Abstract: Disclosed are a display device that enables reduction in thickness and weight and a method of manufacturing the same. The display device having a touch sensor includes a touch sensing line and a touch driving line, which are formed on an encapsulation unit and intersect each other with a touch insulation layer interposed therebetween. The touch insulation layer intersects with any one of the touch sensing line and the touch driving line, which may result in the simplified structure. In addition, touch electrodes are disposed on the encapsulation unit, which may make a separate attachment process be unnecessary, resulting in a simplified manufacturing process and reduced costs.

Abstract: A lighting device includes a light emitting module, a driver, a wireless communication module, and a signal converter. The light emitting module includes light emitting elements and an antenna pattern. The light emitting elements are mounted on a first surface of a circuit board. The antenna pattern is in the first surface or a second surface of the circuit board. The driver sets current applied to the light emitting elements based on control data including current setting information. The control data is wirelessly received through the antenna pattern from an external user terminal. The light emitting module includes a wireless communication module directly connected to the antenna pattern to receive the control data, and a signal converter to convert the control data to a control signal and provide the control signal to the driver.

Abstract: Provided is a method of restoring arsenic-contaminated soil. In the present invention, arsenic may be easily separated from soil particles by washing the arsenic-contaminated soil by using a basic solution and simultaneously irradiating the soil with ultrasonic waves. Also, since iron oxide and manganese oxide are exposed to the basic solution by dissolving a portion of the surface of a silicate mineral using the basic solution, a residual form of arsenic may be removed.

Abstract: The inventive concept relates to a light unit and a diffuser separated from the light source at a predetermined distance and having a cylindrical structure, and a cylindrical structure display device including the same.

Abstract: The present invention relates to a transmission for a vehicle, and more particularly, to a compound transmission of combining a differential gear and a continuously variable transmission, which transmits power through the differential gear and a transmission gear at a low speed and transmits the power through the continuously variable transmission and the differential gear at a high speed. According to the present invention, the shifting is performed through the differential gear unit at a low stage requiring large torque and low rpm and performs the shifting through the continuously variable transmission at a high stage requiring relatively small torque and high rpm to provide optimum shifting efficiency by collecting only advantageous of the respective units.

Abstract: A door arm-rest for vehicles may include a core forming appearance having an outside surface and an inside surface and combined with a door trim and a skin surrounding the core, wherein an upper surface of the core includes a plurality of cushion plates having a same polygonal section which respective neighboring sides are spaced apart in parallel with each other in a constant interval, and a plurality of bridges connecting the respective neighboring sides of the respective cushion plates.

Abstract: A variable belt molding structure for a vehicle door, may include a skin disposed in a fixed quarter window and a rear door window formed in a rear door of a vehicle to have a width that is varied in a longitudinal direction; a carrier portion internally coupled to the skin to maintain air-tightness by being in contact with a window glass of the rear door window; a clip mounted to be internally coupled to the carrier portion and mounted in a door panel of the rear door; and a mounting clip coupled to a fixed quarter window bracket attached to the fixed quarter window.

Abstract: An organic light emitting display device is disclosed. The organic light emitting display device includes a light emitting element disposed in each sub-pixel area on a substrate; a pixel circuit disposed in a circuit area of each sub-pixel area to drive the light emitting element; a first signal line disposed on the substrate to contact the substrate, arranged in a first direction, and connected to the pixel circuit; a second signal line arranged in a second direction and connected to the pixel circuit; and at least two insulation films disposed between the first and second signal lines.

Abstract: Disclosed is an organic light emitting display having a mirror function. In an embodiment, a light-shielding reflective layer overlaps areas of the organic light emitting display except for emission areas provided with light emitting devices formed therein. The light-shielding reflective layer prevents light from entering channel regions of active layers and reflects external light, for example, when the organic light emitting device is not operated to display an image, and thus the organic light emitting display may stably implement a mirror function.

Abstract: A method of operating a smart lighting system comprising a first mobile device, a lighting control device and first through nth (n being a positive integer) lighting devices, includes establishing, by the first mobile device, a first wireless connection with the lighting control device; performing, by the lighting control device, a first time synchronization with the first mobile device; providing, by the first mobile device, the lighting control device with a scheduling information representing operation of each of the first through nth lighting devices according to lapse of time; and controlling, by the lighting control device, operation of each of the first through nth lighting devices based on a current time and the scheduling information, wherein the current time is determined based on the time synchronization.

Abstract: A liquid crystal display is provided. The liquid crystal display includes a first display substrate, a second display substrate which faces the first display substrate, and a liquid crystal layer which is disposed between the first display substrate and the second display substrate. The first display substrate comprises a first base substrate, a reflective electrode which is disposed on the first base substrate, and a pixel electrode which is disposed on the reflective electrode.

Abstract: A lighting system includes a plurality of lighting devices including a controller transmitting and receiving data by using near field communications (NFC) The lighting system further includes a control device that collects identification information for the plurality of respective lighting devices through the NFC communications before the plurality of lighting devices are installed. The control device also generates settings data to control the plurality of lighting devices, based on the identification information, and then transmits the generated settings data to the plurality of respective lighting devices.

Abstract: The present invention provides a quantum dot panel, including: a first substrate; a plurality of first cavities formed on the first substrate, so that adjacent ones of the cavities are separated from each other; a first roof layer covering the cavities so as to at least partially define the cavities; quantum dots contained in the first cavities; and a distribution layer in which the quantum dots are distributed and which is disposed within the first cavities. The quantum dot panel according to exemplary embodiments of the present invention includes quantum dots contained within predetermined structures formed on the substrate, thereby improving reliability of the quantum dot panel and simplifying the manufacturing process thereof.

Abstract: A lighting system includes a plurality of lighting devices including a controller transmitting and receiving data by using near field communications (NFC) The lighting system further includes a control device that collects identification information for the plurality of respective lighting devices through the NFC communications before the plurality of lighting devices are installed. The control device also generates settings data to control the plurality of lighting devices, based on the identification information, and then transmits the generated settings data to the plurality of respective lighting devices.

Abstract: A lighting device included in a network of a plurality of lighting devices includes: a lighting unit; a communication interface configured to receive a control signal generated at an external device directly from the external device or by way of another lighting device in the network, depending on a connection relationship between the plurality of lighting devices; a memory configured to store information about the lighting device; and a controller configured to, according to the control signal and the information about the lighting device, selectively perform one of controlling an operation of the lighting unit and relaying the control signal to at least one other lighting device in the network through the communication interface to control an operation of at least one target lighting device included in the network. Here, the at least one other lighting device itself may be the at least one target lighting device.

Abstract: A method of operating an electronic device includes: determining whether an external electronic device is connected to an access point to which the electronic device is connected; transmitting state information of the electronic device to the external electronic device connected to the access point; receiving an input corresponding to the transmitted state information of the electronic device, from the external electronic device; displaying a result corresponding to the received input on a display; and transmitting the result displayed on the display to the external electronic device.

Abstract: An electronic apparatus and a service providing method thereof are provided. The service providing method includes receiving a sound generated from outside through at least one microphone, extracting a noise feature from the received sound, and providing a service corresponding to the extracted noise feature by comparing the extracted noise feature and a pre-stored noise feature.

Abstract: A lighting system includes a plurality of lighting devices including a controller transmitting and receiving data by using near field communications (NFC) The lighting system further includes a control device that collects identification information for the plurality of respective lighting devices through the NFC communications before the plurality of lighting devices are installed. The control device also generates settings data to control the plurality of lighting devices, based on the identification information, and then transmits the generated settings data to the plurality of respective lighting devices.

Abstract: A lighting device included in a network of a plurality of lighting devices includes: a lighting unit; a communication interface configured to receive a control signal generated at an external device directly from the external device or by way of another lighting device in the network, depending on a connection relationship between the plurality of lighting devices; a memory configured to store information about the lighting device; and a controller configured to, according to the control signal and the information about the lighting device, selectively perform one of controlling an operation of the lighting unit and relaying the control signal to at least one other lighting device in the network through the communication interface to control an operation of at least one target lighting device included in the network. Here, the at least one other lighting device itself may be the at least one target lighting device.

Abstract: Provided is a method of restoring arsenic-contaminated soil. In the present invention, arsenic may be easily separated from soil particles by washing the arsenic-contaminated soil by using a basic solution and simultaneously irradiating the soil with ultrasonic waves. Also, since iron oxide and manganese oxide are exposed to the basic solution by dissolving a portion of the surface of a silicate mineral using the basic solution, a residual form of arsenic may be removed.