Abstract: An image processing method suitable for 3D display is provided. The image processing method includes: determining, by a processor in a display-processing element, a current display mode of the 3D display according to a detected user command for activating on-screen display (OSD) menu; in response to the current display mode not being a specific 3D display mode, the processor outputting the OSD menu at a preset position, and outputting an input image; and in response to the current display mode being the specific 3D display mode, the processor outputting the OSD menu at an adjusted position, and outputting the input image, wherein the adjusted position is different from the preset position.

Abstract: A detection method is disclosed. The detection method is configured to detect a fingerprint sensing device, in which the fingerprint sensing device includes several sensing electrodes arranged in a matrix, in which the detection method includes: outputting several gate signals to several sensing electrodes through a plurality of gate lines; outputting a plurality of sensing values of several sensing electrodes according to a sensing interval of each of several gate signals; and determining whether a defect exists in the fingerprint sensing device or not according to several sensing values, in which a first gate signal of several gate signals is transmitted to part of several sensing electrodes through a first gate line of several gate lines, and in which the sensing interval of the first gate signal is shorter than the sensing interval of each of the rest of several gate signals.

Abstract: A touch device includes a substrate, a touch electrode layer, a first wire, and at least one second wire The substrate includes a touch region and a peripheral region. The peripheral region is surrounding the touch region. The touch electrode layer is disposed at the touch region. The first wire is disposed at the peripheral region and is configured to receive a touch driving signal. The at least one second wire is disposed at the peripheral region and is configured to receive a synchronization signal corresponding to the touch driving signal. The first wire is disposed between the touch region and the at least one second wire.

Abstract: A touch device includes a substrate, a touch electrode layer, a first wire, and at least one second wire. The substrate includes a touch region and a peripheral region. The peripheral region is surrounding the touch region. The touch electrode layer is disposed at the touch region. The first wire is disposed at the peripheral region and is configured to receive a touch driving signal. The at least one second wire is disposed at the peripheral region and is configured to receive a synchronization signal corresponding to the touch driving signal. The first wire is disposed between the touch region and the at least one second wire.

Abstract: A driving circuit of an LCD device and related driving method is provided. The driving circuit includes a thermal sensor and a power IC. The thermal sensor is configured to detect the operational temperature of the LCD device, thereby generating a corresponding thermal signal. The power IC is configured to provide a plurality of clock signals for driving a gate driver of the LCD device, and adjust the effective pulse widths of the plurality of clock signals according to the thermal signal.

Abstract: By following properties that there is coupled noise, which is coupled from a display panel, within at least one common voltage used on the display panel, the at least one common voltage is fed-back into a pixel electrode driving module, and driving voltages are generated accordingly, so that the generated driving voltages carry noises closes to coupled noises of the display panel. As a result, while the driving voltages carrying noises from the at least one common voltage, the pixel electrode driving module is capable of driving a corresponding pixel electrode with a stable voltage difference, and thereby capable of relieving horizontal crosstalk and raising a display quality of the display panel.

Abstract: A method for controlling gate signals of a liquid crystal display (LCD), including generating gate signal with a modulated pulse width according to the gate signal with a default pulse width; when the LCD is booting up, outputting the gate signal with the modulated pulse width; and when a backlight module of the LCD is turned on, switching the gate signal with the modulated pulse width to the gate signal with the default pulse width. This way, the pulse width of the gate signal is increased after the LCD is boot up and before the backlight module is turned on, enabling the LCD to be boot properly in low temperature, without the need to raise the voltage level of the gate signal.

Abstract: A light source system and a method for driving light emitting diodes (LEDs) are provided. The provided light source system includes: an LED module having a plurality of LED strings operated under a direct current (DC) output voltage; and a driving unit coupled to the LED module, and used for providing the DC output voltage by adopting a boost means and generating a plurality of pulsation current signals according to a setting signal so as to respectively drive the LED strings, in which the frequencies of the pulsation current signals are higher than a predetermined frequency.

Abstract: A light source system and a method for driving light emitting diodes (LEDs) are provided. The provided light source system includes: an LED module having a plurality of LED strings operated under a direct current (DC) output voltage; and a driving unit coupled to the LED module, and used for providing the DC output voltage by adopting a boost means and generating a plurality of pulsation current signals according to a setting signal so as to respectively drive the LED strings, in which the frequencies of the pulsation current signals are higher than a predetermined frequency.

Abstract: A method for controlling gate signals of a liquid crystal display (LCD), including generating gate signal with a modulated pulse width according to the gate signal with a default pulse width; when the LCD is booting up, outputting the gate signal with the modulated pulse width; and when a backlight module of the LCD is turned on, switching the gate signal with the modulated pulse width to the gate signal with the default pulse width. This way, the pulse width of the gate signal is increased after the LCD is boot up and before the backlight module is turned on, enabling the LCD to be boot properly in low temperature, without the need to raise the voltage level of the gate signal.

Abstract: A driving circuit of an LCD device and related driving method is provided. The driving circuit includes a thermal sensor and a power IC. The thermal sensor is configured to detect the operational temperature of the LCD device, thereby generating a corresponding thermal signal. The power IC is configured to provide a plurality of clock signals for driving a gate driver of the LCD device, and adjust the effective pulse widths of the plurality of clock signals according to the thermal signal.

Abstract: By following properties that there is coupled noise, which is coupled from a display panel, within at least one common voltage used on the display panel, the at least one common voltage is fed-back into a pixel electrode driving module, and driving voltages are generated accordingly, so that the generated driving voltages carry noises closes to coupled noises of the display panel. As a result, while the driving voltages carrying noises from the at least one common voltage, the pixel electrode driving module is capable of driving a corresponding pixel electrode with a stable voltage difference, and thereby capable of relieving horizontal crosstalk and raising a display quality of the display panel.