Abstract: The present disclosure relates to a display device. More particularly, the display device includes a touch sensor unit disposed on the encapsulation layer of the display panel and a lens layer disposed on the touch sensor unit, the touch sensor unit includes a plurality of bridge electrodes disposed on the encapsulation layer, an optical gap layer disposed on the bridge electrodes to expose at least a part of each of the plurality of bridge electrodes, and a touch electrode disposed to be in contact with each of the plurality of exposed bridge electrodes, and the optical gap layer includes a sub-lens layer disposed corresponding to the plurality of LEDs, a cylindrical structure layer disposed on the sub-lens layer to correspond to the plurality of LEDs, and an overcoating layer that covers the sub-lens layer and the cylindrical structure layer to planarize an upper surface.

Abstract: A display device is disclosed. More particularly, the display device includes a touch sensor unit on the encapsulation layer of the display panel and a lens layer on the touch sensor unit, the touch sensor unit includes a plurality of bridge electrodes on the encapsulation layer, an organic layer on the bridge electrodes to expose at least a part of each of the plurality of bridge electrodes, and a touch electrode in contact with each of the plurality of exposed bridge electrodes, and the organic layer includes a first layer including a plurality of first contact holes which exposes at least a part of each of the plurality of bridge electrodes, and a second layer on the first layer and includes a plurality of second contact holes that each overlap a corresponding one of the plurality of first contact holes.

Abstract: A flexible display device can include a display panel configured to display images. The display panel includes at least one folding area that is foldable about a folding axis and a non-folding area. A cover window is provided on the display panel. Aback plate supports a bottom portion of the display panel, and a support part supports the back plate in a slidable manner. Further, a first magnetic body is connected to the cover window or the back plate. A second magnetic body is also provided on the support part to attract the first magnetic body so that a portion of the second magnetic body connected to the first magnetic body is drawn from the folding area toward the non-folding area. As such, a crease that can develop in the folding area can be prevented from forming by applying tension to the display panel.

Abstract: A display panel including a first optical electronic device located under, at a lower portion of, the display panel and overlapping with at least a portion of a first optical area included in a display area, a first substrate disposed in at least a portion of a non-optical area, a second substrate disposed on the first substrate, a third substrate disposed in the first optical area and having a transmittance higher than the first substrate and the second substrate, and a bonding layer disposed on at least one surface of the third substrate, and a display device including the display panel.

Abstract: Disclosed is an electronic device including an image sensor including a lens, a pixel array configured to convert light collected through the lens into an electric signal and to output the electric signal, a readout circuit configured to convert electric signals sequentially received for each row of the pixel array into pixel data and to output the pixel data, a memory, and a controller configured to control the pixel array, the readout circuit and the memory, and a processor electrically connected to the image sensor. The controller is configured to generate a frame by integrating the pixel data sequentially received from the readout circuit, generate a profile regarding flickering of the collected light using the generated frame and another frame generated prior to the generated frame, and store the generated profile in the memory, obtain a profile set including profiles corresponding to a plurality of frames from the memory, and transfer the generated frame and the obtained profile set to the processor.

Abstract: Disclosed is an electronic device including an image sensor including a lens, a pixel array configured to convert light collected through the lens into an electric signal and to output the electric signal, a readout circuit configured to convert electric signals sequentially received for each row of the pixel array into pixel data and to output the pixel data, a memory, and a controller configured to control the pixel array, the readout circuit and the memory, and a processor electrically connected to the image sensor. The controller is configured to generate a frame by integrating the pixel data sequentially received from the readout circuit, generate a profile regarding flickering of the collected light using the generated frame and another frame generated prior to the generated frame, and store the generated profile in the memory, obtain a profile set including profiles corresponding to a plurality of frames from the memory, and transfer the generated frame and the obtained profile set to the processor.

Abstract: The inventive concept relates to a CMOS image sensor and an operating method of the CMOS image sensor. The operating method according to an embodiment of the inventive concept includes generating photoelectrons at a photo sensor element during a first time; generating photoelectrons at the photo sensor element during a second time shorter than the first time; and sensing the photoelectrons generated at the photo sensor element. A gate voltage of a transfer transistor connected to the photo sensor element is set differently at the first time and the second time. With an embodiment of the inventive concept, a dynamic range of the CMOS image sensor increases.

Abstract: The inventive concept relates to a CMOS image sensor and an operating method of the CMOS image sensor. The operating method according to an embodiment of the inventive concept includes generating photoelectrons at a photo sensor element during a first time; generating photoelectrons at the photo sensor element during a second time shorter than the first time; and sensing the photoelectrons generated at the photo sensor element. A gate voltage of a transfer transistor connected to the photo sensor element is set differently at the first time and the second time. With an embodiment of the inventive concept, a dynamic range of the CMOS image sensor increases.