Abstract: The present invention relates to a driving method for flicker suppression of a display panel and a driving circuit thereof. The driving circuit includes a source driving circuit and a common voltage generating circuit. The driving method includes driving the source driving circuit to generate at least one first source signal and at least one second source signal, the first source signal corresponds to at least one first pixel on a first scanning line; the second source signal corresponds to at least one second pixel on a second scanning line. The common voltage generating circuit generates at least one common voltage. While driving the first pixel and the second pixel to display the same gray scale image, the first source signal is not equal to the second source signal, or a first common voltage and a second common voltage generated by the common voltage generating circuit are different.

Abstract: The present invention provides a test pad structure of chip, which comprises a plurality of first internal test pads, a plurality of second internal test pads, a plurality of first extended test pads, and a plurality of second extended test pads. The first internal test pads and the second internal test pads are disposed in a chip. The second internal test pads and the first internal test pads are spaced by a distance. The first extended test pads are connected with the first internal test pads. The second extended test pads are connected with the second internal test pads. The first extended test pads and the second extended test pads may increase the contact area to be contacted by probes. Signals or power are transmitted to the first internal test pads and the second internal test pads via the first extended test pads and the second extended test pads for the probes to test the chip.

Abstract: The present application discloses a capacitive sensing device and a sensing method thereof. A plurality of driving signals corresponding to a plurality of driving codes are outputted to a plurality of driving electrodes, thereby, a plurality of sensing signal are generated on a plurality of sensing electrodes corresponding to the driving electrodes, where the sensing signals are decoded to sensing data by an operation circuit. Hereby, the calculation function of the operation circuit according to the present application may be simplified.

Abstract: The present invention discloses a touch and display driver integration circuit, which includes a touch circuit and a display driver circuit. The touch circuit generates a status signal standing for the status of the touch circuit. The display driver circuit is coupled to the touch circuit and transmits at least one signal and/or at least one information to the touch circuit according to the status signal so as to drive the touch circuit.

Abstract: This disclosure provides a gate driving circuit, which comprises: first P-channel, second P-channel, first N-channel and second N-channel transistors, each has a gate, a source, a drain, and a base connected to the source; an output terminal electrically connected to the drains of the second N-channel and P-channel transistors; wherein the source of the first P-channel transistor is connected to a first voltage source, and a first voltage is applied to its gate; the source of the first N-channel transistor is connected to a second voltage source, and a second voltage is applied to its gate; the source of the second P-channel transistor is connected to the drain of the first P-channel transistor, and a third voltage is applied to its gate; the source of the second N-channel transistor is connected to the drain of the first N-channel transistor, and a control voltage is applied to its gate.

Abstract: This disclosure provides a display system, which comprises: a mainframe; a control module comprising an image processing unit and an image compositing unit, communicating with the mainframe through a first channel and a second channel, and generating an image signal; and a display panel showing pictures according to the image signal; wherein the mainframe provides the image processing unit with image data, parameter data and control signals through both the first and second channels when the first channel works, and the image processing unit processes the image data and the parameter data and generates a first data signal to be the image signal; wherein the mainframe provides the image compositing unit with response data through the second channel when the first channel fails, and the image compositing unit combines the response data and a pre-determined background into a second data signal to be the image signal.