Abstract: A method of manufacturing a flash memory cell in which an ion implantation process is performed before a cleaning process for etching a protrusion of a trench insulating film to a nipple shape. As a result, the etch rate at a portion except for portions in which a moat will occur along the trench insulating film is increased. Therefore, generation of the moat in the trench insulating film can be prevented and spacing of the floating gate can be optimized.

Abstract: A compression video decoder and a method thereof, which decodes a standard compressed and encoded video stream, directly outputs the decoded image according to a screen size of a display device without using a special scale-down block for scaling down the image, increases a speed by reducing computational complexity for scaling down the image, maintains quality of the original image, and minimizes distortion.

Abstract: Disclosed is a method for determining environmental brightness to appropriately control display brightness according to variations of the environmental brightness in different places in a mobile communication terminal including a camera having an automatic gain control (AGC) function, and a method for controlling the display brightness using the same, including the steps of calculating a luminance average of a center region of a photographed screen corresponding to an AGC reference region and a luminance average of an edge region except for the center region as brightness values from an image signal generated by photographing of the camera, comparing the brightness value of the edge region with a previously-set dark environmental critical value, comparing the brightness value of the center region with the brightness value of the edge region according to the comparison result, and determining that the environmental brightness is one of the bright state and the dark state, extracting luminance elements from an

Abstract: A method for fabricating a flash memory device begins with forming in sequence a tunnel oxide layer, a floating gate, an oxide-nitride-oxide (ONO) layer, a control gate, and a hard mask nitride layer on a silicon substrate. The hard mask nitride layer, the control gate, the ONO layer, and the floating gate are then patterned in sequence. Next, a sealing nitride layer is formed on a lateral side of the patterned structure. Also, in order to form a spacer, a first insulating layer is deposited on an entire resultant structure and then selectively patterned. Thereafter, second, third and fourth insulating layers are formed in sequence on the entire resultant structure including the spacer, and a photo resist pattern is then formed on the fourth insulating layer to define a metal contact area.

Abstract: A cylindrical storage electrode in a semiconductor device is manufactured by forming a contact hole in a poly oxide film and by forming a first thin film on the film and in the hole. Next, a core oxide film and an anti-reflective coating film are formed on the first thin film to determine the height of the cylinder. A pattern is then formed by etching the anti-reflective coating film, core oxide film and the first thin film such that the poly oxide film is exposed. A second thin film is formed on the overall resultant structure, and a tungsten silicide layer is formed on the second thin film. Inner and outer walls of the cylinder are then formed by blanket-etching the tungsten silicide film and the second thin film such that the core oxide film is exposed. After the core oxide film is removed, a selective metastable polysilicon (SMPS) process is performed so that different grain growths are generated at the inner and outer walls of the cylinder. A storage electrode is then formed by annealing the cylinder.

Abstract: A cylindrical storage electrode in a semiconductor device is manufactured by forming a contact hole in a poly oxide film and by forming a first thin film on the film and in the hole. Next, a core oxide film and an anti-reflective coating film are formed on the first thin film to determine the height of the cylinder. A pattern is then formed by etching the anti-reflective coating film, core oxide film and the first thin film such that the poly oxide film is exposed. A second thin film is formed on the overall resultant structure, and a tungsten silicide layer is formed on the second thin film. Inner and outer walls of the cylinder are then formed by blanket-etching the tungsten silicide film and the second thin film such that the core oxide film is exposed. After the core oxide film is removed, a selective metastable polysilicon (SMPS) process is performed so that different grain growths are generated at the inner and outer walls of the cylinder. A storage electrode is then formed by annealing the cylinder.

Abstract: A cylindrical storage electrode in a semiconductor device is manufactured by forming a contact hole in a poly oxide film and by forming a first thin film on the film and in the hole. Next, a core oxide film and an anti-reflective coating film are formed on the first thin film to determine the height of the cylinder. A pattern is then formed by etching the anti-reflective coating film, core oxide film and the first thin film such that the poly oxide film is exposed. A second thin film is formed on the overall resultant structure, and a tungsten silicide layer is formed on the second thin film. Inner and outer walls of the cylinder are then formed by blanket-etching the tungsten silicide film and the second thin film such that the core oxide film is exposed. After the core oxide film is removed, a selective metastable polysilicon (SMPS) process is performed so that different grain growths are generated at the inner and outer walls of the cylinder. A storage electrode is then formed by annealing the cylinder.