattern, and a dry outermost polymeric coating disposed over at least part but not all of the electrically-conductive metal pattern. The dry polymeric coating has a dry thickness of less than 5 ?m, an integrated transmittance of at least 80%, and a non-crosslinked thermoplastic polymer having a glass transition temperature (Tg) that is equal to or greater than 65° C.

Abstract: An electronic device may include a touch display including at least one display layer, and at least one transparent conductive layer thereon defining touch sensing pixels. The electronic device may also include a finger biometric sensor carried by the touch display and that includes a finger biometric sensing layer including an array of transparent conductive finger biometric sensing pixels capacitively coupled to the at least one transparent conductive layer of the touch display. The finger biometric sensor may also include switchable transparent conductive blocking areas between the finger biometric sensing layer and the at least one transparent conductive layer of the touch display and may be selectively switchable between blocking and reading states.

Abstract: An LCD module may include a color filter (CF) layer with pixels, mounted to the first glass panel, for modifying light energy to form a display image. A transistor layer below the CD layer may include a glass panel, conductive pathways, and transistors coupled to the conductive pathways and for controlling the pixels. A control layer is located below the transistor layer and may include a display controller for generating signals to control the transistor. First wire bondings carry the signals between the display controller and the conductive pathways included in the transistor layer. The LCD module may be used in a substantially round device, such as a watch, to provide a substantially borderless display.

Abstract: A touch display is provided, comprising a display device comprising a plurality of sub-pixels, and a touch layer at least comprising a sensing unit and coupled to the display device. The sub-pixels at least comprise first colored sub-pixels, second colored sub-pixels and third colored sub-pixels. The sensing unit exposes at least one boundary adjacent to one side of each of the sub-pixels. The sensing unit comprises a plurality of sets of line segments, and each set of line segments at least comprises three line segments disposed correspondingly to predetermined boundaries of the sub-pixels. A total number of the first colored sub-pixels adjacent to same sides of the predetermined boundaries, a total number of the second colored sub-pixels adjacent to same sides of the predetermined boundaries, and a total number of the third colored sub-pixels adjacent to same sides of the predetermined boundaries are identical.

Abstract: The present disclosure provides a three-dimensional (3D) touch display device, its manufacturing method and driving method. Touch sensing electrodes and liquid crystal driving electrodes are arranged alternately at an identical layer and insulated from each other in a 3D grating cell. The touch sensing electrodes and the liquid crystal driving electrodes are arranged between an insulating layer and a second substrate, and the liquid crystal driving electrode is configured to drive liquid crystals between the liquid crystal driving electrode and a first substrate to deflect horizontally at a display stage. An electrode layer arranged on a third or fourth substrate is configured to receive a touch driving signal at a touch stage so as to detect a touch operation, and receive a first common electrode signal at the display stage so as to display an image.

Abstract: The present disclosure provides an array substrate, a method for producing the same and a display apparatus. The array substrate comprises: a substrate; a touch electrode wiring pattern formed on the substrate, the touch electrode wiring pattern comprising a plurality of touch electrode wirings; a common electrode pattern formed on the substrate, the common electrode pattern being insulated from the touch electrode wiring pattern and comprising a plurality of block electrodes spaced mutually, wherein the common electrode pattern is also used as a touch electrode pattern, and wherein each of the touch electrode wirings is connected correspondingly to one of the block electrodes in the common electrode pattern.

Abstract: The present invention provides a touch element and a manufacturing method thereof, and a touch screen. The touch element includes a substrate and a touch layer arranged on the substrate, the touch layer is made of a doped carbon nanotube material, and the doped carbon nanotube material is formed by doping and modifying a carbon nanotube material with a strong oxidizing material. The touch element has higher conductivity and lower sheet resistance, which makes the touch element have a good touch performance, thus making a touch product with the touch element achieve the same touch performance while reducing the cost of the touch product; at the same time, the touch layer made of the doped carbon nanotube material has good characteristics of bending resistance, scratch resistance and knocking resistance, so that the touch element can be well applied to the touch of a flexible display product.

Abstract: A touch-enabled display device includes a display panel for displaying an image, a touch sensitive region being disposed at a first surface of the display panel, a window on the display panel and covering the touch sensitive region, and a protecting layer on the window, the protecting layer including a shape memory polymer layer.

Abstract: A touch display device including a touch display panel and a data line driving circuit is provided. The touch display panel includes a plurality of pixels and a first shift register unit. The first shift register unit provides a first shifted signal to a first portion of the pixels. A first transistor receives a clock signal, is coupled to an output node, and outputs the first shifted signal. A second transistor receives a first trigger signal, is coupled to the first transistor. A third transistor is coupled to the second transistor, receives a first operation voltage and a second trigger signal. A fourth transistor is coupled to the first source, receives a second operation voltage and the second trigger signal. A capacitor is coupled between the first transistor and stacked by a first metal layer, a second metal layer, and a third metal layer.

Abstract: An optical adhesive includes a first surface, a second surface, and plural first recessed strips. The first surface is opposite to the first surface. The first recessed strips of the optical adhesive are disposed on the first surface. The optical adhesive has a transmittance greater than 80% in a visible spectrum.

Abstract: A flexible display device having a touch and bending sensing function includes a plurality of pixels on a display area of a first substrate, and a pressure sensor portion between the first substrate and the plurality of pixels, the pressure sensor portion including a plurality of first electrodes arranged in a first direction and a plurality of second electrodes above the first electrodes and arranged in a second direction.

Abstract: An electronic device may include a touch display that includes at least one display layer, and at least one transparent conductive layer thereon defining touch sensing pixels. The electronic device may also include a finger biometric sensor carried by the touch display and that may include an interconnect layer that includes transparent conductive traces, and a finger biometric sensing layer adjacent the interconnect layer and that includes an array of transparent conductive finger biometric sensing pixels capacitively coupled to the at least one transparent conductive layer of the touch display. The finger biometric sensor may also include a transparent dielectric layer between the interconnect layer and the finger biometric sensing layer, and transparent conductive vias extending through the transparent dielectric layer and coupling the array of transparent conductive finger biometric sensing pixels to respective ones of the transparent conductive traces.

Abstract: Sensor data from a sensor system of a mobile device may be used for determining a level of pressure exerted by a user on the mobile device. The sensor system may include one or more types of sensors, such as a microphone and one or more inertial sensors. The inertial sensors may include one or more gyroscopes and/or accelerometers. Based on the inertial sensor data, it may be determined whether and/or how the mobile device is being held. A process for determining a level of pressure exerted by a user on the mobile device may be adapted based, at least in part, on whether and/or how the mobile device is being held. The pressure-determining process may be adapted according to various other criteria, such as a position of a touch target in a display, ambient noise levels, etc.

Abstract: Techniques are described to discern between intentional and unintentional gestures. A device receives a first input from one or more sensors that are coupled to a flexible material to detect input from the user provided by manipulation of the flexible material. In addition, the device receives a second input from one or more environmental sensors that are coupled to the user to detect environmental conditions associated with the user. The device correlates the first input and the second input to determine whether the first input is an intentional input by the user.