Abstract: An integrated circuit product includes a first chip to a twelfth chip. The first to fourth chips are respectively arranged in a first quadrant, a fourth quadrant, a third quadrant, and a second quadrant of the integrated circuit product, and the first chip is adjacent to the second chip and the fourth chip. The fifth to eighth chips are respectively arranged in the first quadrant, the fourth quadrant, the third quadrant, and the second quadrant of the integrated circuit product, and any two of the fifth to eighth chips are not adjacent to each other. The ninth to twelfth chips are respectively arranged in the first quadrant, the fourth quadrant, the third quadrant, and the second quadrant of the integrated circuit product, and any two of the ninth to twelfth chips are not adjacent to each other.

Abstract: An integrated circuit product includes a first chip to a twelfth chip. The first to fourth chips are respectively arranged in a first quadrant, a fourth quadrant, a third quadrant, and a second quadrant of the integrated circuit product, and the first chip is adjacent to the second chip and the fourth chip. The fifth to eighth chips are respectively arranged in the first quadrant, the fourth quadrant, the third quadrant, and the second quadrant of the integrated circuit product, and any two of the fifth to eighth chips are not adjacent to each other. The ninth to twelfth chips are respectively arranged in the first quadrant, the fourth quadrant, the third quadrant, and the second quadrant of the integrated circuit product, and any two of the ninth to twelfth chips are not adjacent to each other.

Abstract: An integrated circuit product includes a first chip, a second chip, a third chip, a fourth chip, a fifth chip, a sixth chip, a seventh chip, and an eighth chip. The areas and constituent components of the first chip, the second chip, the third chip, and the fourth chip are substantially the same. The areas and constituent components of the fifth chip, the sixth chip, the seventh chip, and the eighth chip are substantially the same. The first chip, the second chip, the third chip, and the fourth chip are respectively arranged on the four sides of the integrated circuit product. The fifth chip, the sixth chip, the seventh chip, and the eighth chip are arranged in a central area of the integrated circuit product.

Abstract: An integrated circuit product includes a first chip to a twelfth chip. The first to fourth chips are respectively arranged in a first quadrant, a fourth quadrant, a third quadrant, and a second quadrant of the integrated circuit product, and the first chip is adjacent to the second chip and the fourth chip. The fifth to eighth chips are respectively arranged in the first quadrant, the fourth quadrant, the third quadrant, and the second quadrant of the integrated circuit product, and any two of the fifth to eighth chips are not adjacent to each other. The ninth to twelfth chips are respectively arranged in the first quadrant, the fourth quadrant, the third quadrant, and the second quadrant of the integrated circuit product, and any two of the ninth to twelfth chips are not adjacent to each other.

Abstract: A driving circuit for a touch control panel, that selectively operates in a display mode or a touch mode, includes a display data generating circuit and a touch control circuit. When the driving circuit operates in the display mode, the display data generating circuit transmits display data to multiple data lines of a pixel array of the touch display panel. When the driving circuit operates in the touch mode, the touch control circuit transmits a touch driving signal to the multiple data lines, and performs touch detection by detecting capacitance changes on the multiple data lines.

Abstract: A driving method of a touch display device is provided. In a first display period of a first frame time, m gate signals are sequentially provided to first to mth gate lines, respectively, wherein m is a positive integer. In a first touch control period of the first frame time immediately following the first display period, a touch driving signal is provided to a touch sensor. In another first display period of a second frame time immediately following the first frame time, p gate signals are sequentially provided to the first to gate lines, pth respectively, where p is a positive integer and is different from m. In another first touch period of the second frame time immediately following the another first display period, the touch driving signal is provided to the touch sensor.

Abstract: A capacitive sensing device includes: a substrate; a touch sensing electrode group, disposed above the substrate; a fingerprint sensing electrode group, disposed above the substrate; and a capacitive sensing integrated circuit, electrically connected to the touch sensing electrode group and the fingerprint sensing electrode group, sensing a capacitance change in the touch sensing electrode group to generate a touch control instruction, and sensing a capacitance change in the fingerprint sensing electrode group to generate a fingerprint pattern.

Abstract: An operating mode distinguishing method, a touch point determining method and a touch control circuit are provided. It is determined whether an underwater mode is entered according to a self capacitance value and a mutual capacitance value. In the underwater mode, a touch point position is determined according to deformation of a substrate.

Abstract: An operating mode distinguishing method, a touch point determining method and a touch control circuit are provided. It is determined whether an underwater mode is entered according to a self capacitance value and a mutual capacitance value. In the underwater mode, a touch point position is determined according to deformation of a substrate.

Abstract: A touch panel includes electrodes and routings disposed on a single conductive layer. The electrodes and routings are connected to drivers and sensors to sense mutual capacitance changes induced by a touch among the electrodes. The touch panel includes a first electrode, a second electrode, and a first routing connected to the first electrode. The second electrode includes two sub-electrodes respectively disposed at two sides of the first routing. The first electrode has a first jigsaw section, and the second electrode has a second jigsaw section mutually intervening with the first jigsaw section in an insulated manner.

Abstract: A portable electronic device includes a touch sensing circuit, a substrate, a conductive layer on the substrate, a resistance measuring circuit and a control circuit. The conductive layer includes a plurality of sensing electrodes. The touch sensing circuit determines whether a touch point occurs according to a plurality of capacitance changes of the plurality of sensing electrodes. The resistance measuring circuit measures a resistance value of at least a part of the conductive layer. The control circuit determines whether the touch sensing circuit should enter a correction mode according to the resistance value.

Abstract: A data reading device that transmits power to a data transmission device and reads data transmitted from the data transmission device is provided. The data reading device includes: a first electrode, forming a first coupling capacitance with the data transmission device; a second electrode, forming a second coupling capacitance with the data transmission device; a control circuit, coupled to the first electrode and the second electrode, configured to provide the first electrode with a first reference voltage and the second electrode with a second reference voltage to cause a voltage difference between the first electrode and the second electrode to vary with time, and to detect charge changes of the first coupling capacitance and the second capacitor; and a determination unit, coupled to the control circuit, configured to determine the data according to the charge changes.

Abstract: An image sensing method includes: emitting light to a object to generate an image; providing a sensing device, which has plural sensor units arranged by plural columns and plural rows; receiving the image by the sensing device by way of rolling exposure; controlling a rolling shutter, such that when the sensing device receives the image by way of rolling exposure, the exposure time of at least one sensor row is adaptively determined.

Abstract: The present invention provides an image brightness non-uniformity correction method and an image brightness correction device therefor. The image brightness non-uniformity correction method includes the steps of: (A) generating an initial input image having pixels arranged in a matrix, wherein each pixel has a corresponding pixel brightness and the initial input image has non-uniform brightness; (B) performing a pre-processing procedure on the initial input image, to generate a pre-processed image; (C) performing an image gradient correction procedure on the pre-processed image, to eliminate non-uniformity of the brightness of the initial input image; and (D) outputting an output image having an uniformity-processed brightness.

Abstract: An operating mode distinguishing method, a touch point determining method and a touch control circuit are provided. It is determined whether an underwater mode is entered according to a self capacitance value and a mutual capacitance value. In the underwater mode, a touch point position is determined according to deformation of a substrate.

Abstract: A sensing apparatus includes a substrate, N groups of sensing elements formed on the substrate, a sensing circuit and a switch control circuit. Each group of the N groups of sensing elements includes a plurality of sensing elements. Each of the sensing elements includes a thin-film transistor (TFT) switch and a sensing electrode. The sensing electrode drives the N groups of sensing elements to sequentially generate N groups of sensing signals. By controlling the TFT switches, the switch control circuit controls a plurality of sensing electrodes included in one group of the N groups of sensing elements to be coupled to the sensing circuit.

Abstract: A capacitive sensing device includes: a substrate; a touch sensing electrode group, disposed above the substrate; a fingerprint sensing electrode group, disposed above the substrate; and a capacitive sensing integrated circuit, electrically connected to the touch sensing electrode group and the fingerprint sensing electrode group, sensing a capacitance change in the touch sensing electrode group to generate a touch control instruction, and sensing a capacitance change in the fingerprint sensing electrode group to generate a fingerprint pattern.

Abstract: A touch panel includes a plurality of touch sensing groups. Each of the touch sensing groups includes a central electrode, a plurality of first electrodes and a plurality of second electrodes. The central electrode includes a main body, and has a wavy contour. The first electrodes and the second electrodes are disposed at two sides of the main body along a direction, respectively. Each of the first electrodes includes a first inner edge adaptively spaced from a first edge of the central electrode. Each of the second electrodes includes a second inner edge adaptively spaced from a second edge of the central electrode. One first electrode of the first electrodes overlaps two adjacent second electrodes of the second electrodes in another direction.

Abstract: A driving circuit for a touch control panel, that selectively operates in a display mode or a touch mode, includes a display data generating circuit and a touch control circuit. When the driving circuit operates in the display mode, the display data generating circuit transmits display data to multiple data lines of a pixel array of the touch display panel. When the driving circuit operates in the touch mode, the touch control circuit transmits a touch driving signal to the multiple data lines, and performs touch detection by detecting capacitance changes on the multiple data lines.

Abstract: A driving circuit for a touch display panel is selectively operable in a display mode or a touch mode. The driving circuit includes a touch driving circuit and a display driving circuit. When the driving circuit operates in the display mode, the display driving circuit transmits corresponding data to multiple data lines of a pixel array of the touch display panel. When the driving circuit operates in the touch mode, the touch driving circuit transmits a driving signal to a common electrode of the touch display panel, and the display driving circuit controls at least a part of multiple gate lines and multiple data lines of the pixel array to cause that part to have a signal waveform at least partially same as that of the driving signal. A voltage of the common electrode reflects a touch action.