Abstract: A display panel of a light emitting display device includes a plurality of pixel circuits disposed in a matrix format. At least one of the pixel circuits includes a light emitting element, a transistor, a capacitor, a first switch, and a second switch. The transistor has first, second, and third electrodes and is for outputting a current corresponding to a voltage applied between the first and second electrodes to the third electrode. The light emitting element is for emitting light corresponding to the current outputted by the transistor. The capacitor is coupled between the first and second electrodes of the transistor. The first switch is for transmitting image signals to the first electrode of the transistor in response to a select signal, and the second switch is for electrically coupling the light emitting element to the third electrode of the transistor in response to an emit signal.

Abstract: The present invention relates to a binding update identifier sub-option field configuration method and a binding update information configuration method. In the method, a binding update identifier sub-option field including current used interface and data characteristics and corresponding to one interface of the plurality of interfaces is generated, the binding update identifier sub-option field is transmitted to a home agent and a correspondent node, a care-of address corresponding to a binding update identifier is stored, and binding update is performed.

Abstract: Provided is a suspended nanowire sensor having good sensing characteristics and suitable for mass production, a method for fabricating the suspended nanowire sensor. The suspended nanowire sensor includes: first and second sensor electrodes formed on upper portions of a substrate and physically separated from each other; and a nanowire sensor material piece extending from the first sensor electrode to the second sensor electrode and physically suspended between the first and second sensor electrodes.

Abstract: The motor including a stator having a stator core, and an insulator provided to the stator core for winding a coil thereon, a rotor rotatably provided with respect to the stator, and a tap terminal provided to the insulator for positioning an end of the coil, wherein the coil includes a core wire of aluminum.

Abstract: A mobile communication terminal and method for displaying broadcast storage information. The present invention includes receiving at least a portion of a broadcast stream, storing the portion of the broadcast stream that is received, and distinguishably displaying first information related to a stored portion of the broadcast stream and second information related to a non-stored portion of the broadcast stream.

Abstract: A mobile communication terminal is disclosed that allows an incoming call notification mode to be automatically changed depending on an ambient noise signal level, thus eliminating the need to manually change the incoming call notification mode. A microphone capable of automatically changing an incoming call notification mode according to a noise signal level is provided and the terminal stores at least one reference noise signal level; drives the microphone according to a set automatic incoming call notification changing mode to measure a perceived noise signal value; compares the measured noise signal value with the stores reference noise signal level; and sets an incoming call notification mode of the mobile communication terminal to one of a bell mode and a vibration mode according to the result.

Abstract: A method for setting a service in a mobile communication terminal including at least first and second user identity cards. The method includes selecting the first identity card to be used for mobile communication, and requesting services directed to the second identity card be forwarded to the first identity card.

Abstract: A demultiplexer using sample/hold circuits, and a display device using the same. The demultiplexer includes a first sample/hold circuit group with first and second sample/hold circuits for sampling the data current according to a first sampling order during a first interval, and programming the current corresponding to the sampled and stored data to at least two signal lines during a second interval. The demultiplexer further includes a second sample/hold circuit group with third and fourth sample/hold circuits for sampling the data current according to a second sampling order during a second interval, and programming the current corresponding to the sampled and stored data to the signal lines during a third interval. The first and second sampling orders in even the even frames are different from the sampling orders in the odd frames.

Abstract: An organic light emitting display device includes data lines, selection scan lines, and emission scan lines for transmitting data signals, selection signals, and emission signals, respectively. Pixel circuits are arranged at regions defined by the data lines and the selection scan lines. A first scan driving unit outputs the emission signals. The first scan driving unit includes conversion circuits, each of the conversion circuits including conversion circuit transistors of an identical channel type. Each of the conversion circuits receives a first signal, a second signal, a third signal and a conversion circuit clock signal, and outputs a conversion output signal as a respective emission signal of the emission signals.

Abstract: Disclosed is a mobile terminal having an expedient telephone number editing and dialing function. When a user presses a SEND key during the display of a telephone number detected from a phonebook, the mobile terminal detects a SEND key input pattern and processes the telephone number according to the SEND key input pattern. Particularly, when the SEND key is pressed in a predetermined telephone number editing pattern, the mobile terminal initiates a mode for editing the telephone number so that the user can easily edit the telephone number, for example, by adding a specific code or digit, without the need for excessive key-pressings to select the telephone number editing mode.

Abstract: A buffer circuit includes first to sixth transistors. The first transistor is coupled between a first power source and a first node, and has a gate for receiving a first signal having a first signal level. The second transistor is coupled between the first node and a second power source, and has a gate for receiving a second signal having a second signal level, which is an inverse of the first signal level. The third transistor has a gate coupled to the first node, and is coupled between the first power source and a second node. The fourth transistor is coupled between the second node and the second power source, and has a gate for receiving the first signal. The fifth transistor has a gate coupled to the second node, and is coupled between the first power source and an output end. The sixth transistor has a gate coupled to the first node, and is coupled between the output end and the second power source. In addition, a capacitance is formed between the gate of the sixth transistor and the output end.

Abstract: A data driver includes a shift register circuit configured to receive a first clock signal, a second clock signal, and a start signal, and to sequentially provide a sampling signal, a conversion circuit configured to receive the first clock signal, the second clock signal, and the sampling signal, and to sequentially provide a conversion signal, a sampling latch circuit configured to store data according to the sampling signal and the conversion signal, and a holding latch circuit configured to receive the data from the sampling latch circuit in response to first and second enable signals, and to provide a first data signal or a second data signal to data lines corresponding to the received data.

Abstract: A scan driving circuit includes a plurality of stages. Each stage receives three of four clocks that may be sequentially generated, receives and delays an input signal through an input terminal, and outputs an output signal through an output terminal. The input terminal of each stage is connected to the output terminal of a previous one of the stages. Each stage includes a transistor, a switch section, and a storage section. The transistor turns off/on a connection of the input terminal according to a second clock. The switch section transfers a first voltage to the output terminal according to a first clock and prevents the first voltage from being transferred to the output terminal according to the input signal. The storage section maintains a voltage of the output terminal for a predetermined time and transfers a voltage of a third clock to the output terminal according to the input signal.

Abstract: A scan driving circuit and an organic light emitting display using the same. The scan driving circuit includes stages that each includes: a switch for turning on/off a connection of the input terminal according to a first clock among a plurality of clocks, the first clock for inputting through a first clock terminal; a switch section for transferring a first voltage to the output terminal according to the first clock among the three clocks, and for preventing the first voltage from being transferred to the output terminal according to the input signal; and a storage section for maintaining a voltage of the output terminal for a predetermined time, and for transferring a voltage of a second clock among the three clocks to the output terminal according to the input signal, the second clock for inputting through the second clock terminal.

Abstract: A data driver including a shift register unit configured to receive a first clock signal, a second clock signal, and a start pulse, and to generate a sampling pulse, a sampling latch unit configured to receive and output bits and reversed bits of digital data, in correspondence with the sampling pulse, a holding latch unit configured to receive the bits and reversed bits output by the sampling latch unit, and to output the bits and reversed bits, in correspondence with a first enable signal and a second enable signal, and a digital-to-analog converter configured to receive the bits and reversed bits output by the holding latch unit and to generate an analog signal corresponding to values of the received bits and reversed bits.

Abstract: A scan driving circuit includes a first scan driver including a plurality of first units, the first units receiving an input signal or an output voltage of a previous first unit and first and second clock signals to output a scan signal, and a second scan driver having a plurality of second units, the second units receiving a plurality of scan signals output from respective ones of the first units, and at least one of the first and second clock signals, and outputting an emission control signal.

Abstract: A data driver includes a shift register unit receiving a first clock signal, a second clock signal and a start pulse, and outputting a sampling pulse, a sampling latch unit storing data based on the sampling pulse and a charging signal, and a holding latch unit receiving data stored in the sampling latch unit based on a first enable signal and a second enable signal and supplying a first data signal or a second data signal to data lines based on the data received from the sampling latch unit.

Abstract: A scan driving circuit having a shift register unit with a plurality of stages, each stage includes an input terminal; an output terminal; first, second, and third clock terminals; a first transistor in communication with the input terminal and the second clock terminal, the first transistor configured to transfer the input signal according to a signal from the second clock terminal; a switch section in communication with the input terminal, the output terminal, and the first clock terminal, the switch section configured to receive the input signal from the first transistor and transfer a first exterior voltage signal to the output terminal according to the input signal and a signal from the first clock terminal; and a storage section configured to receive and store the input signal from the first transistor, and to transfer a signal from the third clock terminal to the output terminal according to the input signal.