Abstract: Provided is a method of forming a micro/nanowire having a nanometer- to micrometer-sized diameter at predetermined positions of an object. The method includes: preparing a micro/nanopipette having a tip with an inner diameter which is substantially the same as the diameter of the micro/nanowire to be formed; filling the micro/nanopipette with a solution containing a micro/nanowire-forming material; brining the solution into contact with the object through the tip of the micro/nanopipette; and pulling the micro/nanopipette from the object at a pulling speed lower than or equal to a predetermined critical speed (?c) to obtain a micro/nanowire having substantially the same diameter as the inner diameter of the micro/nanopipette tip.

Abstract: Discussed is a display device including a display panel, first gate lines located on the display panel, second gate lines separated from the first gate lines and located on the display panel, first data lines provided on the display panel corresponding to a first display area to cross the first gate lines and defining first pixel areas configuring the first display area, second data lines provided on the display panel corresponding to a second display area to cross the second gate lines and second pixel areas configuring the second display area, wherein the first pixel areas and the second pixel areas have the same size, and wherein a separation area is interposed between the first gate lines and the second gate lines, and a width of the separation area is equal to or wider than a width of a thin film transistor.

Abstract: Disclosed is a liquid crystal display apparatus in which a low-resistance alignment film and a low-resistance liquid crystal layer are provided only in red (R) and green (G) pixel areas so as to prevent bright pixel defects caused by occurrence of data coupling (DC). The liquid crystal display apparatus includes gate lines and data lines arranged on a first substrate so as to define red (R), green (G) and blue (B) pixel areas, thin film transistors provided at intersections between the gate lines and the data lines, a first alignment film provided on the first substrate, a second substrate arranged with a uniform gap with the first substrate, red, green and blue color filter layers provided on the second substrate, and a second alignment film provided on the second substrate, wherein the first alignment film provided on the red and green color filter layers is a low-resistance alignment film.

Abstract: Disclosed is a liquid crystal display apparatus in which a low-resistance alignment film and a low-resistance liquid crystal layer are provided only in red (R) and green (G) pixel areas so as to prevent bright pixel defects caused by occurrence of data coupling (DC). The liquid crystal display apparatus includes gate lines and data lines arranged on a first substrate so as to define red (R), green (G) and blue (B) pixel areas, thin film transistors provided at intersections between the gate lines and the data lines, a first alignment film provided on the first substrate, a second substrate arranged with a uniform gap with the first substrate, red, green and blue color filter layers provided on the second substrate, and a second alignment film provided on the second substrate, wherein the first alignment film provided on the red and green color filter layers is a low-resistance alignment film.

Abstract: Discussed is a display device including a display panel, first gate lines located on the display panel, second gate lines separated from the first gate lines and located on the display panel, first data lines provided on the display panel corresponding to a first display area to cross the first gate lines and defining first pixel areas configuring the first display area, second data lines provided on the display panel corresponding to a second display area to cross the second gate lines and second pixel areas configuring the second display area, wherein the first pixel areas and the second pixel areas have the same size, and wherein a separation area is interposed between the first gate lines and the second gate lines, and a width of the separation area is equal to or wider than a width of a thin film transistor.

Abstract: A display device in one embodiment includes a display panel configured to display an image in first and second display areas, a plurality of first gate lines corresponding to the first display area, and a plurality of second gate lines separated from the first gate lines and corresponding to the second display area. Accordingly, the distance between the first gate lines of the first display area and the second gate lines of the second display area is maximized to prevent static electricity from occurring between the electrodes, thereby increasing product yield.

Abstract: A wireless charger for an electric vehicle includes a feeder module supplying power by approaching a location of a collector module in the vehicle and a robot arm aligning a location of the feeder module according to the location of the collector module. A feeder inverter converts externally applied power and supplies the converted power to the feeder module. The wireless charger simplifies charging in various ways. The user does not need to connect to a charger each time a vehicle is to be charged. Since the user does not directly touch a charging connector in case rain, safety accidents can be prevented. A robot arm can transfer a feeder module according to a location of a vehicle parked within a charging station further enhancing convenience. Furthermore, a collector module installed in a vehicle is sensed and a feeder module is aligned according to a location of the sensed module.

Abstract: A display device in one embodiment includes a display panel configured to display an image in first and second display areas, a plurality of first gate lines corresponding to the first display area, and a plurality of second gate lines separated from the first gate lines and corresponding to the second display area. Accordingly, the distance between the first gate lines of the first display area and the second gate lines of the second display area is maximized to prevent static electricity from occurring between the electrodes, thereby increasing product yield.

Abstract: There is disclosed a large scale energy storage system enabling balanced control of inverters, the large scale energy storage system including an inverter controller comprising a PWM generation circuit configured to generate a reference PWM signal and a first O/E converter configured to convert the reference PWM signal transmitted from the PWM generation circuit into an optical signal and to output the optical signal, and a plurality of PCS inverters configured to output a grid voltage, each of the PCS inverters comprising a second O/E converter embedded therein to convert the PWM signal and the optical signal output from the inverter controller into an optical signal and a plurality of inverter modules.

Abstract: There is disclosed a large scale energy storage system enabling balanced control of inverters, the large scale energy storage system including an inverter controller comprising a PWM generation circuit configured to generate a reference PWM signal and a first O/E converter configured to convert the reference PWM signal transmitted from the PWM generation circuit into an optical signal and to output the optical signal, and a plurality of PCS inverters configured to output a grid voltage, each of the PCS inverters comprising a second O/E converter embedded therein to convert the PWM signal and the optical signal output from the inverter controller into an optical signal and a plurality of inverter modules.

Abstract: A liquid crystal panel and a fabrication method thereof are provided. The liquid crystal panel includes: a gate line and a data line crossing each other to define a pixel; a thin film transistor including: a gate electrode connected to the gate line; a semiconductor layer formed on the gate electrode; a source electrode connected to the data line; a drain electrode; a gate insulating layer between the gate electrode and the drain electrode and between the gate line and the drain electrode; and a compensating parasitic capacitor between the gate line and the drain electrode for compensating a parasitic capacitance between the gate electrode and the drain electrode; and a pixel electrode connected to the drain electrode.

Abstract: Provided is a liquid crystal display device. The liquid crystal display device includes a pixel including at least two domains generating electric fields of different directions. A contact part disposed in the boundary between the domains electrically connects a common line with a common electrode. The common line is disposed in a pixel adjacent to the pixel, so that both a viewing angle and an aperture ratio can be improved.

Abstract: Provided is a liquid crystal display device. The liquid crystal display device includes a pixel including at least two domains generating electric fields of different directions. A contact part disposed in the boundary between the domains electrically connects a common line with a common electrode. The common line is disposed in a pixel adjacent to the pixel, so that both a viewing angle and an aperture ratio can be improved.

Abstract: A liquid crystal display device is provided. The liquid crystal display device includes: a liquid crystal display panel having an upper substrate and a lower substrate, a backlight assembly; a top cover surrounding the liquid crystal display panel, and a pad located on an upper surface of the lower substrate. The pad distributes a force applied by the top cover to the lower substrate, thereby reducing light leakage of the backlight assembly.