Abstract: An input detecting device includes an input section where position input is performed, a position detecting section included in the input section and detecting an input position regarding at least the position input, a rotary member mounted on the input section so as to be rotatable and including an operation surface on an outer peripheral surface thereof with which a rotating operation is performed, a rotation detection section that is rotatable together with the rotary member with respect to the input section and a position of which is detected by the position detecting section, and an extended section extending laterally from the operation surface so as to be disposed between the operation surface and the input section.

Abstract: A display device includes a substrate having a pixel area and a peripheral area, a plurality of pixels disposed on the substrate in the pixel area, a plurality of data lines that supply a plurality of data signals to the pixels, a plurality of scan lines that supply a plurality of scan signals to the pixels, a plurality of power supply lines that supply a first voltage to the pixels, and first through third insulating layers. The first insulating layer is disposed on the substrate, the second insulating layer is disposed on the first insulating layer, and the third insulating layer is disposed on the second insulating layer. The scan lines are disposed below the third insulating layer on the substrate in the pixel area, and are disposed on the third insulating layer in the peripheral area.

Abstract: A projection system includes a video projector to project images having an image region on a surface having a border area associated with the surface, and a processing system including a graphical processing unit to evaluate the border area and the projected image region, the graphical processing unit to transform the projected image region into an aligned projected image region coinciding with the border area.

Abstract: An electronic stylus device includes a stylus tip element having a stylus tip end and an opposing end. The stylus tip element is positioned at an end of the electronic stylus device and aligned along the long center axis of the electronic stylus device. A nutation collar is positioned about the stylus tip element and the long center axis. The nutation collar provides one or more bearing surfaces around the stylus tip element between the stylus tip end and the opposing end of the stylus tip element. The one or more bearing surfaces permit the stylus tip element to nutate within the nutation collar. A deflection sensor is positioned proximate to the opposing end of the stylus tip element on the long center axis and detects lateral deflection of the opposing end of the stylus tip element relative to the long center axis of the electronic stylus device.

Abstract: A system is disclosed. The system can comprise drive circuitry included in a first component of the system, the drive circuitry configured to drive a first touch electrode on a touch sensor panel. The system can also comprise a driving line configured to couple an output of the drive circuitry to the first touch electrode. The system can also comprise a feedback line configured to couple the output of the drive circuitry to an input of the drive circuitry, wherein a first end of the feedback line is coupled to the input of the drive circuitry at the first component, and a second end of the feedback line is configured to be coupled to the output of the drive circuitry at a second component, different from the first component, of the system.

Abstract: The invention provides a scan driving circuit, comprising: a plurality of rows of output channels successively arranged, at least a first multiplex module, and at least a second multiplex module; the power end of the (4m?3)-th row of output channels receiving a first power signal, the power end of the (4m?2)-th row of output channels receiving an output end of one first multiplex module, the power end of the (4m?1)-th row of output channels receiving an output end of one second multiplex module, and the power end of the 4m-th row of output channel receiving a second power signal; the first and second multiplex modules having control ends receiving a selection signal, a first input end receiving the first power signal, and a second input end receiving the second power signal; the selection signal controlling the first and second multiplex modules to change respective output power signal.

Abstract: The touch panel according to embodiments of the present disclosure includes one or more first pressure detection electrodes and one or more second pressure detection electrodes, and one or more conductive connecting columns. When the touch panel is not touched, one or more connecting columns are in electrical contact with either the one or more first pressure detection electrodes or the one or more second pressure detection electrodes. When the touch pressure is greater than a certain value, the touch panel is deformed, and both ends of the plurality of connecting columns are in electrical contact with both the one or more first pressure detection electrodes and the one or more second pressure detection electrodes, respectively.

Abstract: A mobile terminal device includes: a housing; a touch panel-equipped display section; a sensor; and a control unit including a processor and, upon execution of a control program by the processor, functioning as a display control section, an operating region decision section, an operating region storage section, a specific inclination determination section, and a display change section. The operating region decision section determines, during holding of the housing with a user's one hand, an operating region on the screen of the display section reachable with an operating finger of the one hand from a trace of points of touch with the operating finger. When an inclination of the housing detected by the sensor is determined to be a specific inclination toward the operating finger by the specific inclination determination section, the display change section moves and displays a plurality of on-screen objects into and within the operating region.

Abstract: Described are systems, methods, and apparatus that produce depth data representative of an object, such as a user, at a first location, transmit that depth data to a second location, and use that depth data to produce, at the second location, a three-dimensional representation of the object. A tangible display at the second location may receive the depth data and use that depth data to determine displacement amounts for each of a plurality of moveable pins of the tangible display. The moveable pins may be then displaced by the displacement amounts to form the three-dimensional representation of the object.

Abstract: Computerized methods and systems, including computer programs encoded on a computer storage medium, may adaptively predict expression of emotions based on collected biometric data. For example, a computing system may receive first data indicative of a first time-evolving movement of a portion of a body during a collection period, and may obtain second data identifying predictive models that correlate default emotions with second feature values that characterize body movements during prior collection periods. Based on an outcome of the application of the least one pattern recognition algorithm or machine learning algorithm to portions of the first and second data, the system may determine a corresponding one of the default emotions represented by the first time-evolving movement, and may transmit data indicative of the corresponding one of the default emotions to the communications device for presentation to a user.

Abstract: A sensor assembly and a terminal having the sensor assembly are provided. The sensor assembly includes a fingerprint module and a proximity sensor. The fingerprint module includes a fingerprint panel and a fingerprint sensor located below the fingerprint panel. The proximity sensor is located below the fingerprint panel and includes a light emitter and a light receiver. Light emitted by the light emitter exits through the fingerprint panel, and is then reflected by an external object to form reflected light which is in turn received by the light receiver through the fingerprint panel.

Abstract: A haptic feedback system is disclosed. The system includes a plurality of remote transmitters that are remote from a location of interest on a surface of the system. The system includes a signal generator that generates a signal for each of the remote transmitters. The remote transmitters propagate the signals through a medium of the surface and the signals interfere at the location of interest such that a localized disturbance is generated at the location of interest.

Abstract: An organic light emitting diode (OLED) display includes a substrate where OLEDs are formed and an encapsulation member fixed onto the substrate while covering the OLEDs. The encapsulation member includes a photochromic material so that the encapsulation member is colored by external light.

Abstract: A calculation method for viewing-angle compensation of a display device, a viewing-angle compensation structure, and a display device is disclosed. The method includes: measuring tristimulus values for red, green, and blue displayed in grayscale of a display device in a viewing angle and a luminance gamma curve; calculating a central viewing angle, a first viewing angle, and a second viewing angle of an observation viewing angle of the display device, to obtain a viewing angle range of the observation viewing angle; obtaining a display look-up table (LUT) by using an angle of the viewing angle and the luminance gamma curve and according to a viewing angle algorithm; then obtaining a viewing-angle compensation value by using the central viewing angle and the viewing angle range and according to the display LUT; and eventually adjusting the corresponding tristimulus values in the display device according to the viewing-angle compensation value.

Abstract: An input interface device includes a sensing panel, a touch sensor, an auxiliary sensor and a processor. The touch sensor is configured to detect a first touch event located in a first area of the sensing panel, and detect a second touch event located in a second area of the sensing panel. The first area and the second area are separated by a first boundary defined across the sensing panel. The auxiliary sensor is configured to detect a first environmental parameter. The processor is configured to determine whether the first boundary needs to be adjusted or not according to the first environmental parameter. The processor is also configured to selectively adjust the first boundary according to the first touch event and the second touch event, and the first boundary after adjustment is utilized to separate the first area and the second area.

Abstract: A display driver includes: a memory comprising a plurality of memory regions each configured to store image data for one line of an image displayed in a frame; and control circuitry configured to adjust a number of in-use memory regions of the plurality of memory regions used to store the image data. The control circuitry is further configured to control the memory so that image data for respective lines of the image are cyclically stored in the in-use memory regions in a fixed order.

Abstract: Input device power consumption can be reduced with a magnetic drive system. In some examples, the input device can include a transformer configured to generate a desired high output voltage from logic-level input pulses. In some examples, the distributed capacitance and associated resonance of the transformer can act as a low-pass filter, and can create a relatively clean output waveform from input logic signal waveforms. In some examples, the transformer can be an autotransformer. In some examples, to stabilize an amplitude of the output by sampling the output of the transformer and adjusting the input to the transformer based on the sampled output.

Abstract: The present specification relates to a head mounted display and a control method therefor, the subject matter thereof relates to: receiving a rendered frame from a computing device on the basis of first sensing information; time-warping the received frame on the basis of second sensing information; processing the frame time-warped on the basis of the second sensing information; and displaying the processed frame on a screen.

Abstract: To improve sensing sensitivity of a touch panel. A touch panel-attached display device includes an active matrix substrate 1, a counter substrate, and a liquid crystal layer. On the active matrix substrate 1, a TFT (display control element) 42, a first insulating film 44, a plurality of pixel electrodes 31, a second insulating film 46, and a counter electrode 21 are laminated in order. In the active matrix substrate 1, a control unit which detects a touch position by supplying a touch driving signal to a plurality of counter electrodes 21, and a touch sensor wiring 22 which is formed between the first insulating film 44 and the second insulating film 46, which connects the control unit and the counter electrode 21, and which is for supplying the touch driving signal from the control unit to the counter electrode 21, are also formed.

Abstract: Discussed are a display device and a multiscreen display device including the same, which conceal a bezel. The display device in one embodiment includes first to fourth edge display modules displaying an image on a bezel area overlapping each of first to fourth non-display areas of an image display module. The first to fourth edge display modules each include a flexible printed circuit board including a first cover part covering a corresponding non-display area, a second cover part bent from the first cover part and disposed on a side surface of the image display module, and a third cover part extending from the second cover part, a dot light source array including a plurality of dot light source devices provided in the first cover part, and a light source driving circuit unit provided in the third cover part and driving the dot light source devices to display an image on the bezel area.