Abstract: An air conditioner is provided that may include a case having an inlet and an outlet; a heat exchanger disposed inside of the case; a fan disposed inside of the case and elongated in a direction of a rotational axis of the fan; a guide that extends toward the outlet in a rotational direction of the fan; and a sterilizer mounted to the guide at a position facing the fan, and provided with a lamp that extends in a direction in which the fan extends, thereby providing a uniform sterilizing effect in a longitudinal direction of the fan.

Abstract: A semiconductor device may include: a dummy gate structure including a first gate pattern in which dummy gate lines extending in one direction are connected to each other on a substrate, and a second gate pattern in which dummy gate lines extending in the one direction are connected to each other on the same line with the first gate pattern; and a third gate pattern extending in parallel with the dummy gate structure on one side of the dummy gate structure.

Abstract: A semiconductor device may include: a dummy gate structure including a first gate pattern in which dummy gate lines extending in one direction are connected to each other on a substrate, and a second gate pattern in which dummy gate lines extending in the one direction are connected to each other on the same line with the first gate pattern; and a third gate pattern extending in parallel with the dummy gate structure on one side of the dummy gate structure.

Abstract: A semiconductor device includes first and second active regions. Each active region includes a plurality of fin protrusions and a recessed area disposed between the fin protrusions. A plurality of gate structures are disposed on each of the plurality of fin protrusions. A semiconductor layer is disposed in each recessed area. A distance between the gate structures of the first active region is the same as a distance between the gate structures of the second active region, and a height difference between a bottom surface of the semiconductor layer of the first recessed area and a top surface of each of the fin protrusions of the first active region is smaller than a height difference between a bottom surface of the semiconductor layer of the recessed area of the second active region and a top surface of each of the fin protrusions of the second active region.

Abstract: A semiconductor device includes first and second active regions. Each active region includes a plurality of fin protrusions and a recessed area disposed between the fin protrusions. A plurality of gate structures are disposed on each of the plurality of fin protrusions. A semiconductor layer is disposed in each recessed area. A distance between the gate structures of the first active region is the same as a distance between the gate structures of the second active region, and a height difference between a bottom surface of the semiconductor layer of the first recessed area and a top surface of each of the fin protrusions of the first active region is smaller than a height difference between a bottom surface of the semiconductor layer of the recessed area of the second active region and a top surface of each of the fin protrusions of the second active region.

Abstract: A semiconductor device and a method of forming the semiconductor device includes: forming gate electrodes on a semiconductor substrate and forming spacers on both side surfaces of the gate electrodes; forming capping patterns on the gate electrodes; and forming a metal contact between the gate electrodes. Each of the capping patterns is formed to have a width greater than a width of each of the gate electrodes.

Abstract: A semiconductor device and a method of forming the semiconductor device includes: forming gate electrodes on a semiconductor substrate and forming spacers on both side surfaces of the gate electrodes; forming capping patterns on the gate electrodes; and forming a metal contact between the gate electrodes. Each of the capping patterns is formed to have a width greater than a width of each of the gate electrodes.

Abstract: A semiconductor device and a method of forming the semiconductor device includes: forming gate electrodes on a semiconductor substrate and forming spacers on both side surfaces of the gate electrodes; forming capping patterns on the gate electrodes; and forming a metal contact between the gate electrodes. Each of the capping patterns is formed to have a width greater than a width of each of the gate electrodes.

Abstract: Provided is a method for controlling a plasma apparatus. The method includes measuring a plasma spectrum in a plasma chamber by an optical emission spectroscopy, setting a baseline of the measured plasma spectrum, normalizing the measured plasma spectrum by dividing a value of the measured plasma spectrum by a value of the baseline, and controlling the plasma chamber by setting parameters of a plasma process using the normalized plasma spectrum. A plasma apparatus is also provided.