Abstract: It is an object to provide a device that may provide haptic effect. According to an embodiment, a device comprises a haptic element matrix comprising haptic effect elements, wherein the haptic effect elements are electrically arranged into rows and columns and a driving circuit. The driving circuit may be configured to, in a first phase drive an addressed column of the haptic element matrix with a first voltage; drive an addressed row of the haptic element matrix with a second voltage, leave at least one column of the haptic element matrix to a floating voltage while driving the addressed column and the addressed row; and leave at least one row of the haptic element matrix to a floating voltage while driving the addressed column and the addressed row. The device may reduce crosstalk between the haptic effect elements. A device, a method, and a computer program product is provided.

Abstract: A display device has a display area with a first area in which a fingerprint is recognized and a second area in which a fingerprint is not recognized, and a non-display area. A fingerprint sensing unit is disposed to overlap with the first area. A first pixel set is disposed to overlap with the first area, and a second pixel set is disposed to overlap with the second area, each set including a plurality of pixels. A first voltage signal is provided to the first pixel set as a variable frequency signal, and includes a first period during which the first voltage signal is a first frequency signal, a second period during which the first voltage signal is a second frequency signal having a lower frequency than the first frequency signal, and a third period during which the first voltage signal is the first frequency signal.

Abstract: A display apparatus including a reflective display panel and a micro light-emitting diode panel is provided. The display apparatus has a display surface and the reflective display panel has a reflective surface. The micro light-emitting diode panel is overlapped with the reflective display panel and includes a driving circuit layer and a plurality of light-emitting diode devices. The driving circuit layer is positioned between the reflective display panel and the display surface. The micro light-emitting diode devices are electrically bonded to the driving circuit layer. The display surface and the reflective surface are respectively disposed on two opposite sides of the micro light-emitting diode devices and the transmittance of the micro light-emitting diode panel within a wavelength range of visible light is higher than 50%.

Abstract: A head mounted display device is provided. The head mounted display device includes a left eye display unit which displays an image for a left eye and is disposed along a trajectory of a left eye ellipse having a first eccentricity, and a left eye lens which faces the left eye display unit and refracts the image for the left eye in a direction of a user's left eye.

Abstract: According to an aspect, a display apparatus includes: a substrate; a plurality of pixel electrodes; a plurality of detection electrodes arranged in a matrix in a display area of the substrate; a plurality of detection electrode lines coupled to the respective detection electrodes; a plurality of first electrodes provided in the same layer as the detection electrodes or the detection electrode lines and extending in a first direction; a plurality of switching elements coupled to the respective pixel electrodes; a plurality of signal lines coupled to the switching elements and extending in a second direction crossing the first direction; a coupling member provided in a peripheral area outside the display area and configured to couple ends of the first electrodes to each other; and a drive circuit configured to output a first drive signal in a first sensing period in which an electromagnetic induction method is used.

Abstract: An objective of the present invention is to provide a touch sensor using both a projected capacitive (PCAP) and an electro-magnetic resonance (EMR) method in a display device.

Abstract: An input device includes a support base, a sensor unit including electrode portions, an extended portion extending outward from the support base, a lead-out wire in conduction with the electrode portions, a grounding wire adjacent to the lead-out wire, the lead-out wire and the grounding wire being along a first major surface of the extended portion, and a reinforcement plate on a part of a second major surface opposite to the first major surface and on the side of the support base from the tip. When viewed from a normal direction of the second major surface, the grounding wire is greater than the lead-out wire, an end-portion projection line formed by a support-base-side end portion of the reinforcement plate is nonlinear, and a most-protruding location in the end-portion projection line closest to the support base overlaps the grounding wire.

Abstract: An electronic device having a display screen that displays a user interface including at least one object, comprising: a display mechanism that displays the user interface; a coordinate detection mechanism that detects coordinates of a user touch point on the display screen; a first feedback presentation mechanism that presents tactile feedback at a prescribed point to make the user perceive the presence of an object; a measurement mechanism that measures a force generated by the user pressing the display screen; and a second feedback presentation mechanism that detects an operation trigger based on the force and generates mechanical vibration.

Abstract: A vehicle steering wheel is provided that includes a rotatable rim comprising a core structure, a steering angle sensor sensing an angle of rotation of the rim, and a plurality of proximity sensors located on the rim and spaced apart from one another along an arc length. The vehicle steering wheel also includes a controller processing sensed outputs generated by each of the plurality of proximity sensors and determining operator input commands based on the sensed outputs. The controller assigns a function to each of the proximity sensors that changes as the rim is rotated at an angle such that a given function associated with a proximity sensor remains at the same position in space.

Abstract: A touch unit and a manufacturing method thereof, a touch structure, and a display device are disclosed. The touch unit includes a first touch electrode, a second touch electrode, a first interconnecting member and a second interconnecting member; the first touch electrode and the second touch electrode are insulated from each other and are arranged to be intersected with each other; the first interconnecting member is configured to electrically connect the first touch electrode, and the second interconnecting member is configured to electrically connect the second touch electrode; at least one of the first interconnecting member or the second interconnecting member defines a first opening.

Abstract: An apparatus for processing signals from a touch panel. The touch panel includes a layer of piezoelectric material disposed between a number of sensing electrodes and one or more common electrodes. The apparatus includes a capacitive touch controller for connection to the sensing electrodes and a switch network including inputs for connection to the sensing electrodes and an output connected to system ground or a common mode voltage. The apparatus includes a circuit for connection to the common electrodes and to generate, for each common electrode, a corresponding pressure signal indicative of a pressure applied to the touch panel proximate to that common electrode. The apparatus includes a controller to control the switch network to couple any connected sensing electrodes to system ground or the common mode voltage during a pressure measurement period, and to sample the one or more second pressure signals during the pressure measurement period.

Abstract: An electronic device having a display screen that displays a user interface including at least one object, comprising a display mechanism that displays the user interface; a coordinate detection mechanism that detects coordinates of a user touch point on the display screen; a first feedback presentation mechanism that presents tactile feedback at a prescribed point to make the user perceive the presence of an object; a measurement mechanism that measures a force generated by the user pressing the display screen; and a second feedback presentation mechanism that detects an operation trigger based on the force and generates mechanical vibration.

Abstract: A touch display panel is provided in embodiments of the present disclosure. The touch display panel may include: a display area including a plurality of first touch electrodes and a plurality of second touch electrodes; and a peripheral area located around the display area; the peripheral area includes: first touch lines electrically connected with at least one of the plurality of first touch electrodes; second touch lines electrically connected with at least one of the plurality of second touch electrodes; an external circuit interface configured to provide an electrical connection between the touch display panel and an external circuit; and a first multiplexer, which is electrically connected at an output port thereof with at least either one of the first touch lines and the second touch lines and electrically connected at an input port thereof with the external circuit interface.

Abstract: The present disclosure provides a pixel circuit and a drive method thereof, and a touch display apparatus. The pixel circuit includes a pixel driving circuit, an optical sensing circuit, and a light-emitting element. The pixel driving circuit is configured to drive the light-emitting element to emit light, based on a first control signal from a first control line, a second control signal from a second control line, a scanning signal from a scanning line, and a data signal from a data line. The optical sensing circuit is configured to sense an optical signal, convert the sensed optical signal into an electric signal, and output the electric signal via a reading line based on the first control signal, the second control signal, the scanning signal, and the data signal.

Abstract: The present disclosure provides a touch sensing device and a touch control display panel. The touch control display panel includes the touch sensing device. The touch sensing device includes a buffer layer, a first metal layer, a passivation layer, a second metal layer, and a planarization layer, and is provided with a through-hole. A position surrounding the through-hole further includes a first compensation electrode and a second compensation electrode. The first compensation electrode is disposed around the through-hole to form a circular arc shape and is electrically connected to first electrodes adjacent to the through-hole, and the second compensation electrode is disposed around the through-hole to form a circular arc shape and is electrically connected to second electrodes adjacent to the through-hole.

Abstract: A keyboard for physically handicapped persons, including a translucent surface, a capacitive layer underneath the translucent surface, enabling detection of touch location and pressure on the translucent surface, a projection system dynamically projecting a plurality of visual layouts of keys of a keyboard on the translucent surface, wherein each visual layout includes ASCII character keys or graphical buttons, and a dynamic keyboard layout generator configured to receive user input in conformance with a currently projected layout of keys from a physically handicapped user, and to generate therefrom a time series of ASCII characters or button selections for input to the computing device, to dynamically adjust pressure sensitivity of the keyboard to avoid spurious user input, and to dynamically adjust key sizes and positions in a current virtual layout of keys, to reduce the amount of hand motion required by the user and the amount of discomfort experienced by the user.

Abstract: A touch-sensing display module is provided, including a display unit and a film sensing structure. The display unit has a front surface, a rear surface opposite the front surface, and a side connecting the front surface and the rear surface. The film sensing structure is attached to the display unit and includes a main body and a bending portion connected to the main body, wherein the bending portion includes a slot. The bending portion extends from the front surface of the display unit to the rear surface along the side. The bending portion covers a portion of the side and a portion of the rear surface. A portion of the display unit is exposed by the slot.

Abstract: Bi-phase touch scanning of a touch sensor panel can reduce interference between touch and display operations for a touch screen including a display and a touch sensor panel. The bi-phase touch scan can include concurrently driving a first plurality of touch electrodes with a first drive signal having a first phase and a second plurality of touch electrodes with a second drive signal having a second phase, different from the first phase (e.g., 180° out of phase for improved charge balancing). In some examples, the bi-phase touch scan can be locally guarded such that adjacent touch electrodes to a sensed touch electrode can be driven with the same drive signal as the sensed touch electrode. In some examples, the bi-phase pattern of driving and sensing can balance charge along an axis and/or in a localized region.

Abstract: A touch display panel and a touch display device are provided. The touch electrode rows of the display panel include first touch electrode rows and second touch electrode rows. A number of touch signal lines connected to each touch electrode of the first touch electrode rows is greater than a number of touch signal lines connected to each touch electrode of the second touch electrode rows. The first touch electrode rows include an A-th touch electrode row; and the second touch electrode rows includes a B-th touch electrode row and a C-th touch electrode row adjacent to the B-th touch electrode row. An area of a touch electrode in the B-th touch electrode row is smaller than an area of a touch electrode in the A-th touch electrode row, and smaller than an area of a touch electrode in the C-th touch electrode row.

Abstract: Described examples include a process that includes illuminating a spatial light modulator at a first illumination level during a first bit-plane and stopping illumination at a beginning of a second bit-plane subsequent to the first bit-plane. The process also includes resuming illumination after a settling period of the spatial light modulator at a second illumination level for a time period such that a total illumination energy during the second bit-plane is equivalent to an intended illumination energy for the second bit-plane at the first illumination level and stopping illumination at the second illumination level before a subsequent third bit-plane.