Abstract: A capacitor includes: a substrate including a plurality of trenches and a capacitance formation portion, and a margin portion disposed around the capacitance formation portion; dielectric layers disposed on one surface of the substrate and filling the trenches; a plurality of first electrode layers each disposed on one surface of the dielectric layer and each including a first lead portion led out from the capacitance formation portion to the margin portion; and a plurality of second electrode layers each disposed on one surface of the dielectric layer to face the first electrode layer with each of the dielectric layers interposed therebetween, and each including a second lead portion led out from the capacitance formation portion to the margin portion, wherein the first and second lead portions of the plurality of first and second electrode layers are stacked in a stepped shape inclined in a direction from the margin portion to the capacitance formation portion.

Abstract: A capacitor includes a support member included in a body, a plurality of pillars disposed in an upper portion of the support member and each having a lower portion wider than an upper portion, and a capacitor layer disposed on a side surface and an upper surface of each pillar and including a dielectric layer and first and second electrodes alternately disposed with the dielectric layer interposed therebetween. Lower end portions of adjacent pillars are in contact with each other.

Abstract: A capacitor includes a body including a substrate and a capacitance layer disposed on the substrate. The substrate includes a plurality of first trenches penetrating from one surface of the substrate to an interior of the substrate, and a first capacitor layer disposed on the one surface of the substrate and in the first trenches. The first capacitor layer includes a first dielectric layer and first and second electrodes disposed on opposing sides thereof. The capacitance layer includes a plurality of second trenches penetrating from one surface of the capacitance layer to an interior of the capacitance layer, and a second capacitor layer disposed on the one surface of the capacitance layer and in the second trenches. The second capacitor layer includes a second dielectric layer and third and fourth electrodes disposed on opposing sides thereof. A method of manufacturing the capacitor is also provided.

Abstract: According to various exemplary embodiments, an electronic device may include: a camera unit; a processor; and a data processing unit that is electrically connected to the camera unit and the processor, wherein the data processing unit may detect a first number of pixels corresponding to first illuminance data based on first pixel data received from the camera unit to transmit the first number of pixels to the camera unit, and may determine a brightness of a display corresponding to second illuminance data based on second pixel data received from the camera unit in which a sensor corresponding to the first number of pixels is turned on.

Abstract: A thin-film ceramic capacitor includes a body, a plurality of dielectric layers and first and second electrode layers alternately disposed on a substrate in the body, first and second electrode pads disposed on an external surface of the body, and a plurality of vias disposed in the body, the plurality of dielectric layers and first and second electrode layers having inclined etched surfaces exposed to the plurality of vias, a first via, of the plurality of vias, being connected to the inclined surface of the first electrode layer, and a second via, of the plurality of vias, being connected to the inclined surface of the second electrode layer.

Abstract: A thin-film capacitor includes a body having a plurality of dielectric layers and first and second electrode layers alternately stacked on a substrate, first and second electrode pads disposed on one surface of the body, a plurality of vias having a multistage shape being disposed in the body, a first via of the plurality of vias connects the first electrode layer to the first electrode pad, and penetrates from the surface of the body to a first lowermost electrode layer adjacent the substrate, a second via of the plurality of vias connects the second electrode layer to the second electrode pad, and penetrates from the surface of the body to a second lowermost electrode layer adjacent the substrate and an upper surface of the first electrode layer is exposed in the first via, and an upper surface of the second electrode layer is exposed in the second via.

Abstract: A multilayer thin-film capacitor includes a multilayer body in which a plurality of dielectric layers and first and second internal electrode layers are alternately stacked, and first and second external electrodes are disposed on the multilayer body and connected to the first and second internal electrode layers, respectively. The multilayer thin-film capacitor may include a first edge via connected to the external electrode and disposed at or adjacent at least one edge of an upper surface of the multilayer body, and a second edge via connected to the second external electrode and disposed at or adjacent at least one edge of the upper surface of the multilayer body.

Abstract: A multilayer thin-film capacitor includes a first multilayer body and a second multilayer body spaced apart from each other in a vertical direction by a split layer. The second multilayer body is disposed on a lower surface of the first multilayer body, the first multilayer body constitutes a top capacitor, and the second body constitutes a bottom capacitor. First, second, and third external terminals may be disposed on an upper surface of the first multilayer body and be connected to internal electrode layers of the first and second multilayer bodies.

Abstract: A thin-film capacitor includes a body in which a plurality of dielectric layers and first and second electrode layers are alternately stacked on a substrate, first and second electrode pads are on external surfaces of the body, and a plurality of vias are within the body. Among the plurality of vias, a first via connects the first electrode layer and the first electrode pad, and a second via connects the second electrode layer and the second electrode pad. The first via and the second via are units each include a plurality of vias, and the first via unit and the second via unit are alternately disposed on an upper surface of the body.

Abstract: A thin-film ceramic capacitor includes a body in which dielectric layers and first and second electrode layers are alternately disposed on a substrate, and first and second electrode pads disposed on external surfaces of the body. A plurality of vias are disposed in the body. Each of a plurality of first vias connects the first electrode layers and the first electrode pad to each other. Each of a plurality of second vias connects the second electrode layers and the second electrode pad to each other. A separation slit is disposed to penetrate from an upper surface of the body and extend to the substrate, and the pluralities of first and second vias are disposed symmetrically with respect to the separation slit.

Abstract: A thin-film capacitor includes a body in which a plurality of dielectric layers and first and second electrode layers are alternately disposed on a substrate and first and second electrode pads disposed on external surfaces of the body, wherein a plurality of vias are disposed within the body, and the plurality of vias includes a first via electronically connects the first electrode layer and the first electrode pad and penetrates through from one surface of the body to a lowermost first electrode layer adjacent to the substrate; and a second via electronically connects the second electrode layer and the second electrode pad and penetrates through from one surface of the body to a lowermost second electrode layer adjacent to the substrate. The plurality of vias has a multi-stage shape, and a top view of each of the plurality of vias is asymmetric in shape.

Abstract: A thin film capacitor includes: a body formed by alternately stacking first and second electrode layers, with dielectric layers therebetween on a substrate. A plurality of first vias are disposed in the body and electrically connected to the first electrode layers. A plurality of second vias are disposed in the body, electrically connected to the second electrode layers, and disposed alternately with the first vias. A first connection electrode is disposed on an upper surface of the body and connected to the plurality of first vias, a second connection electrode is disposed on the upper surface of the body and connected to the plurality of second vias, and first and second electrode pads are disposed on the first and second connection electrodes, respectively, and formed to not overlap the plurality of first and second vias.

Abstract: A thin-film capacitor includes: a body in which a plurality of dielectric layers and first and second internal electrodes are alternately disposed on a substrate; and first and second external electrode disposed on an external surface of the body. A plurality of vias are disposed in the body, a first via connects first internal electrodes to each other, and penetrates from the external surface of the body to the lowermost first internal electrode, a second via connects second internal electrodes to each other, and penetrates from the external surface of the body to the lowermost second internal electrode, and the plurality of vias have a multistage shape, and at least one internal electrode has an etched portion of 0.3 to 0.7 layer in relation to one layer of the internal electrode.

Abstract: The present invention relates to a method for simulating image quality improvement of an image display device, in which the image display device to be tested is made to display an optimized picture quality with a simplified process by applying simplified simulation program and device; and a device therefor.

Abstract: A method of reading data in a memory system including a non-volatile memory device, includes reading first data stored in a first block using a first read scheme capable of detecting/correcting an error in the first data, and upon determining an uncorrected error in the first data, setting the first block as a first temporary bad block and reading second data stored in the first temporary bad block using a second read scheme different from the first read scheme.

Abstract: A liquid crystal display device includes a liquid crystal panel, a timing controller, a compensation unit and a panel drive circuit. The liquid crystal panel has a plurality of color pixels, each of the color pixels including two sub-pixels which represent two different colors. The timing controller generates a sub-pixel data stream of two sub-frame format. The sub-pixel data stream of two sub-frame format includes a first sub-pixel data for a first sub-frame and a second sub-pixel data for a second sub-frame. The first sub-pixel data and the second sub-pixel data have different gamma characteristics. The compensation unit is operable to compensate the first sub-pixel data and the second sub-pixel data with different rates. The panel drive circuit drives the sub-pixels on the liquid crystal panel and supplies the sub-pixels with the compensated first sub-pixel data for the first sub-frame and the compensated second sub-pixel data for the second sub-frame.

Abstract: Disclosed are a high efficiency LED package with reduced production costs, a method for manufacturing the same, and a light source unit having the LED package. The method for manufacturing the LED package includes preparing a mold frame on which an LED is mounted, forming a hemi-spherical lens having a reverse-conical top part and a lateral part with haze formed by sanding or bead treatment, and fixing the lens to the mold frame to enclose the LED.

Abstract: Provided is a method of reading data in a memory system including a non-volatile memory device. The method includes reading first data stored in a first block using a first read scheme capable of detecting/correcting an error in the first data, and upon determining an uncorrected error in the first data, setting the first block as a first temporary bad block and reading second data stored in the first temporary bad block using a second read scheme different from the first read scheme.

Abstract: Provided is an error detection apparatus of an inkjet printer head including: an amplification unit connected between a piezoelectric element, which applies pressure to an ink chamber, and a ground to amplify a voltage generated from the piezoelectric element; and a detection unit for detecting whether ink is normally ejected using the voltage amplified by the amplification unit. It is possible to detect whether the inkjet printer head abnormally ejects ink by sensing vibration after ejection of ink using the piezoelectric element.

Abstract: There is provided a spindle motor including a stator including a base member in which a stator core is fixedly installed, and a rotor including a rotor hub in which a driving magnet disposed to face the stator core is installed, wherein the driving magnet is installed on a magnet mounting part provided in the rotor hub so that the magnetic center thereof in an axial direction is disposed in a position higher than that of the magnetic center of the stator core in the axial direction in order to generate force directed in a downward axial direction by interaction with the stator core, and the stator core is formed of a soft magnetic material and includes protrusion parts formed at a front end portion thereof disposed to face the driving magnet and extended therefrom in the axial direction.