Abstract: A screen generation method of an energy management system according to the present disclosure may include performing system visualization modeling indicating a connection relationship between monitoring facilities in a power system to generate a first screen; generating a file containing information on a connection relationship between facilities used during the first screen generation; and generating a second screen for monitoring facilities during the real-time operation using the generated file.

Abstract: A semiconductor memory device includes a transmission line configured to transmit a fuse enable signal for performance of a repair operation; a first repair enable signal generation unit configured to receive the fuse enable signal through the transmission line and generate a first repair enable signal for performing a repair operation for a first bank; and a second repair enable signal generation unit configured to receive the fuse enable signal through the transmission line and generate a second repair enable signal for performing a repair operation for a second bank.

Abstract: A terminal and a method of providing a user interface using a pen are provided. The terminal includes a pen attachment/detachment perception switch configured to detect attachment and detachment of a pen; a touch screen panel configured to detect a state of the pen; and a controller configured to activate a terminal screen when a signal corresponding to the detachment of the pen from the pen attachment/detachment perception switch has been received, and to display a menu item list, including one or more applications, on the terminal screen when a hovering event by the pen has been detected by the touch screen panel.

Abstract: A driver circuit of a semiconductor apparatus includes a driver and a control unit configured to vary a voltage level of a power supply terminal of the driver in response to a standby mode signal.

Abstract: An initialization circuit includes an initialization control unit configured to generate a start pulse, which is generated after a power supply voltage reaches a target voltage level, in response to the power supply voltage and an external command, and an initialization execution unit configured to extract a fuse signal from a programmed fuse in response to the start pulse, and to output stored data when an external address corresponding to the fuse signal is inputted.

Abstract: Internal voltage generation circuits are provided. The internal voltage generation circuit includes a driving signal generator comparing first and second internal voltage signals with lower and upper limit reference voltage signals to generate a pull-up driving signal and a pull-down driving signal, a driver generating a first voltage and a second voltage in response to the pull-up driving signal and the pull-down driving signal, a selecting signal generator comparing the first internal voltage signal with the second internal voltage signal to generate a selection signal, and a selection transmitter that transmits any one of the first and second voltages to the first or second internal voltage signal in response to the selection signal.

Abstract: An apparatus and a method for releasing a lock function set in advance by detecting a user's input in an electronic device increases the security level required to access the electronic device. A method for controlling the lock function in the electronic device includes determining pattern input information. After determining the pattern input information is valid by analysis with predetermined pattern information, the lock function is released. The pattern input information includes at least one of a pattern shape, a pattern input time, a pattern input position, and a pen pressure of a pattern. The apparatus includes a touchscreen configured for detecting gestures, use of a stylus within a pre-determined threshold, and touch. The device discerns whether input has been entered in a proper hidden region of the display, to reduce unauthorized access by someone observing the input pattern being entered.

Abstract: Internal voltage generation circuits are provided. The internal voltage generation circuit includes a driving signal generator comparing first and second internal voltage signals with lower and upper limit reference voltage signals to generate a pull-up driving signal and a pull-down driving signal, a driver generating a first voltage and a second voltage in response to the pull-up driving signal and the pull-down driving signal, a selecting signal generator comparing the first internal voltage signal with the second internal voltage signal to generate a selection signal, and a selection transmitter that transmits any one of the first and second voltages to the first or second internal voltage signal in response to the selection signal.

Abstract: The present invention relates to an automatic voltage regulator, and more specifically, to an automatic voltage regulator capable of precisely controlling the output voltage level by using a toroidal autotransformer. The present invention has precise voltage control to enable the output of the voltage level desired by the user, and precisely carries out a variety of applications of power saving and voltage booster. In particular, the present invention can boost/reduce the input voltage to provide a desired target voltage within an error range of 1 volt or less. The present invention also comprises a simple relay switching circuit and excludes semiconductor switching devices, thereby being capable of operating adaptively in different system environments without an additional modification.

Abstract: The present invention provides a method of manufacturing polyamide-carbon nanotube composites. The method includes mixing a polyamide composition including 0.01-1% by weight of carbon nanotubes using a shearing rate equal to or greater than 1000-4400 sec?1.

Abstract: A semiconductor memory device includes a transmission line configured to transmit a fuse enable signal for performance of a repair operation; a first repair enable signal generation unit configured to receive the fuse enable signal through the transmission line and generate a first repair enable signal for performing a repair operation for a first bank; and a second repair enable signal generation unit configured to receive the fuse enable signal through the transmission line and generate a second repair enable signal for performing a repair operation for a second bank.

Abstract: A driver circuit of a semiconductor apparatus includes a driver and a control unit configured to vary a voltage level of a power supply terminal of the driver in response to a standby mode signal.

Abstract: The present invention relates to an automatic voltage regulator and a toroidal transformer, comprising: a main winding; a primary field winding excited in the main winding; a first switch unit for selectively connecting one end of the primary field winding to either a reference potential or the output terminal; a plurality of secondary field windings excited in the main winding; a second switch unit for selectively switching so that the plurality of secondary field windings are selectively connected to the primary field winding serially; a third switch unit for selectively connecting an end of a serial connection generated by selectively connecting the primary field winding and the secondary field windings to either the reference potential or the input terminal; and a control unit which regulates the level of an output voltage output to the output terminal.

Abstract: The present invention relates to an automatic voltage regulator, and more specifically, to an automatic voltage regulator capable of precisely controlling the output voltage level by using a toroidal autotransformer. The present invention has precise voltage control to enable the output of the voltage level desired by the user, and precisely carries out a variety of applications of power saving and voltage booster. In particular, the present invention can boost/reduce the input voltage to provide a desired target voltage within an error range of 1 volt or less. The present invention also comprises a simple relay switching circuit and excludes semiconductor switching devices, thereby being capable of operating adaptively in different system environments without an additional modification.

Abstract: A method of moving a station in a wireless LAN, includes the step of: a station recognizing that a first access point of a first communication area is connected thereto, when the station is located in the first communication area, and storing corresponding connection information in an initial access point record area of its storage. The station requires the first access point to cancel the connection with the station, when the station moves from the first communication area to second communication area. The station requires a second access point of the second communication area to be connected thereto, when the station moves to the second communication area. Then, the second access point registers the station on the connection station list stored in its storage. The station transmits connection information about the first access point, stored in its initial access point record area, to the second access point, to inform the second access point that the station moved from the first communication area.

Abstract: An electron gun for a color cathode ray tube is formed with a control electrode, an accelerating electrode, an anode, and a focusing electrode divided into a first and a second focusing electrode. A static focusing voltage predetermined independently of a deflection period is applied to the first focusing electrode and a parabolic waveform dynamic focusing voltage varying according to the deflection period is applied to the second focusing electrode. The first focusing electrode has three electron beam apertures with vertical parallel plates mounted around each aperture in a direction opposite to the direction of the electron beams. The second focusing electrode has three electron beam apertures with horizontal parallel plates mounted around each aperture in a direction opposite to the direction of the electron beams. The centers of the left and right electron beam apertures are offset to the left and right sides of the central axis of the vertical and horizontal parallel plates.