Abstract: The disclosure provides an electronic device with a vibration function and a vibration driving method. The electronic device includes a processor and an audio player. The processor outputs an audio signal according to an application program, and executes an audio analysis module to analyze the audio signal. The audio player is coupled to the processor, and receives the audio signal. When the audio analysis module determines that the audio signal has a loudness with an audio frequency lower than a default frequency threshold according to an audio frequency distribution of the audio signal, the audio analysis module outputs a vibration drive signal according to the loudness of the audio signal.

Abstract: The disclosure provides an electronic device with a vibration function and a vibration driving method. The electronic device includes a processor and an audio player. The processor outputs an audio signal according to an application program, and executes an audio analysis module to analyze the audio signal. The audio player is coupled to the processor, and receives the audio signal. When the audio analysis module determines that the audio signal has a loudness with an audio frequency lower than a default frequency threshold according to an audio frequency distribution of the audio signal, the audio analysis module outputs a vibration drive signal according to the loudness of the audio signal.

Abstract: An optical image recognition device and a method for fabricating the same are disclosed. The device includes a flexible printed circuit board, an image sensor, a glue, an optical collimator, a supporting ring, a sealant, and an optical filter. The top of the flexible printed circuit board is provided with a recess, the image sensor is located in the recess, the sidewalls of the image sensor and the recess are separated from each other, and the image sensor is coupled to the flexible printed circuit board through conductive wires. The glue adheres to the flexible printed circuit board and the image sensor and covers the conductive wires. The optical collimator is disposed on the image sensor. The supporting ring, disposed on the flexible printed circuit board, surrounds the glue and the optical collimator. The optical filter, disposed on the sealant, shields the optical collimator and the image sensor.

Abstract: An optical image recognition device and a method for fabricating the same are disclosed. The device includes a flexible printed circuit board, an image sensor, a glue, an optical collimator, a supporting ring, a sealant, and an optical filter. The top of the flexible printed circuit board is provided with a recess, the image sensor is located in the recess, the sidewalls of the image sensor and the recess are separated from each other, and the image sensor is coupled to the flexible printed circuit board through conductive wires. The glue adheres to the flexible printed circuit board and the image sensor and covers the conductive wires. The optical collimator is disposed on the image sensor. The supporting ring, disposed on the flexible printed circuit board, surrounds the glue and the optical collimator. The optical filter, disposed on the sealant, shields the optical collimator and the image sensor.

Abstract: An optical image recognition device and a method for fabricating the same are disclosed. The device includes a flexible printed circuit board, an image sensor, a glue, an optical collimator, a supporting ring, a sealant, and an optical filter. The top of the flexible printed circuit board is provided with a recess, the image sensor is located in the recess, the sidewalls of the image sensor and the recess are separated from each other, and the image sensor is coupled to the flexible printed circuit board through conductive wires. The glue adheres to the flexible printed circuit board and the image sensor and covers the conductive wires. The optical collimator is disposed on the image sensor. The supporting ring, disposed on the flexible printed circuit board, surrounds the glue and the optical collimator. The optical filter, disposed on the sealant, shields the optical collimator and the image sensor.

Abstract: An optical image recognition device and a method for fabricating the same are disclosed. The device includes a flexible printed circuit board, an image sensor, a glue, an optical collimator, a supporting ring, a sealant, and an optical filter. The top of the flexible printed circuit board is provided with a recess, the image sensor is located in the recess, the sidewalls of the image sensor and the recess are separated from each other, and the image sensor is coupled to the flexible printed circuit board through conductive wires. The glue adheres to the flexible printed circuit board and the image sensor and covers the conductive wires. The optical collimator is disposed on the image sensor. The supporting ring, disposed on the flexible printed circuit board, surrounds the glue and the optical collimator. The optical filter, disposed on the sealant, shields the optical collimator and the image sensor.

Abstract: A scanning method for a touch panel of a touch device, the touch panel includes a plurality of first electrodes and a plurality of second electrodes isolately intersecting with the first electrodes. At a first period t1, a scanning signal is transmitted to each first electrode, and a first sensing signal output from each second electrode is received at the first period t1 to determine whether or not at least one second electrode is touched. At a second period t2, the scanning signal is transmitted to the at least one second electrode and one or more other second electrode surrounding the at least one second electrode in turn, and a second sensing signal is received from each first electrode to locate at least one touch operation applied on the touch panel.

Abstract: A touch panel includes a substrate, first and second electrode units, and an auxiliary electrode unit. The substrate has first and second touch areas. The first electrode unit includes a plurality of first electrodes arranged spacedly in one of rows and columns, and disposed on the substrate to span the first and second touch areas. The second electrode unit includes a plurality of second electrodes arranged spacedly in the other of rows and columns to intersect without contacting the first electrodes. The auxiliary electrode unit is disposed proximate to and without contacting the second electrode unit such that the second electrode unit is able to detect a signal passing through the auxiliary electrode unit.

Abstract: A touch panel includes a substrate, first and second electrode units, and an auxiliary electrode unit. The substrate has first and second touch areas. The first electrode unit includes a plurality of first electrodes arranged spacedly in one of rows and columns, and disposed on the substrate to span the first and second touch areas. The second electrode unit includes a plurality of second electrodes arranged spacedly in the other of rows and columns to intersect without contacting the first electrodes. The auxiliary electrode unit is disposed proximate to and without contacting the second electrode unit such that the second electrode unit is able to detect a signal passing through the auxiliary electrode unit.

Abstract: A backlight driving circuit includes a driving unit, a light source, a power supply circuit, and a controller connected to the driving unit. The power supply circuit includes a low voltage output terminal for outputting a low DC voltage and a high voltage output terminal for outputting a high DC voltage. If the backlight driving circuit is in a normal operation mode, the driving unit transforms the high DC voltage to a constant current for driving the light source by control of the controller. If the backlight driving circuit is in a power saving operation mode, the low DC voltage drives the light source by control of the controller.