Abstract: A touch display driving integrated circuit (TDDIC) is configured to control a touch display panel. The TDDIC includes a touch driving circuit that performs a touch scan operation on the touch display panel, and a display driving circuit that performs a display operation on the touch display panel. The touch driving circuit operates in a first operation mode having a first touch scan frequency, and operates in a second operation mode having a second touch scan frequency different from the first touch scan frequency when a touch is detected from the touch display panel in the first operation mode.

Abstract: Provided is a liquid crystal display device, including: a plurality of scanning connection lines formed on at least one side of edges of the image display region, the plurality of scanning connection lines connecting together a scanning signal drive circuit and a plurality of scanning signal lines; a selection circuit formed so as to be interposed between the plurality of scanning connection lines and the plurality of scanning signal lines, the selection circuit being configured to selectively short-circuit one of a plurality of the scanning signal lines to one of the plurality of scanning connection lines based on a selection signal; and a selection signal line connected to the selection circuit, the selection signal line transmitting the selection signal to the selection circuit.

Abstract: In a capacitive touch sensor device, to avoid floating touches causing signal inversion in mutual capacitance measurements, an electrode pattern is used of the type in which the mutual capacitance arises primarily from co-extending electrode portions of the drive and sense electrodes separated by a gap G. The pattern is dimensioned such that the sum of the gap G between co-extending drive and sense electrode portions and the widths Wy of the sense electrodes is made sufficiently small to avoid signal inversion. Namely, the width, Wy, plus the gap, G, is made less than or equal to one of: 4, 3 or 2 times the distance from the touch sensor electrodes to the touch surface, this distance being the touch panel thickness, h.

Abstract: An exemplary embodiment of the present disclosure provides a display device, including a substrate including a first pixel area, a second pixel area having a smaller area than the first pixel area and connected to the first pixel area, and a peripheral area surrounding the first pixel area and the second pixel area, a first pixel provided in the first pixel area and a second pixel provided in the second pixel area, a first line connected to the first pixel and a second line connected to the second pixel, a dummy part disposed in the peripheral area, overlapping with at least one of the first line and the second line, and providing a parasitic capacitance that compensate for a difference in a load value between the first line and the second line; and a power supply line provided in the first pixel area and the second pixel area, wherein the dummy part includes an insulating layer having at least one contact hole.

Abstract: Various techniques may be employed for assigning user inputs such as a touch on a touchscreen to various input controls such as buttons or other features provided on a touchscreen. One example input assignment technique is a nearest neighbor technique, whereby a touch may, for example, be assigned to an input control that is positioned closest to the touch location. Another example input assignment technique is an angle and distance technique, whereby a touch may, for example, be assigned to an input control based on an angle and a distance of the touch relative to a prior touch.

Abstract: An apparatus for recognizing a touch input includes: a touch input detector detecting a touch input signal depending on a force-based touch input on a touch pad; a vehicle movement detector sensing movement of a vehicle; and a processor configured to detect an abnormal signal generated by the movement of the vehicle in the touch input signal and to recognize the touch input by performing signal interpolation on an abnormal signal generation section in which the abnormal signal is generated.

Abstract: Disclosed is a touch window which includes a substrate; a plurality of sensing electrodes on the substrate; and an opening part between the sensing electrodes.

Abstract: The present invention discloses a moveable robot that includes a head, a main body, and a moving chassis. A transport mechanism is mounted on the lower part of the moving chassis. The head and the main body are carried by moving chassis. A moveable connection mechanism between the main body and the moving chassis enables relative movements between the two components. A sliding platform comprising a sliding mechanism between the head and the main body allows the head to move relative to the main body. A projection system can a display an image through a window in the head, and to project an interactive map on the ground. An optical sensing system can detect movements of users relative to the displayed map on the ground. The projection system and the optical sensing system in combination provides an interactive user interface for the users. The optical sensing system can also sense the environment to assist obstacle avoidance and route planning moveable robot.

Abstract: Provided is a display module including: a cabinet; and a plurality of Light Emitting Diode (LED) panels arranged on the cabinet in an array, each LED panel of the plurality of LED panels having a plurality of LEDs, wherein the cabinet includes a plurality of level regulators configured to regulate level differences amongst the plurality of LED panels, and wherein the plurality of level regulators include first level regulators provided at respective corners of the plurality of LED panels.

Abstract: An information processing apparatus according to embodiments of the present invention includes an input obtaining unit configured to repeatedly obtain an input image that is obtained through imaging by an imaging unit oriented in a direction intersecting with a predetermined surface, the input image having pixels each representing a distance along the direction, an identifying unit configured to identify, in the obtained input image, an object area where an object that is present between the predetermined surface and the imaging unit is imaged, and a correcting unit configured to correct a distance represented by each pixel in the input image repeatedly obtained by the input obtaining unit, by using a correction value obtained based on a difference between a distance represented by a pixel of a portion of the input image excluding the object area and reference distance between the imaging unit and the predetermined surface.

Abstract: A display device includes a substrate including a pixel area, and a peripheral area enclosing at least one side of the pixel area, a plurality of pixels provided in the pixel area, each of the plurality of pixels including a light-emitting area from which light is emitted, a light-emitting element which is provided in each of plurality of the pixels and which emits the light, a pixel circuit which is provided in each of the plurality of pixels and which drives the light-emitting element, and a conductive pattern which is disposed between the substrate and the pixel circuit and which overlap the pixel circuit in a plan view. Pixels of the plurality of pixels each may include a sensing unit which is electrically connected to the conductive pattern and which senses a touch of a user.

Abstract: A display apparatus includes a display panel including pixels arranged at an intersection of data lines and gate lines, a source driver IC configured to be disposed on one side surface of the display panel to apply a data voltage to the data lines, a gate driver IC configured to be disposed on any one of two side surfaces which are adjacent to the one side surface of the display panel to apply a gate driving voltage to the gate lines, and a controller configured to receive feedback on a gate driving voltage applied to at least one pixel, detect a distortion of the gate driving voltage applied to the pixel based on the feedback, adjust a level of the gate driving voltage applied to the gate lines to compensate for the distortion of the gate driving voltage, and apply the adjusted gate driving voltage to the gate lines.

Abstract: A liquid crystal panel driving circuit and a liquid crystal display device are provided. Every three sub-pixel unit columns are defined as a row cycle that comprises a first data line, a second data line, and a third data line coupled to a same data driving signal output line of the data driver via the switch unit. The switch unit is configured to control the first data line, the second data line, and the third data line to output data signals in different output orders.

Abstract: A display apparatus is provided. The display apparatus includes: an image inputter configured to receive an image; a display panel comprising a plurality of pixels; a panel driver configured to drive the plurality of pixels of the display panel on a pixel basis to display the image; and a processor configured to divide the image into a plurality of areas based on a grayscale characteristic of the image, and control the panel driver to individually adjust brightness of at least one of the plurality of areas.

Abstract: A detection device includes a substrate; a plurality of first conductive thin wires provided in a plane parallel to the substrate and extending in a first direction; a plurality of second conductive thin wires provided in the same layer as that of the first conductive thin wires and extending in a second direction forming an angle with the first direction; first groups that are disposed in first strip-like regions respectively having a first width, each of the first groups including at least two of the first conductive thin wires displaced from one another in the second direction; and second groups that are disposed in second strip-like regions respectively having a second width, each of the second groups including at least two of the second conductive thin wires displaced from one another in the first direction.

Abstract: A touch-sensitive display device includes a touch sensor, drive circuitry and receive circuitry. The touch sensor has a matrix of row electrodes and column electrodes. The drive circuitry drives the row electrodes during a touch-sensing frame to influence electrical conditions on the column electrodes. The receive circuitry, during the touch-sensing frame, for each row electrode of the matrix, measures a capacitance of each column electrode while the row electrode is being driven, for each of a plurality of different sections of column electrodes of the matrix, performs local analysis of the measured capacitances of the column electrodes of the section to estimate a row-specific noise capacitance for each column electrode, and determines a touch input based on a difference between the measured capacitance of the column electrode while the row electrode is being driven and the estimated row-specific noise capacitance of the column electrode.

Abstract: A substantially spherical hand-held input device which provides manual data input for navigating a virtual environment and other kinds of user interface, includes a capacitive touch sensor responsive to touch events anywhere on its surface, the touch sensor including a propagation-enhancing portion so that gestural radio signals can be transmitted through the touch-sensitive surface of the input device to a computer system during use, the propagation-enhancing portion being in the form of a spiral-shaped conductor that is also used for capacitance-sensing, and a multi-touch array includes multiple spiral-shaped touch-sensing conductors to provide the propagation-enhancing portion, and the propagation-enhancing portion is a metamaterial at a transmission frequency of the gestural radio signals.

Abstract: A double-layer mutual capacitive touch panel includes a first conductive layer and a second conductive layer. The first conductive layer includes multiple electrodes arranged in an array. In each column of the array, the electrodes at the ((N*M)?1)th row are mutually electrically connected to form a first electrodes series, and the electrodes at the (N*M)th row are mutually electrically connected to form a second electrode series, where N is a positive integer greater than or equal to 2 and M is a positive integer greater than or equal to 1. The second conductive layer includes M mutually insulated electrode strip groups sequentially arranged along a column direction of the array. Each electrode strip group includes N electrode strips mutually electrically connected, and each electrode strip of each electrode strip group extends along a row direction of the array and overlaps the electrodes of the corresponding row.

Abstract: An OLED panel may include a substrate including a first region and a second region disposed along a first direction. A plurality of first pixels are disposed in the first region on the substrate, the first pixels each having a first area, the first pixels each comprising a first unit pixel, a second unit pixel disposed along a second direction from the first unit pixel, and a transmission portion disposed along the first direction from the first unit pixel and the second unit pixel. A plurality of second pixels are disposed in the second region on the substrate, the second pixels each having a second area less than the first area, the second pixels each comprising a third unit pixel. The first unit pixel, the second unit pixel, and the third unit pixel may have substantially the same shape as each other.

Abstract: An electronic device is provided. The electronic device includes a display and at least one processor that is configured to display an object corresponding to an application on the display, display an execution screen of the application in an area of the display when a hovering input is detected on the object corresponding to the application, and display the object corresponding to the application on the display when the hovering input is released.