Abstract:
A flat panel display device is capable of reducing a resistance difference according to the lengths of signal lines and has a stably designed resistance value of the signal lines arranged in edges of wire groups diverging from a driving circuit unit. The flat panel display device includes a display unit including a plurality of pixels arranged in intersecting regions of signal lines; a driving circuit unit to supply drive signals to the signal lines; and a divergence region having the signal lines diverge into at least two wire groups to connect the driving circuit unit to the pixels, wherein a resistance difference per unit length between the signal lines arranged in a boundary of two wire groups is set to a value that is intermediate of average resistance differences between the adjacent signal lines in the two wire groups.
Abstract:
A liquid crystal display (LCD) device includes lower and upper substrates attached to each other, a plurality of data lines on the lower substrate, a plurality of lead lines on the lower substrate, the lead lines being positioned in a dummy region of the lower substrate, a plurality of scan lines on the upper substrate, the scan lines being connected to respective lead lines and being positioned to intersect with the data lines, and at least one dummy pattern on the lower substrate, the dummy pattern being positioned in the dummy region between an edge of the lower substrate and a corresponding outermost lead line of the plurality of lead lines.
Abstract:
An organic light-emitting diode display device includes a first switch element turned-on in response to a first scanning signal during a first period to supply a data to a first node, and then maintaining an off-state during a second period, a driving device adjusting a current through an organic light-emitting diode element in accordance with a voltage of the first node; a reference voltage source providing a reference voltage that is capable of turning-off the driving device, a second switch element maintaining an off-state during the first period, and turned-on during the second period to supply the reference voltage to the first node, and a storage capacitor maintaining the voltage at the first node.
Abstract:
A touch screen apparatus including: a touch sensing unit; a memory configured to store sensing information transmitted from the touch sensing unit; and a display unit associated with the memory, the display unit configured to receive and display the sensing information stored in the memory.
Abstract:
A reflective display device includes a pixel array including a plurality of pixels; a data driver connected to each of the plurality of pixels and configured to transmit a target voltage to each of the plurality of pixels; and a scan driver connected to each of the plurality of pixels and configured to transmit a switching signal for determining whether the data driver transmits the target voltage to some of the plurality of pixels, wherein each of the plurality of pixels is configured to receive the target voltage for single data information, receive the target voltage in a first time period when the target voltage transmitted to each of the plurality of pixels is between a first voltage level and a second voltage level, and receive the target voltage in a second time period when the target voltage is between the second voltage level and a third voltage level.
Abstract:
A touch screen apparatus including: a touch sensing unit; a memory configured to store sensing information transmitted from the touch sensing unit; and a display unit associated with the memory, the display unit configured to receive and display the sensing information stored in the memory.
Abstract:
A reflective display device includes a pixel array including a plurality of pixels; a data driver connected to each of the plurality of pixels and configured to transmit a target voltage to each of the plurality of pixels; and a scan driver connected to each of the plurality of pixels and configured to transmit a switching signal for determining whether the data driver transmits the target voltage to some of the plurality of pixels, wherein each of the plurality of pixels is configured to receive the target voltage for single data information, receive the target voltage in a first time period when the target voltage transmitted to each of the plurality of pixels is between a first voltage level and a second voltage level, and receive the target voltage in a second time period when the target voltage is between the second voltage level and a third voltage level.
Abstract:
An organic light-emitting diode display device includes a first switch element turned-on in response to a first scanning signal during a first period to supply a data to a first node, and then maintaining an off-state during a second period, a driving device adjusting a current through an organic light-emitting diode element in accordance with a voltage of the first node; a reference voltage source providing a reference voltage that is capable of turning-off the driving device, a second switch element maintaining an off-state during the first period, and turned-on during the second period to supply the reference voltage to the first node, and a storage capacitor maintaining the voltage at the first node.
Abstract:
According to an example embodiment, a pixel circuit for driving a display unit includes a plurality of capacitive devices, a first switching device and a second switching device. The plurality of capacitive devices are configured to apply a driving voltage to the display unit. The first switching device is configured to selectively supply a data signal to a first capacitive device of the plurality of capacitive devices based on a first scan signal. The second switching device is configured to selectively supply the data signal to a second capacitive device of the plurality of capacitive devices based on a second scan signal.
Abstract:
An organic light-emitting diode display device and driving method thereof are provided. The organic light-emitting diode display device including a driving voltage source; a reference voltage source that generates a reference voltage; a reference current source; and a storage capacitor connected between a first node and a second node. An organic light-emitting diode device is connected between a third node and a ground voltage source. A first scanning signal is supplied to a first scan line. A second scanning signal is supplied to a second scan line, the second scanning signal having an inverse-phase against the first scanning signal.