Abstract: An example embodiment provides an image sensor including: a pixel array including a first floating diffusion and a second floating diffusion, the first floating diffusion and the second floating diffusion configured to store charges generated by a first phase detecting pixel and a second phase detecting pixel adjacent to each other in a first direction and covered with one micro lens, and the pixel array is configured to output a first signal based on a charge that is generated by the first phase detecting pixel to be accumulated in the first floating diffusion and the second floating diffusion; and a row driver configured to apply a boosting control signal to the second floating diffusion to transfer charges stored in the second floating diffusion to the first floating diffusion, after the pixel array outputs the first signal.

Abstract: A display apparatus includes a first sub-pixel group arranged along a first imaginary line in a plan view, a second sub-pixel group arranged along a second imaginary line in a plan view, a portion of the second imaginary line being arranged in a component area, a data driver arranged in a peripheral area and configured to output a dataset including one of a first color data signal or a second color data signal, a data distributor configured to transmit the dataset received from the data driver to the first sub-pixel group and the second sub-pixel group, and data lines configured to connect the data distributor to the first sub-pixel group and the second sub-pixel group. The data distributor is further configured to alternately transmit the first color data signal to the data lines.

Abstract: Provided is a semiconductor device for video transmission display including a display unit including a plurality of light emitting elements constituting a plurality of unit display pixels, an image sensor unit disposed on the display unit so that the plurality of unit image sensor pixels corresponding to the same color and the plurality of unit display pixels overlap each other at least partially in a vertical direction, and a plurality of connection paths each including at least one through electrode and electrically connecting the plurality of unit image sensor pixels corresponding to the same color to the plurality of unit display pixels.

Abstract: An example embodiment provides an image sensor including: a pixel array including a first floating diffusion and a second floating diffusion, the first floating diffusion and the second floating diffusion configured to store charges generated by a first phase detecting pixel and a second phase detecting pixel adjacent to each other in a first direction and covered with one micro lens, and the pixel array is configured to output a first signal based on a charge that is generated by the first phase detecting pixel to be accumulated in the first floating diffusion and the second floating diffusion; and a row driver configured to apply a boosting control signal to the second floating diffusion to transfer charges stored in the second floating diffusion to the first floating diffusion, after the pixel array outputs the first signal.

Abstract: A display device includes: a gate transmission wiring; a gate insulating layer disposed on the gate transmission wiring; and a pixel electrode and a data transmission wiring that are disposed on the gate insulating layer. When a gate signal voltage is applied to the gate transmission wiring, the gate transmission wiring may serve as a gate electrode that activates a semiconductor layer. In addition, when such a gate signal voltage is not applied thereto, the gate transmission wiring may form an electric field by a voltage difference between the gate transmission wiring and the pixel electrode, to thereby control a liquid crystal layer.

Abstract: A display device includes: a gate transmission wiring; a gate insulating layer disposed on the gate transmission wiring; and a pixel electrode and a data transmission wiring that are disposed on the gate insulating layer. When a gate signal voltage is applied to the gate transmission wiring, the gate transmission wiring may serve as a gate electrode that activates a semiconductor layer. In addition, when such a gate signal voltage is not applied thereto, the gate transmission wiring may form an electric field by a voltage difference between the gate transmission wiring and the pixel electrode, to thereby control a liquid crystal layer.