Abstract: One embodiment provides a method, including: identifying, using an information handling device, a proximate sound source; determining, using a processor, that noise produced by the proximate sound source is duplicated on a conference bridge that a user is connected to and is within an audible range of the user; and preventing, based on the determining, the noise on the conference bridge from reaching the user. Other aspects are described and claimed.

Abstract: A method includes receiving by wireless transmission, a first signal transmitted by a digitizer system. The first signal is configured to define a detection period during which a second signal may be detected by the digitizer system. The method further includes detecting timing of the receiving, detecting a first delay in the receiving due to amplification associated with the receiving, defining timing to transmit the second signal based on the timing of the receiving and the first delay and transmitting the second signal at the timing defined. The second signal is transmitted with a handheld device by wireless transmission and the first delay is detected by the handheld device that is receiving the first signal and transmitting the second signal.

Abstract: Provided are a low-power ultrasound sensor that detects whether an object exists at a high speed, an object detecting method of the ultrasound sensor, and a computer-readable storage medium. The ultrasound sensor may include: a transmitter that outputs a plurality of first ultrasound beams having different frequencies; a receiver that receives a first reflection signal that is output when the output plurality of first ultrasound beams are reflected from an object; and a controller that determines a first area in a space, controls the transmitter to respectively output the plurality of first ultrasound beams to a plurality of first sub-areas that are included in the first area, and determines whether the object is included in each of the plurality of first sub-areas, based on the first reflection signal.

Abstract: A display driving unit circuit, a driving method, a display driving circuit and a display device are provided. The display driving unit circuit includes a pixel driving circuit and a light-emission control signal generation circuit. The light-emission control signal generation circuit is coupled to the pixel driving circuit. The pixel driving circuit is to drive a pixel to emit light. The light-emission control signal generation circuit is to supply a display light-emission control signal to the pixel driving circuit at a display stage to enable the pixel in a displaying mode and supply a fingerprint detection light-emission control signal to the pixel driving circuit at a fingerprint detection stage to enable the pixel in a fingerprint detection light-emission mode at the fingerprint detection stage. The display stage and the fingerprint detection stage are different time periods.

Abstract: Systems and related methods providing for touch sensors using high sensitivity Lamb waves are disclosed herein. A touch controller may comprise circuitry having operating frequency characteristics, including an operating frequency f and a frequency spread ?f; and circuitry configured to minimize effects of dispersion based upon at least one of selected operating frequency characteristics relative to a frequency dependence of a group velocity of propagating waves and a frequency dependent phase error, wherein the touch controller generates an excitation signal.

Abstract: An electronic device (1) such as a cell phone, or a proximity detector for an electronic device (1), has an ultrasound transmitter (5), an ultrasound receiver (6), and a processing system. It transmits an ultrasonic sine-wave signal from the transmitter (5), and receives the ultrasonic sine-wave signal, through air, at the receiver (6). It detects when the frequency of the transmitted signal and a frequency of the received signal satisfy a predetermined difference criterion, and uses this to determine whether to disable or enable a touch or touchless input (2) on the device (1).

Abstract: Examples relate to improving unintended touch rejection. In this manner, the examples disclosed herein enable recognizing a touch on a touch-sensitive surface, capturing a set of data related to the touch, wherein the set of data comprises a set of spatial features relating to a shape of the touch over a set of time intervals, and determining whether the recognized touch was intended based on a comparison of a first shape of the touch at a first time interval of the set of time intervals and a second shape of the touch at a second time interval of the set of time intervals.

Abstract: An electronic device including a force sensor integrated with a display is provided. The electronic device includes a display; a biometric sensor disposed under the display; a circuit board including the biometric sensor on a first surface thereof; and a force sensor formed on a second surface of the circuit board. The force sensor comprises a first electrode layer facing the second surface; a dielectric layer disposed under the first electrode layer; and a second electrode layer disposed under the dielectric layer and connected to a ground of the electronic device.

Abstract: A head-mounted display (HMD) tracks a user's hand positions, orientations, and gestures using an ultrasound sensor coupled to the HMD. The ultrasound sensor emits ultrasound signals that reflect off the hands of the user, even if a hand of the user is obstructed by the other hand. The ultrasound sensor identifies features used to train a machine learning model based on detecting reflected ultrasound signals. For example, one of the features is the time delay between consecutive reflected ultrasound signals detected by the ultrasound sensor. The machine learning model learns to determine poses and gestures of the user's hands. The HMD optionally includes a camera that generates image data of the user's hands. The image data can also be used to train the machine learning model. The HMD may perform a calibration process to avoid detecting other objects and surfaces such as a wall next to the user.

Abstract: A system and method that allows an electronic pen to interact with projected content in midair without the need for a tangible surface. The pen has a holographic projector that is extendible into a position where it forms a holographic surface and a content projector that is oriented to project content onto the holographic surface formed by the holographic projector. The electronic pen body includes a slot dimensioned to house said holographic projector. The holographic projector can be connected to the pen by a mechanical linkage that locks the holographic projector into position. The electronic pen has sensors for detecting and measuring movement of the pen as well as detecting and measuring user contact with the pen to detect and respond to dynamic movements used to interact with the displayed content.

Abstract: A method implemented in a device including a position input sensor is provided, for generating ink data including stroke objects that are vector data configured to reproduce paths formed by operating a pointer. The method includes generally three step. The first step receives pen event data representative of a user's hand-drawn motion on a sensor surface. The second step generates a stroke object based on the pen event data, generates a metadata object that describes the stroke object based on the pen event data and context information received from an application supporting the pen event data, and generates a drawing style object that defines how to draw the stroke object based on the pen event data and the context information. The third step outputs the stroke object, the metadata object, and the drawing style object in association with each other in a recording format or in a transmission format.

Abstract: An acoustic touch device able to distinguish between user finger touches and other noise-making events includes ultrasonic transmitting and receiving units, and a controller. The ultrasonic receiving unit generates low-frequency electrical signals when the acoustic touch device is touched by an external object or affected by acoustic noise. The low frequency electrical signals cause variation in the output electrical signals of the ultrasonic receiving unit. The controller is configured to power on or power off the ultrasonic transmitting unit according to such variation.

Abstract: Various embodiments of the invention pertain to augmented performance synchronization systems and methods. According to some embodiments of the invention, an audio waveform may be used to generate one or more haptic waveforms for one or more electronic devices. The haptic waveforms may be generated based on any of a number of factors, including features of the audio waveform, capabilities of the haptic actuators performing the haptic waveforms, the number, type and location of devices having haptic actuators, and the like. The haptic waveforms may be synchronized with performance of the audio waveform to provide an augmented listening experience to a user.

Abstract: A system has a two-dimensional (2D) touch detection system operable to be activated and de-activated and an additional sensor operable in communication with the 2D touch detection system. The additional sensor is capable to determine whether a touch event has occurred or is about to occur and to activate the 2D touch detection system if a touch event has occurred or is about to occur.

Abstract: A system for determining the location of a mobile receiver unit includes static transmitter units, each including a respective clock which it uses to transmit a positioning signal according to a respective transmission schedule. The mobile receiver unit receives a positioning signal from any of the static transmitter units. A first processing means uses information relating to the received positioning signal to determine the location of the mobile receiver unit. A second processing means uses information relating to a respective drift and/or offset of each of the clocks of the static transmitter units to generate transmission schedules for the static transmitter units. Each transmission schedule instructs a respective static transmitter unit to transmit a positioning signal at one or more scheduled times according to the clock of the static transmitter unit.

Abstract: Embodiments are generally directed to handling-noise based gesture control for electronic devices. An embodiment of an apparatus includes a cover; multiple noise detection elements, the noise detection elements to detect handling-noise including noise generated by a command gesture performed on a surface of the cover of the apparatus, the plurality of noise detection elements including at least a first noise detection element in a first location and a second noise detection element in a second location; and a processor, the processor to process noise data generated by the plurality of noise detection elements to detect and identify the command gesture.

Abstract: A method for displaying interface content and user equipment, which effectively improve interaction experience of a user when the user performs a flick operation on a touchscreen, and enhance pleasure in application interaction. A specific solution is acquiring an initial position and a movement direction of a touch point, determining a motion parameter of an interface element object in each grid on a screen according to the initial position and the movement direction, where the screen is divided in advance into multiple grids, and each grid includes a preset quantity of pixels, and moving the interface element object in each grid according to the motion parameter of the interface element object in each grid.

Abstract: A storage machine holds instructions executable by a logic machine to receive a digital representation of a spoken command. The digital representation is provided to a speech recognizer trained with a user-specific grammar library. The logic machine then receives from the speech recognizer a confidence rating for each of a plurality of different media items. The confidence rating indicates the likelihood that the media item is named in the spoken command. The logic machine then automatically plays back the media item with a greatest confidence rating.

Abstract: An optical touch-sensitive device includes a top surface that includes tactile surface features. This produces a tactile effect experienced by the user using a finger or object (e.g., pen, stylus, or other instrument) on the surface.

Abstract: Apparatus and methods related to visual and haptic feedback on mobile devices are provided. A computing device can present a symbol queue that includes a particular symbol on a screen. The computing device can receive user input to move through the symbol queue. In response to the user input, the computing device can: animate the particular symbol on the screen by at least presenting an expanded item display that includes at least the particular symbol and a particular informational item associated with the particular symbol, and generate haptic feedback that is synchronized with animating the particular symbol on the screen.

Abstract: A ticketing machine on a wall includes an image projection device, a touch sensor, a wireless interface that is configured to communicate with a user's mobile device, and a processor. The processor is configured to project, using the projector, a graphical user interface of the ticketing machine on a surface and detect, using the touch sensor, a touch interaction of a user of the ticketing machine on the graphical user interface that is projected on the surface. The processor is further configured to determine a selection of an option of the user based on the detected touch interaction and provide, using the wireless interface, an entry product to a mobile device of the user based on the selected option.

Abstract: The present invention relates to a mobile terminal and a method of controlling the same. The present invention provides a mobile terminal which can control transparency of at least part of a display having controllable transparency through user touch interaction, and a method of controlling the mobile terminal.

Abstract: A capacitive touch sensor device comprising set of crossing X and Y electrodes whose crossing points form a two-dimensional array of nodes which define a touch sensitive area. As well as the main electrode spines which cross, referred to as zeroth order electrode branches, the electrodes have higher order branches, some of which interdigitate. By varying the dimensions of the electrode branches, such as width and length, the overall area of the X and Y electrodes can be varied relatively independently of each other. It is therefore possible to produce an electrode pattern in which the self capacitances of the X and Y electrodes have a certain ratio, e.g. unity, and thereby compensate for the aspect ratio of the touch sensitive area, and/or to have a certain absolute value, e.g. in order not to overload a touch-sensor controller to which the sensor is to be connected.

Abstract: A signal to be used to propagate a propagating signal through a propagating medium with a touch input surface is sent. The propagating signal has been allowed to propagate through the propagating medium to a plurality of receivers coupled to the propagating medium. A received signal affected by a touch input object contacting the touch input surface is received. At least a portion of the received signal is compared with one or more reference signals of one or more touch input object types.

Abstract: An acoustic imaging system includes multiple acoustic transducers disposed to circumscribe a portion of imaging surface. An acoustic imaging system also includes a controller and an image resolver. The acoustic transducers convert electrical signals into mechanical energy and/or mechanical energy into electrical signals. The controller is adapted to apply an electrical signal to the acoustic transducers which, in response, induce a mechanical wave, such as a surface wave, into the circumscribed portion. The controller is also adapted to receive electrical signals from the acoustic transducers. The image resolver uses the electrical signals received by the controller in order to construct an image of an object in physical contact with the imaging surface.

Abstract: In a method for interacting with a graphical user interface, the graphical user interface is depicted with at least one image object on a display device. The viewing direction and the position of a user of the graphical user interface depicted on the display device is determined, and an image object viewed by the user that is depicted on the graphical user interface is determined from the detected viewing direction and position of the user. Moreover, the distance of the user from the viewed image object is determined from the position of the user and the position of the viewed image object on the display device. When it is determined that the distance of the user from the viewed image object has been reduced and the image object was still viewed by the user, additional information is output to the user.

Abstract: Techniques for providing multi-user multi-touch projected capacitive touch sensors are disclosed herein. Some embodiments may include a method that includes receiving a first sense signal indicating a first touch attributed to a first touch entity and receiving a second sense signal indicating a second touch attributed to a second touch entity. Based on the first sense signal and second sense signal, the method may further include determining that the first touch entity and the second touch entity are a common touch entity. Furthermore, the method may include initiating an event in response to determining that the first touch entity and the second touch entity form a common touch entity.

Abstract: A touch control device including a touchpad, a first driving circuit and a system circuit is provided. The first driving circuit is coupled to the touchpad for driving the touchpad to detect a sensed value frame of a touch event on the touchpad. The system circuit is coupled to the first driving circuit for analyzing the sensed value frame provided by the first driving circuit to recognize a first finger position, a second finger position and a third finger position, and defining the first finger position as a left key position of a virtual mouse, the second finger position as a right key position of the virtual mouse according to a position relationship among the first finger position, the second finger position and the third finger position. An operating method of a touch control device is also provided.

Abstract: An electronic device includes a panel which a user touches, a detector that detects the touch of the user on the panel, a vibrator that vibrates the panel, and a signal generator. The signal generator generates a signal for driving the vibrator, the signal including a drive signal that generates vibration of the panel and a suppression signal that suppresses inertial vibration of the panel. The suppression signal has a degree of suppression the inertial vibration that changes depending on a touch position detected by the detector.

Abstract: A system detecting actuation of a pre-determined function, the actuation executed by touch contact with a pre-determined path associated with the function on a touch-sensitive surface of an object, including: at least two separate sources for transmitting bulk acoustic waves in the touch-sensitive surface, configured to generate acoustic interference between the transmitted waves; at least one bulk acoustic wave receiver after propagation and interference thereof in the touch-sensitive surface, configured to supply a reception signal based on the acoustic waves received; a mechanism storing plural reference spectral signatures associated with the pre-determined path, each of the spectral signatures associated with a localization of a touch on the pre-determined path; and a mechanism detecting actuation of the pre-determined function by comparing at least one spectral signature of the reception signal to a spectral envelope, or reference spectral envelope, of the plural reference spectral signatures associated

Abstract: An embodiment of the present disclosure provides a non-touch control apparatus, including: a main control integrated circuit, an ultrasonic generating circuit, a first transducer device and a second transducer device, wherein the main control integrated circuit is configured to, in response to a condition that the device is in a non-touch control mode, switch on the ultrasonic generating circuit so as to control the second transducer device to send out a first acoustic wave signal, the first transducer device is configured to be capable of receiving a second acoustic wave signal including the first acoustic wave signal, converting the second acoustic wave signal into a first electric signal, and outputting the first electric signal, wherein, the main control integrated circuit is configured to be capable of receiving a second electric signal derived from the first electric signal.

Abstract: A method of generating a digital media message includes receiving a first digital content segment via an electronic device, associating the first digital content segment with a first position in a play sequence, receiving a second digital content segment different from the first digital content segment, and receiving a third digital content segment different from the first and second digital content segments. The method also includes adding the second and third digital content segments to the play sequence such that the second digital content segment is presented simultaneously with at least one of the first and third digital content segments when the digital media message is played. Such a method further includes providing the digital media message for sharing with a remote electronic device.

Abstract: A touch screen and a terminal are disclosed. The touch screen comprises: a touch panel, at least three pick-up devices, and a data calculation module, whereof: the touch panel covers the pick-up devices and is used to provide a touch operation platform; the pick-up devices are used to detect effective sound signals produced by touch operations, and to record detection time; and the data calculation module is used to ascertain, on the basis of recorded detection times, the time differential of the effective sound signal detected by each pick-up device, and to calculate the position of a touch-point by using the time differential and the path differential from a touch-point to each pick-up device.

Abstract: Multi-layered paint on a border of a surface acoustic wave touch device may reduce attenuation. The touch substrate has a front surface and a back surface where the front surface has a touch region. Multi-layered paint is formed on the back surface to form a border along the touch substrate. The multi-layered paint includes a mirror layer and a color layer. The surface acoustic waves propagate over at least a portion of the border region such that the surface acoustic waves propagate on the multi-layered paint without excessive wave attenuation.

Abstract: An information handling system touchscreen discriminates touches with a tool discriminator before analyzing the touches with a touch discriminator that identifies touches as intended or unintended inputs. The tool discriminator isolates touches associated with tools to assign tool functions to tool touches so that touch discriminator analysis is bypassed for tools, thus providing a more rapid and accurate horizontal workspace having tools placed on the touchscreen.

Abstract: A piezoelectric micromechanical ultrasonic transducer (PMUT) includes a diaphragm disposed over a cavity, the diaphragm including a piezoelectric layer stack including a piezoelectric layer, a first electrode electrically coupled with transceiver circuitry, and a second electrode electrically coupled with the transceiver circuitry. The first electrode may be disposed in a first portion of the diaphragm, and the second electrode may be disposed in a second, separate, portion of the diaphragm. Each of the first and the second electrode is disposed on or proximate to a first surface of the piezoelectric layer, the first surface being opposite from the cavity. The PMUT is configured to transmit first ultrasonic signals by way of the first electrode during a first time period and to receive second ultrasonic signals by way of the second electrode during a second time period, the first time period and the second time period being at least partially overlapping.

Abstract: A method includes receiving, at a device from a first media device, audio data and image information indicating vibrations of an object. The vibrations are caused by sound in vicinity of the object. The method includes generating audio information based on the image information. The method includes filtering the audio data based on the audio information to generate audio content associated with the first media device. The method further includes transmitting the audio content from the device to a second media device.

Abstract: A signal to be used to propagate a freely propagating signal through a propagating medium with a touch input surface is sent. The freely propagating signal has been allowed to freely propagate through the propagating medium in a plurality directions to a plurality of receivers on multiple axes of the propagating medium. A received signal detected due to a touch input object contacting the touch input surface is received. The received signal includes the freely propagating signal that has been disturbed by the touch input object. At least a portion of the received signal is compared with one or more reference signals of one or more touch input object types. Based at least in part on the comparison a location of the touch input object contacting the surface is determined.

Abstract: A user input detector for a mobile device is described having an ultrasound demodulator having an input for receiving an ultrasound signal reflected from a user and an output for outputting a demodulated ultrasound signal; a gesture processor comprising: a time-frequency processing module configured to generate a time-varying ultrasound-image spectrum from the demodulated ultrasound signal; an image-feature extraction module configured to extract micro-doppler features from the time-varying ultrasound image spectrum; a feature selection module configured to select and compress the extracted micro-doppler features; and a gesture detection module configured to compare the selected micro-doppler features with a known feature set and to output a detected gesture based on the comparison.

Abstract: An input device includes an input unit having at least one button arranged to produce a sound signal when pressed, a sound collector for collecting the sound signal produced from the button, a memory for storing control command information corresponding to a frequency of the sound signal produced from the button, and a controller for determining a control command corresponding to the frequency of the sound signal produced from the button based on the information stored in the memory, and for sending the control command to a subject to be controlled.

Abstract: A touch sensing system and a method for driving the same. The touch sensing system includes a pen with a resonant circuit embedded therein, XY electrodes including X electrodes and Y electrodes substantially perpendicular to the X electrodes, an antenna surrounding the XY electrodes, and a first touch driving circuit. The first touch driving circuit supplies a resonant inductive signal to the XY electrodes, analyzes a resonance signal received through the antenna, and decides a location and a pen pressure of the pen. The resonant inductive signal includes N periods each having a different duration, and wherein N is a positive integer equal to or greater than 2.

Abstract: An array pressure sensing imaging device is provided. The array pressure-sensing imaging device includes a flexible surface sensing layer, a pressure sensing layer, a three-dimensional pressure sensing layer, a pressure adjustment layer laminated in a sequence and communicatively connected to a control unit.

Abstract: A touch screen and a touch point positioning method are disclosed. The touch screen comprises a display panel and a touch point positioning device, the touch point positioning device comprises a timing unit, a calculating unit and n receiving units, the receiving units are provided in edge areas of the display panel, the receiving units are connected with the timing unit, and the timing unit is connected with the calculating unit. According to technical solutions of the present invention, the receiving units receive an acoustic wave signal generated at a touch point when the display panel is touched, the timing unit records reception times when the receiving units receive the acoustic wave signal, and the calculating unit calculates a position coordinate of the touch point on the display panel according to the reception times of the receiving units recorded by the timing unit, thus achieving positioning of the touch point.

Abstract: Described embodiments include a system and a method. A system includes a first ultrasound transmitter acoustically coupled to a conducting layer of a display surface and configured to deliver a first ultrasound wave to a selected delineated area. The first ultrasonic wave has parameters sufficient to induce a non-linear vibrational response in the conducting layer. A second ultrasound transmitter is acoustically coupled to the conducting layer and configured to deliver a second ultrasound wave to the selected delineated area. The second ultrasonic wave has parameters sufficient to induce a non-linear vibrational response in the conducting layer. A controller selects a delineated area in response to an indication of a touch to the display surface, and initiates delivery of the first and second ultrasonic waves. A convergence of the first and second ultrasonic waves at the selected delineated area produces a stress pattern perceivable or discernible by the human appendage.

Abstract: A digitizer system comprises at least one object incorporating an electronic tag configured for radiating at least one modulated signal and at least one second signal; a digitizer sensor configured for detecting the at least one second signal while the object is positioned on or over the digitizer sensor; and circuitry configured for identifying the object based on modulation of the at least one modulated signal and for determining a position of the object on or over the digitizer based on the detected second signal on a portion of the digitizer sensor.

Abstract: An apparatus and method for recognizing a touch of a user terminal are provided. The method includes retrieving, by a controller, an acoustic wave signal according to an input generated from an exterior and analyzing the acoustic wave signal. In addition, the controller is configured to detect a type kind and strength of the acoustic wave signal and adjust the screen data of the output unit to correspond to the detected type and strength of the acoustic wave signal.

Abstract: A method for displaying interface content and user equipment, which effectively improve interaction experience of a user when the user performs a flick operation on a touchscreen, and enhance pleasure in application interaction. A specific solution is acquiring an initial position and a movement direction of a touch point, determining a motion parameter of an interface element object in each grid on a screen according to the initial position and the movement direction, where the screen is divided in advance into multiple grids, and each grid includes a preset quantity of pixels, and moving the interface element object in each grid according to the motion parameter of the interface element object in each grid.

Abstract: Disclosed herein are technologies that improve user interaction when using a soft keyboard of a touchscreen device (e.g., a smartphone or tablet computer). More particularly, the technologies described herein provide feedback to a user regarding keypress accuracy on a soft keyboard of a touchscreen device. In accordance with one aspect of the technologies, a keypress marker is presented to indicate the location of touch on the soft keyboard.

Abstract: Methods, devices, and non-transitory process-readable storage media automatically configure or reconfigure input mechanisms to provide user inputs to simultaneously-active applications with input mechanisms that conflict. An embodiment method performed by a processor of a computing device may include recognizing that an overlapping control condition exists between simultaneously-active applications when a first control element of a first application and a second control element of a second application are configured to receive respective user inputs via a common input mechanism. When the processor determines that an overlapping control condition exists, available input mechanisms of the computing device may be identified, and one of the identified available input mechanisms may be reconfigured to provide the user inputs for one of the first control element or the second control element while the overlapping control condition exists.

Abstract: Disclosed are a touch panel and a method of manufacturing the same. A touch panel includes: a substrate on which an active area and an inactive area are defined, in which the substrate includes a first lateral side, a second lateral side, a third lateral side, and a fourth lateral side surrounding the active area and the inactive area is disposed at only two of the first lateral side, the second lateral side, the third lateral side, and the fourth lateral side; a sensing electrode pattern on the active area; and a wire pattern connected to the sensing electrode pattern, wherein the wire pattern is disposed at the inactive area. A use region on a front surface of the touch panel is maximized by removing a bezel formed at a side of the touch panel to improve convenience of a user.