Abstract: An LCD includes parallel scan lines, and parallel data lines orthogonal to the scan lines, to define a plurality of pixel regions. Each of the pixel regions includes a red, a green, and a blue sub-pixel region. The red sub-pixel region includes a first and a second red sub-pixel zones received scanning voltages from a same scan line and data voltage signals from different data lines. The green sub-pixel region includes a first and a second green sub-pixel zones received scanning voltages from a same scan line and data voltage signals from different data lines. The blue sub-pixel region includes a first and a second blue sub-pixel zones received scanning voltages from a same scan line and data voltage signals from different data lines. All the first and second sub-pixel zones alternately display black images or images corresponding to pre-determined gray scales during two adjacent frames of the LCD.

Abstract: An exemplary method for preventing an electronic device from erroneously resetting due to electrostatic discharge (ESD) involves an electronic device that includes a reset control pin. The method includes providing a timer, and setting a reset condition of the reset control pin. If the reset condition is satisfied, the electronic device resets. The method includes appropriately setting the reset condition of the electronic device. The reset condition can virtually never be satisfied by an ESD. Thus, the electronic device is efficiently prevented from erroneously resetting due to ESD.

Abstract: An exemplary liquid crystal display (20) includes a plurality of pixel regions arranged in a matrix manner. Each pixel region includes two first red sub-pixels, two first green sub-pixels, two first blue sub-pixels, a second red sub-pixel, a second green sub-pixel, and a second blue sub-pixel. In each pixel region, the nine sub-pixels are arranged in two rows, the two first red sub-pixels, the two first green sub-pixels, and the two first blue sub-pixels are arranged in a row, and the second red sub-pixel, the second green sub-pixel, and the second blue sub-pixel are arranged in the other row. Each second sub-pixel corresponds to two first sub-pixels of which only one has the same color with the corresponding second sub-pixel. Each two adjacent first sub-pixels have different colors.

Abstract: An LCD includes parallel scan lines, and parallel data lines orthogonal to the scan lines, to define a plurality of pixel regions. Each of the pixel regions includes a red, a green, and a blue sub-pixel region. The red sub-pixel region includes a first and a second red sub-pixel zones received scanning voltages from a same scan line and data voltage signals from different data lines. The green sub-pixel region includes a first and a second green sub-pixel zones received scanning voltages from a same scan line and data voltage signals from different data lines. The blue sub-pixel region includes a first and a second blue sub-pixel zones received scanning voltages from a same scan line and data voltage signals from different data lines. All the first and second sub-pixel zones alternately display black images or images corresponding to pre-determined gray scales during two adjacent frames of the LCD.

Abstract: An exemplary method for preventing an electronic device from erroneously resetting due to electrostatic discharge (ESD) involves an electronic device that includes a reset control pin. The method includes providing a timer, and setting a reset condition of the reset control pin. If the reset condition is satisfied, the electronic device resets. The method includes appropriately setting the reset condition of the electronic device. The reset condition can virtually never be satisfied by an ESD. Thus, the electronic device is efficiently prevented from erroneously resetting due to ESD.

Abstract: An exemplary data transmission system for preventing noise includes a transmitter and a receiver. The transmitter includes two pins, and first pin is used for providing data and second pin is used for providing select/enable signals. The receiver includes two pins, and first pin is used for receiving data from first pin of the transmitter and the second pin is connected to second pin of the transmitter. The transmitter and the receiver each include a third pin. The third pin of the receiver is used for providing feedback signal to the third pin of the transmitter. The data transmission system can check if the receiving data is right or wrong. When receiving signal is wrong, the transmitter can resend the right data again. A related method for transmitting data is also provided.