Abstract: A display apparatus including: a display panel including a first direction data line extending in a first direction, a plurality of second direction data lines extending in a second direction different from the first direction, a gate line extending in the second direction and a pixel connected to the first direction data line and the gate line; a gate driver configured to apply a gate signal to the gate line; and a data driver configured to apply a data voltage to the second direction data lines.

Abstract: A driving controller of a display device controls a scan driving circuit to sequentially drive a first group of scan lines among a plurality of scan lines to an active level during a first low-frequency frame when the operation mode is a low frequency mode and to sequentially drive a second group of scan lines among the plurality of scan lines to the active level during a second low-frequency frame, outputs an image data signal according to a first arrangement order of a plurality of color pixels in a first row during the first low-frequency frame, and outputs the image data signal according to a second arrangement order of the plurality of color pixels in a second row during the second low-frequency frame.

Abstract: A display panel is disclosed that includes 2-1 to 2-4 pixel circuit sequentially disposed in a first direction in a second pixel row and 2-1 to 2-4 light emitting area sequentially disposed in the first direction. The 2-1 pixel circuit is connected to a first data line, the 2-2 pixel circuit is connected to a second data line, the 2-3 pixel circuit is connected to a third data line and the 2-4 pixel circuit is connected to a fourth data line. The 2-1 pixel circuit is connected to the 2-3 light emitting area, the 2-2 pixel circuit is connected to the 2-1 light emitting area, the 2-3 pixel circuit is connected to the 2-2 light emitting area and the 2-4 pixel circuit is connected to the 2-4 light emitting area. A color of the 2-1 light emitting area is different from a color of the 2-3 light emitting area.

Abstract: Embodiments present a ground sensing plug for determining the amount of electrostatic discharge using a neural network. The ground sensing plug may include a first plug terminal configured to receive power from a power outlet connected thereto, a second plug terminal configured to have two recesses exposed to an outside to perform a function of an earth terminal, a controller including at least one processor, a memory, a communication unit, and circuitry electrically connected to the first plug terminal and the second plug terminal, and a display including a display panel and a plurality of light emitting diodes electrically connected to the circuitry, the plurality of light emitting diodes including a first light emitting diode, a second light emitting diode, and a plurality of third light emitting diodes, and emit green light based on a grounded state being detected, and a housing arranged to enclose the controller.

Abstract: A photographing control method and device are provided. The photographing control method includes receiving an input image including at least one subject from a camera, determining a main subject among the at least one subject, setting a position option for determining an arrangement in an output image of the main subject, and generating the output image having composition satisfying the position option, based on the input image.

Abstract: An electronic apparatus includes: a microphone; a camera; a display; a speaker; and a processor operatively connected to the camera, the display, and the speaker, where the processor displays, on the display, a live view image obtained through the camera, when a camera application is executed; obtain a characteristic text for the live view image based on ae piece of object information included in the live view image, displays the characteristic text together with the live view image, identifies a sound source including metadata which matches the characteristic text, from among sound sources; displays information about the sound source together with the live view image, and when a user manipulation for capturing a moving image is input, outputs a first sound source from among the sound source through the speaker and capture a moving image through the microphone and the camera.

Abstract: A data driver for providing data voltages to a display panel includes a digital-to-analog converting block, an option storing block, a data swap block and an output buffer block. The digital-to-analog converting block converts line data into the data voltages. The option storing block stores a pixel arrangement option representing a pixel arrangement structure of the display panel. The data swap block is connected to the digital-to-analog converting block and the option storing block, and selectively performs a data swap operation that swaps the data voltages based on the pixel arrangement option and whether the line data are odd line data or even line data. The output buffer block is connected to the data swap block and outputs the data voltages on which the data swap operation is selectively performed to data lines.

Abstract: An electronic device is provided. The electronic device includes at least one camera, and at least one processor operatively coupled to the at least one camera, wherein the at least one processor is configured to acquire data for a designated time using the at least one camera, and generate a plurality of contents based on the acquired data, and at least one content of the plurality of the contents has a different type.

Abstract: A display device includes a display panel having a display region and a panel driver that drives the display panel based on input image data. The panel driver calculates a normal driving frequency for driving a first partial region and a low frequency for driving a second partial region when the input image data represents a moving image for the first partial region and represents a still image for the second partial region, calculates a consumption power required to drive the display panel when an entire section of the second partial region is driven at a same low frequency, calculates a consumption power required to drive the display panel when a partial section of the second partial region and a remaining section of the second partial region are driven at mutually different frequencies, and determines a driving frequency of the second partial region by comparing the consumption powers.

Abstract: A driving controller of a display device controls a scan driving circuit to sequentially drive a first group of scan lines among a plurality of scan lines to an active level during a first low-frequency frame when the operation mode is a low frequency mode and to sequentially drive a second group of scan lines among the plurality of scan lines to the active level during a second low-frequency frame, outputs an image data signal according to a first arrangement order of a plurality of color pixels in a first row during the first low-frequency frame, and outputs the image data signal according to a second arrangement order of the plurality of color pixels in a second row during the second low-frequency frame.

Abstract: A data driver for providing data voltages to a display panel includes a digital-to-analog converting block, an option storing block, a data swap block and an output buffer block. The digital-to-analog converting block converts line data into the data voltages. The option storing block stores a pixel arrangement option representing a pixel arrangement structure of the display panel. The data swap block is connected to the digital-to-analog converting block and the option storing block, and selectively performs a data swap operation that swaps the data voltages based on the pixel arrangement option and whether the line data are odd line data or even line data. The output buffer block is connected to the data swap block and outputs the data voltages on which the data swap operation is selectively performed to data lines.