Abstract: In a touch screen device, a second space is secured between a peripheral edge of an opening of an exterior case and a panel surface of a touch panel; an elastic body is provided on the back surface of an easily deformable portion extending along the peripheral edge of the opening; and a third space that is narrower than the second space is secured between the elastic body and the panel surface of the touch panel. When the easily deformable portion is pressed and bent by the input operation, the elastic body is brought into contact with the panel surface and displaces the touch panel backward so that the vibrating touch panel does not come into direct contact with the peripheral edge of the opening.

Abstract: A method includes receiving a first output from a first sensor of an electronic device and receiving a second output from a second sensor of the electronic device. The first sensor has a first sensor type and the second sensor has a second sensor type that is different from the first sensor type. The method also includes detecting a gesture based on the first output and the second output according to a complementary voting scheme that is at least partially based on gesture complexity.

Abstract: A method and a device are disclosed, whereby the device can be a first electronic device. The first electronic device is adapted to be coupled to a second electronic device. The method comprises outputting, with the first device, a request to communicatively couple with a second device in response to a gesture performed with the first device. The second electronic device and method of operating it are also disclosed.

Abstract: A computer system comprising that has a display screen that displays information from a computing device. An auxiliary device such as a cover or a keyboard is pivotally attached to the display screen. When the angle between the display screen and the auxiliary device is a first angle that makes it likely that the device is being used normally, the device is then locked against orientation rotation. The angle between the auxiliary device and the display needs to be brought into an unnatural angle in order to allow automatic orientation rotation.

Abstract: An apparatus and method for recognizing motion by using an event-based vision sensor is provided. An apparatus for recognizing motion using an event-based vision sensor includes: a vision sensor to sense a movement-occurring part and output events; a movement type determiner configured to determine a type of movement using a frequency of occurrence of the events outputted through the vision sensor; a first motion determiner configured to track a movement trajectory of the movement-occurring part and determine a motion pattern based on the movement trajectory in response to a result of the movement type determination unit indicating a small movement; a second motion determiner configured to determine a direction of movement direction in which an object moves based on the events in response to a result of the movement type determination indicating a large movement; and a motion controller configured to output a control instruction to control a device.

Abstract: Systems, articles, and methods perform gesture identification with limited computational resources. A wearable electromyography (“EMG”) device includes multiple EMG sensors, an on-board processor, and a non-transitory processor-readable memory that stores data and/or processor-executable instructions for performing gesture identification. The wearable EMG device detects and determines features of signals when a user performs a physical gesture, and processes the features by performing a decision tree analysis. The decision tree analysis invokes a decision tree stored in the memory, where storing and executing the decision tree may be managed by limited computational resources. The outcome of the decision tree analysis is a probability vector that assigns a respective probability score to each gesture in a gesture library.

Abstract: A steering wheel input device is mounted on a vehicle steering wheel and includes a pointer detection device detecting a pointer event on a pointer detection surface, any movement or breaking of the pointer event, and the speed, velocity, and acceleration of the pointer event, and outputs a corresponding pointer detection signal. The steering wheel input device also includes a rotation angle sensor and a processor. The rotation angle sensor takes measurements related to an angle of rotation of the steering wheel and outputs a corresponding rotation detection signal. The processor determines the angle of rotation of the steering wheel using the rotation detection signal, determines which gesture that the pointer detection signal corresponds to using the pointer detection signal and the angle of rotation of the steering wheel, and outputs a command corresponding to the gesture. The command can serve as input to control vehicular systems.

Abstract: A multimedia playing device includes a central processing unit, a plurality of sensors electrically coupled to the central processing unit, and an output unit electrically coupled to the central processing unit. The plurality of sensors are operated together with the central processing unit, such that after the sensors detect different hand movements of a user, the central processing unit reads and determines the hand movement and transmits related control signals to the output unit according to different hand movements to achieve the effects of using a hand posture to control related functional movements and enhancing the convenience of using the multimedia playing device.

Abstract: An image capturing apparatus on which a predetermined optical member is mountable, the apparatus comprises an image capturing unit which captures an object image incident on a lens unit, a detection unit which detects inclinations of the image capturing apparatus relative to a plurality of detection axes and a display control unit which performs control to display information indicating the inclinations of the image capturing apparatus on a display unit based on a detection result from the detection unit, wherein the display control unit performs control to display information indicating an inclination of the image capturing apparatus based on inclinations of different axes of the plurality of detection axes depending on a case in which the optical member is not mounted and a case in which the optical member is mounted.

Abstract: Provided is a remote control for controlling a mobile device. The remote control includes a communications transceiver configured to communicate with the mobile device and an actuator for receiving a user input while the remote control is communicatively coupled to the mobile device. The actuator comprises a touchpad including buttons for receiving the user input which can include a gesture including depressing the touchpad by a thumb; and concurrently moving the thumb across the touchpad. In response, the remote control may be operable to cause swiping a screen associated with a user interface of the mobile device; scrolling a portion of the screen; selecting and launching an application on the mobile device and controlling the functionality of the application; and/or selecting letters on a virtual keyboard provided by the user interface of the mobile device. The remote control is sized to comfortably fit in the user's palm for operation.

Abstract: In embodiments of portable device pairing with a tracking system, a pairing system includes a portable device that generates device acceleration gesture data responsive to a series of motion gestures of the portable device. The pairing system also includes a tracking system that is configured for pairing with the portable device. The tracking system recognizes the series of motion gestures of the portable device and generates tracked object position gesture data. A pairing service can then determine that the series of motion gestures of the portable device corresponds to the series of motion gestures recognized by the tracking system, and communicate a pairing match notification to both the tracking system and the portable device to establish the pairing.

Abstract: An apparatus and method for inputting a character on a touch keyboard in a terminal are provided. A touch screen displays a basic key set and an extended key set. The basic key set includes consonant keys and the extended key set includes character keys corresponding to characters combinable with a consonant corresponding to a consonant key input from the basic key set. The touch screen displays the extended key set, upon input of the consonant key from the basic key set and receiving at least one character from the basic key set and the extended key set.

Abstract: In one embodiment, a method includes accessing, by a stylus, data associated with a particular user of the stylus, the data associated with the particular user being stored in a memory of the stylus; and by the stylus, wirelessly transmitting the data to a device in response to the stylus contacting a touch sensor of the device.

Abstract: A plurality of substantially simultaneous inputs are associated with one or more applications, wherein it is determined if the plurality of inputs includes unacceptable inputs and wherein unacceptable inputs are ignored.

Abstract: Approaches enable a display screen to be configured to display content and/or receive touch-based input based on a location of regions of the display screen. For example, the display screen can include a virtual bezel region that extends along, or proximate to, the edges of the display screen. The virtual bezel region can surround a display region that is configured to display image content. By default the virtual bezel region may be configured to display no content, or at least no active content, in order to approximate the appearance of a physical bezel. The virtual bezel can be configured to exhibit characteristics similar to that of the physical bezel. For example, the virtual bezel region can be configured to operate as a ‘dead zone’, where touch-based input is deactivated. The virtual bezel region can also be configured to display a portion of any content displayed in the display region.

Abstract: An input device and a method of switching an input mode of the input device are provided. The input device includes a main body, a state detecting module, a touchpad and a control unit. The main body includes a top surface, a bottom surface and a side surface connected the bottom and top surfaces. The state detecting module includes a first state detecting unit disposed at the bottom surface and a second state detecting unit disposed at the side surface. The first and second state detecting units detect a using state of the input device and generate first and second detecting signals, respectively. The control unit is electrically connected to the state detecting module and the touchpad, and the control unit switches the touchpad to a first control mode or a second control mode according to the first and second detecting signals.

Abstract: Features of a mouse configured to be used as an user interface with a computing device are described. The mouse may include an arm component, a body component coupled to a first part of the arm component, and a wheel component coupled to a second part of the arm component.

Abstract: The present invention discloses a method for coordinating computer interface presentation controlled by user interface between a source screen and at least one sink display, where the computer interface is associated with the sink screen. The comprising the steps of: tracking mouse cursor motion on the sink screen, in case mouse cursor moving beyond external monitor desktop area: sending location data to source device, coordinate of mouse cursor to source wireless mobile device by rendering mouse cursor at the source device for displaying on the device screen, in case of identifying mouse cursor moving to the external monitor desktop area from the source and stop rendering mouse cursor at the source and start rendering at the dongle for displaying mouse on the external screen.

Abstract: In one embodiment, a device includes a form factor of a stylus. The form factor includes a surface area. The device also includes one or more substrates disposed along one or more portions of the surface area; one or more touch sensors disposed on one or more of the substrates; and a computer-readable non-transitory storage medium coupled to one or more of the touch sensors and embodying logic configured to control one or more of the touch sensors.

Abstract: In one embodiment, an active stylus includes one or more computer-readable non-transitory storage media embodying logic for wirelessly communicating with a device through a touch sensor of the device. The active stylus also includes a tip configured to receive an applied force and a force sensor configured to receive an inverse transferred force from a force-transfer element. The force-transfer element is mechanically coupled to the tip and configured to apply the inverse transferred force to the force sensor. The inverse transferred force is inversely correlated with the applied force when the applied force is less than a threshold force.

Abstract: This invention relates to the field of remotely controlling the mobile computing device. It further relates to an apparatus and method of at least replicating in a portable pen-like device the ability to control a portable computing device to the same extent as the level of control attainable by a standard PC keyboard when attached to a standard PC; and relates to various embodiments of the apparatus and method.

Abstract: A steering wheel for a vehicle, including a toroidal steering wheel surrounding an airspace and mounted in a vehicle, an array of invisible-light emitters mounted in the steering wheel to project invisible light beams across the airspace, an array of light detectors mounted in the steering wheel to detect the invisible light beams projected by the invisible-light emitters, and to detect gestures inside the airspace that interrupt the invisible light beams projected by the invisible-light emitters, and a processor connected to the light detectors to identify the gestures inside the airspace detected by the light detectors, and to control an item of equipment mounted in the vehicle, in response to the thus-identified gestures inside the airspace.

Abstract: User input devices with variable pressure buttons are configured. A user may specify a range of pressure to be associated with a pressure level. In some embodiments, a user may also associate a command or other instruction to an application with an identity of a variable pressure button and a pressure level of the button. In some embodiments, the associations may be represented in a configuration profile. In further embodiments, a microcontroller for a mouse may translate signals from variable pressure buttons into pressure levels based upon the configuration file. In many embodiments, a user may associate a reporting rate with a variable pressure button. A legacy application may receive reports of the state of the variable pressure button at the associated reporting rate.

Abstract: Embodiments of the present invention are directed to methods, software, devices and APIs for defining touch events for application level software. Furthermore, some embodiments are directed to simplifying the recognition of single and multiple touch events for applications running in multi-touch enabled devices. To simplify the recognition of single and multiple touch events, each view within a particular window can be configured as either a multi-touch view or a single touch view. Furthermore, each view can be configured as either an exclusive or a non-exclusive view. Depending on the configuration of a view, touch events in that and other views can be either ignored or recognized. Ignored touches need not be sent to the application. Selectively ignoring touches can allow for simpler software elements that do not take advantage of advanced multi touch features to be executed at the same device and time as more complex software elements.

Abstract: Methods for piecewise-linear and piecewise-affine transformations parameter decoupling in High Dimensional Touchpad (HDTP) user touch interfaces including those with multitouch capabilities are described. A calculation chain provides a first-order calculation of a subset of a collection of touch parameters (including for example left-right, front-back, downward pressure, roll angle, pitch angle, yaw angle) responsive in real-time to user touch on a touch-responsive sensor array. A piecewise-affine transformation is applied to these first-order calculations to produce parameter decoupling. The piecewise-affine transformation can be structured to depend only on current numerical values from the first-order calculation. Alternatively, the piecewise-affine transformation can be structured to additionally depend on the positive or negative direction of change over time of at least one numerical value from the first-order calculation, thereby providing a correction for hysteresis effects.

Abstract: A method of filtering a touch screen input is disclosed that includes the steps of detecting a position of a first touch on a touch screen, determining a validation area that includes the position of the first touch, detecting a position for each of one or more second touches on the touch screen, and providing a touch event signal if the positions of all of the second touches are within the validation area.

Abstract: A display apparatus that may enable sensing a multi-touch and a proximity object is provided. The display apparatus may display an image generated by the object on an organic light emitting diode (OLED) display panel, and may sense an invisible light that may be reflected by the object and may have entered through a hole.

Abstract: A terminal apparatus that includes a touch panel; a proximity detection unit configured to detect an approach and contact of an external object to the touch panel based on a changed in capacitance value and to detect a location on a surface of the touch panel where the capacitance value changed; and an operation control unit configured to control the proximity detection unit to stop the detection of a location contacted by the external object on the touch panel surface when the approach of the external object is detected by the proximity detection unit.

Abstract: A reduced-latency ink rendering system and method that reduces latency in rendering ink on a display by bypassing at least some layers of the operating system. “Ink” is any input from a user through a touchscreen device using the user's finger or a pen. Moreover, some embodiments of the system and method avoid the operating system and each central-processing unit (CPU) on a computing device when initially rendering the ink by going directly from the digitizer to the display controller. Any correction or additional processing of the rendered ink is performed after the initial rendering of the ink. Embodiments of the system and method address ink-rendering latency in software embodiments, which include techniques to bypass the typical rendering pipeline and quickly render ink on the display, and hardware embodiments, which use hardware and techniques that locally change display pixels. These embodiments can be mixed and matched in any manner.

Abstract: In some examples, an electronic device may present a user interface that is configured to be controlled using a thumb of a single hand that is holding the device. For instance, the interface may present a plurality of selectable items, each of which may correspond to a respective one of a plurality of touch input areas on the display. In some cases, the touch input areas are within reach of the thumb, while the selectable items may be displayed on an area of the display that is not within reach of the thumb. The thumb may be pressed against the display surface with a force greater than a force threshold to select one of the selectable items. Thus, the thumb may be used to interact with the interface while remaining in contact with the display surface, enabling the user to maintain a grip on the device.

Abstract: A touch screen having a touch control electrode, wherein the touch control electrode comprises: a first electrode unit having a first strip body and a first teeth-like structure perpendicular to the first strip body and extending from a side of the first strip body; and a second electrode unit having a second strip body and a second teeth-like structure perpendicular to the second strip body and extending from a side of the second strip body. The first teeth-like structure of the first electrode unit and the second teeth-like structure of the second electrode unit are arranged to face each other and spaced away from each other. The first teeth-like structure of the first electrode unit and the second teeth-like structure of the second electrode unit are configured to shade light. The present invention also discloses a method for manufacturing the touch screen and a 3D display apparatus.

Abstract: To provide a touch panel with reduced disturbance of display and with improved mechanical strength by suppressing variation in the space between a pair of substrates which form the touch panel even when in contact with an object to be detected. A pixel portion including a plurality of pixels is provided between a pair of substrates. Each pixel includes a photosensor portion which detects that the object to be detected is in contact with one of the pair of substrates, and a MEMS portion which generates a mechanical displacement in a direction perpendicular to the pair of substrates when a signal based on a detection result of the photosensor portion is input.

Abstract: A protection mechanism for force-based touch sensitive input panels or displays comprising a “snap dome”, e.g., a semi-rigid pliable dome positioned over each sensor for increased overload protection. The snap dome is unidirectionally-resilient to a known point of collapse. It therefore imparts a predetermined resistance to compression over a known range of travel along the z-axis, but is unyielding along the x- and y-axis. As the touch panel is depressed toward the standoff, the snap dome resists compression until it collapses, allowing the touch panel to encounter the standoff. The standoff then imparts dead-stop overload force protection to the sensors. This allows for the placement of mechanical stops (such as stop screws) with a less exacting tolerance. Moreover, the snap domes introduce no x- or y-axis force losses/increases, and do not cause tilting of the touch panel. The touch force remains perfectly perpendicular and accuracy is preserved.

Abstract: A method is disclosed of controlling a user interface device for displaying on a display screen a plurality of objects, and for enabling a user to perform an input action by touching the display screen with the user's finger. This method includes: upon the user's touch to the display screen at a region of one of the plurality of objects being displayed, selecting the one object as a zoom target; upon an event occurring in which an intensity of the finger's touch on the display screen exceeds a predetermined threshold, determining a magnification ratio of the zoom target or a change rate of the magnification ratio, based on the intensity of the finger's touch; and zooming in the zoom target on the display screen with the determined magnification ratio or the determined change rate.

Abstract: A mobile device and a method for providing a User Interface (UI) thereof are provided. The mobile device includes a pressure detecting unit configured to detect a pressure, a user interface unit configured to perform a user interface, and a control unit configured to control the user interface unit to activate when the pressure detecting unit detects pressure and determine a function being performed by a user interface input through the user interface unit and the pressure detected at the pressure detecting unit.

Abstract: A touch-sensitive device with stylus includes a touch panel, a stylus drive unit, a touch panel sense unit, and a measurement unit. A touch by a stylus proximate to a touch panel electrode changes a capacitive coupling between the touch panel electrode and a stylus electrode. The amplitude of the response signal is responsive to the capacitive coupling between the touch panel electrode and the stylus electrode, and is measured to provide an indication of the position of the stylus electrode relative to the touch panel.

Abstract: An apparatus for detecting a touch event using a first touch interface and a second touch interface includes one or more touch-sensitive sensors, a first touch interface, and a second touch interface. The first touch interface includes an optical touch interface. The second touch interface is of a different type than the first touch interface. The apparatus also includes a storage device storing machine-readable code and a processor executing the machine-readable code. The machine-readable code includes a first interface module determining a touch position on the one or more touch-sensitive sensors using the first touch interface. The machine-readable code further includes a second interface module detecting a touch contact on the one or more touch-sensitive sensors using the second touch interface.

Abstract: There is provided a click-event detection device including a light source, a light control unit, an image sensor and a processing unit. The light control unit is configured to control the light source to illuminate a finger. The image sensor receives reflected light from the finger to accordingly output a plurality of bright image frames and dark image frames. The processing unit is configured to calculate a differential image characteristic between the bright image frames and the dark image frames, to determine a plurality of operating states according to the differential image characteristic, to count a residence time at each of the operating states, and to identify a click-event according to the operating states and the residence time.

Abstract: In one embodiment, a touch-sensitive device includes a controller that is communicatively coupled to a plurality of electrodes. The controller is operable to access data from a motion sensor of the touch-sensitive device. The controller is further operable to access a plurality of signals from the plurality of electrodes. The signals are indicative of an amount of capacitance between the touch sensor and one or more fingers of a user. The controller is further operable to determine, based on the data from the motion sensor and the plurality of signals from the plurality of electrodes of the touch sensor, a particular hand of the user that is holding the touch-sensitive device.

Abstract: An electronic device may include a touch screen electronic display configured to offset and/or shift the contact locations of touch implements and/or displayed content based on one or more calculated parallax values. The parallax values may be associated with the viewing angle of an operator relative to the display of the electronic device. In various embodiments, the parallax value(s) may be calculated using three-dimensional location sensors, an angle of inclination of a touch implement, and/or one or more displayed calibration objects. Parallax values may be utilized to remap contact locations by a touch implement, shift and/or offset displayed content, and/or perform other transformations as described herein. A stereoscopically displayed content may be offset such that a default display plane is coplanar with a touch surface rather than a display surface. Contacts by a finger may be remapped using portions of the contact region and/or a centroid of the contact region.

Abstract: The various methods and devices described herein relate to devices which, in at least certain embodiments, may include one or more sensors for providing data relating to user activity and at least one processor for causing the device to respond based on the user activity which was determined, at least in part, through the sensors. The response by the device may include a change of state of the device, and the response may be automatically performed after the user activity is determined.

Abstract: A touch screen including a housing, a display mounted in the housing, a plurality of collimating lenses mounted in the housing and arranged along a first edge of the display, a plurality of light pulse emitters mounted in the housing that are spaced apart from and serially transmit light pulses through the collimating lenses over the display, a light guide mounted in the housing along the edge of the display opposite the first edge, for receiving the light pulses, the light guide including a reflective strip that reflects light pulses to one end of the light guide, a light pulse receiver mounted in the housing near the one end of the light guide, for receiving the reflected light pulses, and a calculating unit, mounted in the housing and connected to the receiver, for determining a location of a pointer on the display that partially blocks light pulses transmitted by the emitters, based on outputs of the receiver.

Abstract: There is provided an optical touch system including at least one lighting unit, at least one image sensing module and a processing unit. The image sensing module is configured to capture light of a pointer and the lighting unit to generate a two-dimensional image and to convert entire of the two-dimensional image to a one-dimensional feature. The processing unit positions the pointer according to the one-dimensional feature.

Abstract: A coupling element (14) for use in a touch-sensitive apparatus is arranged to transfer light between an electro-optical device (2) and a panel (4) for light transmission. The electro-optical device (2) is an emitter or a detector and has an operative solid angle given by orthogonal device divergence angles. The coupling element (14) is an optical component with a first light transmission surface (21) for facing the electro-optical device (2), and a second light transmission surface (22) for mounting on the panel (4). The coupling element (14) has an optical structure (23) that directs the light between the first and second light transmission surfaces (21, 22) by one or more reflections while expanding one device divergence angle (?x) into a component divergence angle at the second light transmission surface (22). Thereby, the component divergence angle defines a divergence (?p) in the plane of the panel (4) with respect to light propagating by internal reflections inside the light transmissive panel (4).

Abstract: A method, a device, and a non-transitory storage medium having instructions to detect, via an ultrasound transducer, an ultrasound event that includes an ultrasound signal that is transdermally propagated on the body of a user and generated by an on-body touch in an area in which the ultrasound signal has propagated; detect a state of a limb of the user on which the device is worn, wherein the state is a contracted state or a relaxed state; and select an input based on the receipt of the ultrasound signal and the state of the limb. An accelerometer may be used to detect muscle tremor and determine whether the state of the limb.

Abstract: A touch-screen monitor is described. The monitor includes an ultrasonic sensor for detecting motion of an object that is placed in contact with the monitor.

Abstract: There are provided a touch sensing device and a touchscreen device, the touch sensing device including a plurality of driving electrodes extended in a first axial direction, a plurality of sensing electrodes extended in a second axial direction intersecting with the first axial direction, an integrating circuit unit generating a first analog signal by integrating a change in capacitance generated in a first sensing electrode among the plurality of sensing electrodes and generating a second analog signal from a change in capacitance generated in a second sensing electrode adjacent to the first sensing electrode, and a subtracting unit calculating a difference in levels between the first and second analog signals.

Abstract: A touch screen panel is disclosed. In one aspect, the touch screen panel includes a substrate divided into a display area and a non-display area positioned outside the display area, sensing lines in the display area and wiring lines in the non-display area. Each wiring line is connected to two or more sensing lines. The switching units are connected to the sensing lines and the wiring lines so as to selectively connect one of each of the sensing lines to each of the wiring lines.

Abstract: A display device includes a display panel and a touch panel. The touch panel calculates coordinate information of an input position by an electrostatic capacitive method in a first mode and calculates the coordinate information of the input position by an electromagnetic induction method in a second mode. The touch panel includes scan line groups and source line groups, which are operated as touch electrodes or touch coils on the basis of the operating mode thereof. In addition, the touch panel includes touch electrodes and touch coils, which are individually operated on the basis of the operating mode thereof.

Abstract: A touching apparatus and a touching detecting method thereof are provided. The touching detecting method is adapted for a touch panel. The touch panel has a plurality of touching rows and a plurality of touching columns. The touching detecting method includes: performing a mutual-capacitor touching detection and a self-capacitor touching detection alternatingly to the touch panel for obtaining a mutual-capacitor detection result and a self-capacitor detection result, respectively; and obtaining position information of at least one touch point on the touch panel by an operation based on the mutual-capacitor detection result and the self-capacitor detection result.