Abstract: There is provided a pointing device fitting structure. The pointing device fitting structure includes a frame provided with a projecting portion, and a support member to which a pointing stick is attached. The frame is fixed to the support member via the projecting portion.

Abstract: A handheld device includes a memory module, a sensing module and a processing module. The processing module is coupled to the sensing module and the memory module. The memory module stores a plurality of applications. The sensing module detects a motion of the handheld device and provides a sensing signal. The processing module executes at least one of the plurality of applications and receives the sensing signal. When the handheld device enters a motion operation mode and the processing module receives the sensing signal from the sensing module, the processing module controls the handheld device to execute a specific function according to at least one of the applications being executed and the sensing signal received by the handheld device.

Abstract: The projector of the present disclosure has a projecting section, a detecting section, and a control section. The projecting section projects an output image. The detecting section detects distance data from the projecting section to a projection plane on which output image is projected, and detects user's pointing operation spatially. The control section calculates spatial positions, to which each pixel of an original image is projected, based on the distance data, and provides the original image with geometrical correction so as to obtain the output image. According to calculation result, the control section determines positional relation between a position pointed by the user's pointing operation and a pixel position in the original image.

Abstract: A method for controlling a virtual input interface in a device comprising a touch-screen, the method comprising the steps of: displaying virtual input interface comprising a plurality of commands; awaiting a change in device's orientation in 3D space; determining the change type the method being characterized in that it further comprises the steps of: executing a command of zooming or panning of the virtual input interface based on the determination step; updating the displayed virtual input interface to reflect the executed command.

Abstract: This patent describes a foot controlled mouse for ease of access to information on a computer during operations or procedures during which it is impractical for a doctor, surgeon, or dentist to have access to a keyboard. It operates through the use of pressure sensors.

Abstract: A user terminal device and a control method are provided. The user terminal device includes a display, a sensor configured to sense a user interaction on the display, and a controller configured to, in response to a user interaction being sensed by the sensor of a touch being made by an input device of a polyhedral shape that includes different touch patterns on each of a plurality of surfaces, control a function of the user terminal device according to a touch pattern on a touched surface among the plurality of surfaces.

Abstract: An electronic device may have printed circuits to which electrical components are mounted. Plastic may be molded over a printed circuit. Vias may be formed in the printed circuit that connect metal traces on the surface of the molded plastic to metal traces on the printed circuit. The vias may be formed by drilling or by covering the metal traces on the printed circuit with mold pins in a molding tool during plastic molding operations. Plated metal traces or other metal traces may extend onto the interior surface of via holes. Vias may also be filled with conductive material such as solder or conductive adhesive. Metal members that are soldered or otherwise connected to printed circuit traces may be used in coupling surface metal traces to printed circuit traces. Antenna structure, shielding structures, and electrodes for a stylus may be formed using the metal traces on the molded plastic.

Abstract: In one embodiment, a stylus with one or more electrodes and one or more computer-readable non-transitory storage media embodying logic for transmitting signals wirelessly to a device through a touch sensor of the device has one or more sensors for detecting movement of the stylus.

Abstract: In one embodiment, a stylus has one or more sensors that detect the movement of the stylus, such as an accelerometer, a gyroscope, or a magnetometer. The stylus wirelessly transmits signals to a device based on the movement of the stylus.

Abstract: A method including displaying an orthogonal grid on a touchscreen display. The touchscreen display is in communication with a test and measurement instrument. The orthogonal grid has an axis that is associated with a controlled output parameter of the test and measurement instrument. The method also includes detecting a touch input at the touchscreen display. The touch input includes a continuous slide gesture made by a user substantially along the axis of the orthogonal grid. The slide gesture begins at a first location on the axis and ends at a second location on the axis. Also, the method includes adjusting the controlled output parameter of the test and measurement instrument from an initial value to an adjusted value. The initial value corresponds to the first location of the slide gesture and the adjusted value corresponds to the second location of the slide gesture. Systems are also disclosed.

Abstract: A method and apparatus for detecting touch input at a touch sensor is provided. The touch sensor comprises a plurality of row traces, a plurality of column traces and an intersection corresponding to an identified row trace of the plurality of row traces and an identified column trace of the plurality of column traces. The touch sensor also includes at least one driver for driving the plurality of column traces and at least one reader for reading the plurality of row traces. The drivers and the readers scan the identified intersection by entering into a with-floating scan state, reading a first value for the identified row trace, entering into a without-floating scan state and reading a second value for the identified row trace. The presence of a touch input is accordingly determined based on the first and second values.

Abstract: An electronic device including one or more processors, a touch-sensitive surface, and memory detects a contact area of a set of one or more contacts on the touch-sensitive surface. A plurality of changes in the contact area are mapped to corresponding predefined responses. After detecting the contact area, a change in the contact area that includes a liftoff of at least a portion of the set of one or more contacts from the touch-sensitive surface is detected. In response to detecting the change in the contact area, in accordance with a determination that the change is a first change in the contact area, a first predefined response is performed. In accordance with a determination that the change is a second change in the contact area, a second predefined response that is different from the first predefined response is performed.

Abstract: Configurations of a touch panel having a relatively narrow trace area and a manufacturing method thereof are disclosed. In the proposed touch panel, the trace area includes a grounding layer, a first insulating layer configured on the grounding layer, and a first sensor trace configured on the first insulating layer.

Abstract: A method of designing a conductive pattern with reduced channel break visibility includes generating a representation of the conductive pattern in a software application and placing a plurality of non-linear channel break voids that partition the conductive pattern into a plurality of channels. Each non-linear channel break isolates adjacent channels.

Abstract: Examples of the present disclosure generally provide current feedback techniques for capacitive sensing with an input device. A processing system for an input device includes an operational amplifier having a non-inverting input, an inverting input, and an output. A voltage source is coupled to the non-inverting input. A first voltage-controlled current source is coupled between the output and the inverting input to form a feedback path. A second voltage-controlled current source is coupled to the output and configured for modifying a charge on a capacitor based on a control voltage at the output. A determination module is coupled to the capacitor and configured for determining a capacitance measurement at the inverting input based on the charge on the capacitor.

Abstract: A display device having a capacitive sensing device, a processing system, and a method are provided for detecting presence of an input object using a capacitive sensing device having a plurality of sensor electrodes arranged in a matrix. The described technique programmatically combines multiple sensor electrodes into a larger sensor electrode for absolute capacitive sensing. The sets of sensor electrodes that are combined may be selectively coupled based a window size and a step size associated with a number of sensor electrodes in common between the sets.

Abstract: A display device includes a first substrate and a second substrate disposed above the first substrate. A touch unit is disposed on the second substrate. A window is disposed on the touch unit. The window covers the first and second substrates. A touch printed circuit board is disposed on the second substrate. The touch printed circuit board is coupled to the touch unit. An adhesive layer is disposed between the first substrate and the window. A plurality of spacers are disposed between the touch printed circuit board and the window. Each of the plurality of spacers is spaced apart from each other.

Abstract: A touch sensing device for detecting approach of a detection target to a detection area of a sensing face, including a base, detection electrodes, and a controller. The base includes a counterpart area corresponding to the detection area and being located on a deeper side in the touch sensing device relative to the detection area. The detection electrodes are arranged at intervals in the counterpart area, and an electrostatic capacitance between at least one of the detection electrodes and the detection target changes in response to an approach of the detection target to the detection electrode so as to change an output signal from the detection electrode. The controller detects that the detection target approaches the detection area corresponding to the counterpart area when an output signal or signals from a predetermined number, being at least one, of the detection electrode or electrodes in the counterpart area has changed.

Abstract: A capacitive touch panel is disclosed. The capacitive touch panel includes a laminated structure. The laminated structure includes a liquid crystal displaying module, a single-layer touch sensor, and a polarizing module. The single-layer touch sensor is disposed on the liquid crystal displaying module. The polarizing module is disposed on the single-layer touch sensor. The single-layer touch sensor includes a plurality of first electrodes and a plurality of second electrodes. The first electrodes and the second electrodes are configured in an asymmetric electrode arranging way, so that one of the first electrodes will be arranged corresponding to at least two of the second electrodes.

Abstract: Provided is a conductive pattern which has low visibility, has a high light transmittance, and hardly produces moire, and therefore is suitable as an optically transparent electrode for a capacitive touchscreen. The conductive pattern has a row of unit graphics formed of a conductive metal thin line or a metal thin line having line breaks, the unit graphic is selected from a concave hexagon and the congruent figures thereof, the concave hexagon has one inner angle greater than 180° (Angle A) and five inner angles each smaller than 180° with the proviso that the total of Angle A and the third angle from Angle A (Angle B) is 360°, the unit graphics adjoiningly line up in the row, and the row of the unit graphics extends in a direction of the bisector of an angle formed by the bisector of Angle A and the bisector of Angle B.

Abstract: Disclosed is a display device with a capacitive touch panel including a laminate between a display panel and a cover layer, the laminate having a viewing-side polarizing plate, a first conductive layer, a second conductive layer, and a substrate, in which the substrate has an optical film with a phase difference of (2n?1)?/4, where n is a positive integer, the viewing-side polarizing plate has a polarizing film, and a slow axis of the optical film intersects a transmission axis of the polarizing film at an angle of about 45° as viewed in the stacking direction.

Abstract: A touch panel in which warpage due to a difference in the linear expansion coefficient between resin layers is reduced while achieving reduction in thickness and weight by using a multi-layered resin base material. A capacitive touch panel includes a transparent resin base material; a transparent resin layer formed on the front surface of the transparent resin base material; a decorative printed layer formed on an outer edge of the back surface of the transparent resin base material; and a warp prevention layer formed so as to extend and cover over the back surface of the transparent resin base material and the decorative printed layer.

Abstract: A driving unit (14) applies a driving voltage based on a predetermined code sequence to each of a plurality of drive lines, and thereby an integration circuit (21) outputs a linear sum signal based on a linear sum of amounts of charges accumulated in a sense line. This is performed a plurality of times, and a computation unit (23) estimates an electrostatic capacitance. The driving unit (14) applies a positive driving voltage and a negative driving voltage to a pair of adjacent drive lines.

Abstract: A touch panel includes: an upper transparent substrate having an upper transparent electrode film; a lower transparent substrate having a lower transparent electrode film; a first electric wiring formed on the upper transparent electrode film; a second electric wiring formed on the lower transparent electrode film; an insulator formed between the first electric wiring and the second electric wiring, the insulator being made of a material with a light shielding effect; and a decoration layer formed on the upper transparent substrate so as to cover the first electric wiring, the second electric wiring and the insulator.

Abstract: A computing device includes a housing and a display assembly having a screen. The housing at least partially circumvents the screen so that the screen is viewable and a set of touch sensors are provided with the display assembly. A processor is provided within the housing to detect a plurality of interactions with the set of touch sensors. The processor further determines, based on the plurality of interactions, a presence of extraneous objects on a surface of the screen of the display assembly. More specifically, the processor may determine that the screen is wet if three or more interactions are detected, concurrently, via the set of touch sensors and/or a contact duration associated with each of the plurality of interactions exceeds a threshold duration.

Abstract: Synchronization of display functions and various touch, stylus and/or force sensing functions for devices including a variable refresh rate (VRR) display is disclosed. In some examples, touch, stylus and/or force sensing functions can be synchronized with display frames and a display refresh rate can be adjusted by extended blanking of the display for one or more display frames. In other examples, touch, stylus and/or force sensing functions can be synchronized with display sub-frames and a display refresh rate can be adjusted by extended blanking of the display for one or more display sub-frames. Pre-warning synchronization signals can be generated to prepare one or more scan controllers to implement the appropriate scan events during and after extended blanking periods. Latency between the scan results and the corresponding image on the display can be corrected in software and/or firmware by time-stamping scan results or by dropping scan results from uncompleted scans.

Abstract: Provided is a display panel including a loop-shaped conductive path which is manufactured by performing a conductive ink jetting process and a high-degree vacuum removal process to effectively vaporizing a solvent in a conductive ink line at lower temperature than the boiling point at atmospheric pressure of the solvent. The conductive path manufactured as such does not allow a stain or a trace, such as a pull-back region, to be left around the conductive path. Thus, it is possible to obtain the loop-shaped conductive path having an initially intended design without being damaged during a process.

Abstract: For the frequencies and intensities of moire obtained by applying the human visual response characteristics to the frequency information and intensity information of moire which are respectively calculated from the peak frequencies and peak intensities of a two-dimensional Fourier spectrum of the transmittance image data of a wiring pattern and the peak frequencies and peak intensities of a two-dimensional Fourier spectrum of the transmittance image data of a pixel array pattern, the sum of the intensities of moire with frequencies which are within a predetermined frequency range that is determined according to the visual response characteristics is equal to or less than a predetermined value.

Abstract: The present invention provides a touch-sensing panel including a polarization plate and a patterned sensing electrode layer. The polarization plate has a first surface and a second surface, and the first surface and the second surface are disposed opposite to each other. The first patterned sensing electrode layer is disposed on the first surface, and the first patterned sensing electrode layer is directly attached on the first surface of the polarization plate.

Abstract: A touch panel is provided. The touch panel includes: a substrate, wherein the substrate includes a viewing region and a border region at an edge of the viewing region; a patterned transparent conductive layer formed on the substrate, wherein the patterned transparent conductive layer is formed on the viewing region and the border region, and the patterned transparent conductive layer has a touch sensitive function; and a patterned metal layer formed on the border region, wherein the patterned metal layer includes a contact region and a trace region connecting to the contact region, and at least a portion of the contact region overlaps with the patterned transparent conductive layer, wherein a shift range between the contact region and the patterned transparent conductive layer disposed on the border region adjacent to the contact region is smaller than about 150 ?m.

Abstract: Systems and method of performing touch and force sensing in an electronic device. The device includes a cover and an array of touch-sensor electrodes disposed below the cover. The first array of electrodes may be configured to sense a touch on the cover using a capacitive sensing scheme. The device also includes a force-sensor drive electrode disposed below the first array of electrodes and a force-sensor sense electrode disposed below the force-sensor drive electrode. The force-sensor drive and sense electrode may be configured to sense a force on the cover. The device also includes a shared drive circuit having an output that is operatively coupled to the array of touch-sensor electrodes and the force-sensor drive electrode.

Abstract: The invention provides a pressure detecting device containing a pressurized member having a contact surface that is subjected to pressure due to contact with a pressurizing means; and a piezoelectric member that is arranged facing the pressurized member and that includes a polymeric piezoelectric material having a piezoelectric constant d14 of 1 pm/V or more as measured by a displacement method at 25° C., and a ratio IEb/IEa between a product IEb of a cross-sectional secondary moment Ib and a Young's modulus Eb of the pressurized member, and a product IEa of a cross-sectional secondary moment Ia and a Young's modulus Ea of the piezoelectric member, is in a range of from 102 to 1010.

Abstract: A mechanism is provided for enhancing a selection region for select information associated within a document. A document is analyzed to determine one or more pieces of information in the document that are likely to be selected by the user, wherein the one or more pieces of information are less than all of the information in the document. Responsive to the document failing to have been analyzed before, a selection region associated with each piece of information in the one or more pieces of information is enlarged by a first predetermined size amount thereby forming a respective region enlargement value for each piece of information in the one or more pieces of information. The region enlargement value for each piece of information in the one or more pieces of information is then recorded.

Abstract: An electronic device is provided. The electronic device includes: a touch screen having a sensing array with a plurality of sensors and a display panel having a displaying area; and a processor. The sensing area of the sensing array is smaller than or equal to the displaying area. The processor determines whether a user's finger touches an icon displayed on the display panel, wherein the icon corresponds to an application. When the processor determines that the user's finger touches the icon, the electronic device controls a first sensing area of the sensing array corresponding to a first displaying area of the icon to enter a fingerprint sensing mode to capture a fingerprint image of the user's finger for fingerprint recognition. When the processor determines that fingerprint recognition is approved, the processor activates the application corresponding to the icon.

Abstract: A scanning method and device of a single layer capacitive touch panel has a self and mutual capacitive scanning procedures. The single layer capacitive touch panel has multiple electrode groups and shielding units respectively formed between the two corresponding adjacent electrode groups. When the self capacitive scanning procedure is executed, a first driving signal is outputted to each of the electrode groups and each of the shielding units. A self capacitive sensing signal of the driven electrode group is received after then. When the mutual capacitive scanning procedure is executed, a second driving signal is outputted to each of the electrode group and each of the shielding unit is connected to a ground. A mutual capacitive sensing signal from each of the driven electrode groups is received after then. Therefore, the self capacitance value of the self capacitive sensing signal is not increased greatly since the shielding units are not connected to the ground.

Abstract: According to one embodiment, a first substrate includes a gate line extending in a first direction, a source line extending in a second direction intersecting the first direction, a switching element SW which is connected to the gate line and the source line, and a pixel electrode which is connected to the switching element SW. The first substrate includes a common electrode which is opposed to the pixel electrode, and a detection electrode element Tx necessary for sensing a state of closeness of a conductor brought externally, that extends parallel to the common electrode and is formed of a metallic material. By this structure, power consumption of a drive electrode of an input sensor can be reduced, and improvement of a drive frequency can be obtained.

Abstract: Systems and methods are provided for improving the latency for display of ink during user creation of ink content with an object, such as a stylus, mouse, finger (or other touch input), or other drawing device. In order to reduce or minimize the time for display of ink content created by a user, aspects of the technology described herein generate predictive wet ink that can be displayed with actual wet ink. The predictive wet ink is calculated by extending an active ink segment a predictive distance. The predictive distance is intended to be a distance between a termination ink point for an active wet ink segment and a tip of the writing object. In one aspect, the predictive distance is calculated by determining the current latency period on a touch device and the velocity of the writing object.

Abstract: Disclosed are an apparatus and a method for reducing a ghost touch in an electronic device. According to various embodiments, the electronic device includes a touch screen, and at least one processor implementing the method, which includes detecting touches to the touch screen, and detecting a ghost touch based on at least two of: a time interval between the touches detected through the touch screen, a distance between the touches, and a touch area of the touches.

Abstract: Disclosed is a touch panel device having a plurality of touch sensors for detecting a touch position that includes a coordinate calculation unit that calculates a touch coordinate from an output value of at least one of the plurality of touch sensors; and a coordinate correction unit that receives a calculated touch coordinate from the coordinate calculation unit, includes a lookup table that stores a correspondence relationship between a plurality of real touch position coordinates and a plurality of calculated touch coordinates, and extracts one of the plurality of real touch position coordinates as a corrected touch coordinate that corresponds to the calculated touch coordinate.

Abstract: A portable phone device includes a display, a touch panel superimposed on the display and configured to detect a touch operation, an area defining module configured to define within the touch panel a restricted area in which acceptance of the touch operation is restricted, and a determination module configured to determine whether or not a screen being displayed on the display is a target screen for defining the restricted area. The area defining module defines the restricted area based on that the screen being displayed on the display is determined to be a target screen by the determination module.

Abstract: A computing device includes a housing and a display assembly having a screen. The housing at least partially circumvents the screen so that the screen is viewable and a set of touch sensors are provided with the display assembly. A processor is provided within the housing to detect a gesture via the set of touch sensors, and to interpret the gesture as one of a plurality of user inputs. The processor further detects a presence of extraneous objects on a surface the screen of the display assembly, and adjusts one or more settings of the computing device in response to detecting the presence of extraneous objects. For example, the processor may adjust the one or more settings by reconfiguring a set of actions to be performed in response to the plurality of user inputs.

Abstract: Techniques for detecting noise with a capacitive sensing device. The includes driving a set of one or more sensor electrodes of a plurality of sensor electrodes with a sensing signal at a first frequency, receiving resulting signals based on the sensing signal for each of the one or more sensor electrodes driven, probing the set of one or more sensor electrodes to obtain a set of probing signals, and summing the probing signals of the set of probing signals to generate a noise-analysis signal.

Abstract: A touch sensing device includes a panel including pixels disposed in a matrix form defined by data lines and gate lines, the pixels including thin film transistors (TFTs). The touch sensing device includes at least one touch sensor having a mutual capacitance and a sensor driving circuit configured to receive an electric charge from the mutual capacitance. The touch sensing device further includes a display driving circuit configured to supply a first parasitic capacitance suppressing signal to the data lines and a second parasitic capacitance suppressing signal to the gate lines during a touch sensor driving period.

Abstract: A capacitance sensing system can filter noise that presents in a subset of electrodes in the proximity of a sense object (i.e., finger). A capacitance sensing system can include a sense network comprising a plurality of electrodes for generating sense values; a noise listening circuit configured to detect noise on a plurality of the electrodes; and a filtering circuit that enables a filtering for localized noise events when detected noise values are above one level, and disables the filtering for localized noise events when detected noise values are below the one level.

Abstract: A touch sensing system includes a charge distributor, a pre-amplifier, an analog-to-digital converter (ADC), and a temperature compensating device. The temperature compensating device varies one or more of a first reference voltage supplied to the charge distributor, a second reference voltage supplied to the pre-amplifier, and the capacitance of the charge distributor, in response to temperature data from a temperature sensor.

Abstract: A display device may include a display panel, at least one light source disposed on one side of the display panel, a circuit board to drive the light source, a light guide plate in which light emitted from the light source is incident into a surface and is emitted to another surface, and a lower frame to support the display panel and to accommodate the light source and the light guide plate. The lower frame may include a base substrate, a digitizer disposed on the base substrate, and a dummy digitizer pattern disposed on the base substrate and spaced apart from the digitizer. The circuit board may be disposed between the digitizer and the dummy digitizer pattern, and the lower frame may be bent and extend around the light source.

Abstract: A virtual two-dimensional positioning module of an input device and a virtual input device with the same are revealed. The module set on a plane in use includes an infrared (IR) laser light source, at least two line sensors and a controller. The IR laser light source is for projecting a horizontal IR laser to form a two-dimensional light curtain over and parallel to the plane. The line sensors are arranged separately and used for detecting reflected light caused by a user-controlled object entered into the two-dimensional light curtain to generate a linear position signal respectively. The controller is used to receive the linear position signals from the line sensors and perform processing to get position of the user-controlled object in a two-dimensional coordinate system of the two-dimensional light curtain.

Abstract: An optical touch screen system includes a sensing device and a processing unit. The sensing device includes first and second sensors, each generating an image. The images include the image information of a plurality of objects. The processing unit generates a plurality of candidate coordinates according to the image information and selects a portion of the candidate coordinates as output coordinates according to an optical feature of the image information.

Abstract: There are provided systems and methods for three-dimensional object sculpting and deformation on a mobile device. The system including a display, a memory storing a sculpting software application, and a processor configured to execute the sculpting software application to present an object to the user on the display, receive a first user input from the user for deforming the object, deform the object based on the first user input to generate a deformed object, receive a second user input from the user for squishing the deformed object using a squishing machine, and re-present the deformed object on the display next to the squishing machine. Squishing the deformed object may include breaking the deformed object in a blending machine, melting the deformed object with a heating machine, blowing the deformed object up with a pump, or breaking the deformed object up within a bubble.

Abstract: This disclosure is directed at least partly to a kiosk that provides innovative user interfaces to engage a user and provide high speed data transfer of content to a user device associated with the user. The kiosk may be located in frequently visited locations such as airports. The kiosks may advertise content and provide instructions to users about how to receive some of the content on user devices via a high speed data transfer. The high speed data transfer may use high speed data transfer protocols that enable download of a standard definition full length movie (e.g., less than 1 GB of data) in less than a couple of seconds or download of a high definition full length movie (e.g., 2-3 GB of data) in a few seconds. Besides, movies, other content may be downloaded such as electronic documents, music, games, and other electronic media available from an electronic catalog.