Abstract: A low dropout (LDO) regulator includes comparison circuitry configured to generate a comparison result signal by comparing a target voltage with an output voltage corresponding to an output voltage of an output terminal connected to an integrated circuit, voltage increase/decrease detection circuitry configured to generate a detection result signal by detecting whether the output voltage increases or decreases, control circuitry configured to generate a current control code having a value that is changed, based on a control mode selected according to the comparison result signal and the detection result signal, and current driving circuitry configured to receive the current control code and generate an output current corresponding to the current control code.

Abstract: A system-on-chip according to an embodiment includes a core including a header switch circuit configured to transmit a power supply voltage applied to a first power rail as a supply voltage to a second power rail and a logic circuit configured to operate based on the supply voltage from the second power rail, and a low-dropout (LDO) regulator configured to regulate a magnitude of first current output to the second power rail based on a change in the supply voltage, wherein the LDO regulator is further configured to control on/off of a plurality of first header switches included in the header switch circuit based on an amount of the change in the supply voltage.

Abstract: A method of manufacturing a display device includes forming a first electrode on a substrate, forming a bank layer on the first electrode, wherein the bank layer includes an opening portion exposing at least a portion of the first electrode, forming a first bank layer and a second bank layer by baking the bank layer, wherein the second bank layer is on the first bank layer and has liquid repellency, forming a first layer on the first electrode, and forming a third bank layer and a fourth bank layer by baking the first bank layer and the second bank layer, wherein the fourth bank layer is on the third bank layer and has liquid repellency, wherein the fourth bank layer is thinner than the second bank layer.

Abstract: A fingerprint sensor package includes a first substrate including a core insulating layer; a first bonding pad on the core insulating layer; and an external connection pad between an edge of the second surface of the core insulating layer and the first bonding pad, a second substrate on the core insulating layer, the second substrate including: a plurality of first sensing patterns spaced apart in a first direction and extending in a second direction intersecting with the first direction; a plurality of second sensing patterns spaced apart from each other in the second direction and extending in the first direction; and a second bonding pad, a conductive wire connecting the first bonding pad to the second bonding pad; a controller chip on the second substrate; and a molding layer covering the second substrate and the first bonding pad and spaced apart from the external connection pad.

Abstract: In one example, a timing control system for a faucet for dispensing water includes a valve sensor, a timer, and a light. The valve sensor is configured to detect operation of the faucet. The timer is configured to trigger a countdown in response to the operation of the faucet. The light is configured to illuminate the water of the faucet in at least one color in response to the countdown.

Abstract: Provided is a display device. The display device includes: a first display substrate; a second display substrate including a non-display region and first, second, and third pixel regions; and a sealing member overlapping the non-display region when viewed on a plane and between the first display substrate and the second display substrate. A dam pattern is arranged or a trench pattern is defined on a lower surface of the second display substrate. The dam pattern and the trench pattern control flow of a liquid organic material provided in the display region. An organic layer is formed only inside the dam pattern and the trench pattern so that a path into which moisture is introduced is not formed. This is because the organic layer is not on an outer region of a pattern on which the sealing member is located and the trench pattern.

Abstract: A system-on-chip according to an embodiment includes a core including a header switch circuit configured to transmit a power supply voltage applied to a first power rail as a supply voltage to a second power rail and a logic circuit configured to operate based on the supply voltage from the second power rail, and a low-dropout (LDO) regulator configured to regulate a magnitude of first current output to the second power rail based on a change in the supply voltage, wherein the LDO regulator is further configured to control on/off of a plurality of first header switches included in the header switch circuit based on an amount of the change in the supply voltage.

Abstract: A method of manufacturing a display device, includes preparing a substrate, forming a plurality of pixel electrodes on the substrate, forming a pixel-defining layer covering edge portions of the plurality of pixel electrodes and defining a plurality of exposed upper surfaces of the plurality of pixel electrodes, and forming an emission layer on the plurality of exposed upper surfaces of the plurality of pixel electrodes. The forming of the emission layer includes forming an emission layer by ejecting ink onto the plurality of exposed upper surfaces in an order from an exposed upper surface having a largest area to an exposed upper surface having a smallest area.

Abstract: An ink for a display device, the ink includes: an organic material, wherein the organic material has a molecular weight greater than about 500 and less than about 1,000,000, and the organic material in the ink has a concentration and the molecular weight of the organic material satisfy: y<?3.518*1n(x)+45.59, wherein y is the concentration of the organic material, and x is the molecular weight of the organic material.

Abstract: An organic light-emitting display apparatus includes: a substrate; a 1-1st pixel electrode in a 1-1st pixel to emit light of a first wavelength range and a 1-2nd pixel electrode in a 1-2nd pixel to emit light of the first wavelength range. The 1-1st pixel and the 1-2nd pixel are over the substrate; a pixel-defining layer covering an edge of the 1-1st pixel electrode and an edge of the 1-2nd pixel electrode so as to define a 1-1st exposed upper surface and a 1-2nd exposed upper surface; a 1-1st emission layer over the 1-1st pixel electrode and to generate the light of the first wavelength range and a 1-2nd emission layer over the 1-2nd pixel electrode and to generate the light of the first wavelength range; and an opposite electrode over the 1-1st emission layer and the 1-2nd emission layer.

Abstract: An inkjet spraying method includes preparing a spraying unit including nozzles for spraying an organic material on a target substrate including first pixels which display a same color, spraying the organic material to each of first pixels of a (1+a×n)th first-pixel row in the first pixels, and spraying the organic material to each of first pixels of a (2+a×n)th first-pixel row in the first pixels, where a first nozzle in the nozzles sprays the organic material to a first reference pixel in the first pixels of the (1+a×n)th first-pixel row, a second nozzle, which is different from the first nozzle, in the nozzles sprays the organic material to a second reference pixel in the first pixels of the (2+a×n)th first-pixel row, and the second reference pixel is disposed in parallel with the first reference pixel in a column direction.

Abstract: An organic light-emitting display apparatus includes a pixel electrode above a substrate, an insulating layer covering an edge of the pixel electrode and including an opening exposing a central portion of the pixel electrode, a first functional layer disposed on the pixel electrode exposed by the opening and including a convex upper surface, a second functional layer disposed on the first functional layer and including a planarized upper surface, an organic emission layer disposed on the second functional layer, and an opposite electrode disposed on the organic emission layer.

Abstract: An ink for a display device, the ink includes: an organic material, wherein the organic material has a molecular weight greater than about 500 and less than about 1,000,000, and the organic material in the ink has a concentration and the molecular weight of the organic material satisfy: y>?3.518*1n(x)+45.59, wherein y is the concentration of the organic material, and x is the molecular weight of the organic material.

Abstract: An organic light-emitting display device including a driving element including an active pattern and a gate electrode, an insulation layer covering the driving element, a first diode electrode disposed on the insulation layer and electrically connected to the driving element, a pixel-defining layer disposed on the insulation layer and including a side surface defining an opening overlapping at least a portion of the first diode electrode, an edge-compensation part including an organic material and disposed in a peripheral area of the opening, an organic light-emitting layer disposed on the first diode electrode and the edge-compensation part, and a second diode electrode disposed on the organic light-emitting layer, in which the edge-compensation part includes an inclined surface contacting the organic light-emitting layer, and a taper angle of the inclined surface of the edge-compensation part is less than a taper angle of the side surface of the pixel-defining layer.

Abstract: A system-on-chip according to an embodiment includes a core including a header switch circuit configured to transmit a power supply voltage applied to a first power rail as a supply voltage to a second power rail and a logic circuit configured to operate based on the supply voltage from the second power rail, and a low-dropout (LDO) regulator configured to regulate a magnitude of first current output to the second power rail based on a change in the supply voltage, wherein the LDO regulator is further configured to control on/off of a plurality of first header switches included in the header switch circuit based on an amount of the change in the supply voltage.

Abstract: Disclosed is an electronic device for a vehicle, including a processor receiving first image data from a first camera, receiving second image data from a second camera, receiving first sensing data from a first lidar, generating a depth image based on the first image data and the second image data, and fusing the first sensing data for each of divided regions in the depth image.