Abstract: A method of fabricating a semiconductor device may include designing a layout including first and second gate patterns, first and second dummy gate patterns, and third and fourth gate patterns sequentially arranged in a first direction; forming first to fourth sacrificial patterns and first and second dummy sacrificial patterns, which correspond to the first to fourth gate patterns and the first and second dummy gate patterns respectively, on a substrate using a photomask manufactured based on the layout; and performing an optical proximity correction on the layout. The optical proximity correction may include measuring distances between adjacent ones of the sacrificial and dummy sacrificial patterns in the first direction to provide measured distances, comparing a mean value of the measured distances with a mean value of target distances to obtain a first distance therebetween, and reducing a distance between the first and second dummy gate patterns by the first distance.

Abstract: A semiconductor device is provided. The semiconductor device comprises a substrate including a first region, a second region, and a connecting region placed between the first region and the second region, a plurality of first multi-channel active patterns placed in the first region of the substrate, a plurality of second multi-channel active patterns placed in the second region of the substrate, a first connecting fin type pattern which is placed in the connecting region of the substrate and extends from the first region to the second region in a first direction, and a field insulating film which is placed on the substrate and covers an upper surface of the first connecting fin type pattern, wherein a width of the first connecting fin type pattern in a second direction decreases and then increases as it goes away from the first region, and the first direction is perpendicular to the second direction.

Abstract: A method of fabricating a semiconductor device includes: (i) placing, on a first layout, first patterns that extend parallel to each other in a first direction and are spaced apart from each other in a second direction intersecting the first direction, (ii) extracting a low-density region on the first layout, (iii) defining an enclosure region that surrounds the first patterns, (iv) placing dot patterns on a second layout, (v) extracting, from the dot patterns, first dot patterns that overlap the low-density region and do not overlap the enclosure region, (vi) placing the extracted first dot patterns on the first layout, (vii) allowing the first dot patterns to extend in the first direction to form second patterns, and (viii) using the first and second patterns to respectively form first and second active patterns on a substrate.

Abstract: A method of fabricating a semiconductor device includes: (i) placing, on a first layout, first patterns that extend parallel to each other in a first direction and are spaced apart from each other in a second direction intersecting the first direction, (ii) extracting a low-density region on the first layout, (iii) defining an enclosure region that surrounds the first patterns, (iv) placing dot patterns on a second layout, (v) extracting, from the dot patterns, first dot patterns that overlap the low-density region and do not overlap the enclosure region, (vi) placing the extracted first dot patterns on the first layout, (vii) allowing the first dot patterns to extend in the first direction to form second patterns, and (viii) using the first and second patterns to respectively form first and second active patterns on a substrate.

Abstract: In a capacitor of an integrated circuit, a crystallization induction film is obtained by oxidizing a surface of an electrode, and a dielectric structure is formed on the crystallization induction film, to reduce defect density generated in the dielectric film, improve leakage current, and reduce equivalent oxide thickness.

Abstract: In a capacitor of an integrated circuit, a crystallization induction film is obtained by oxidizing a surface of an electrode, and a dielectric structure is formed on the crystallization induction film, to reduce defect density generated in the dielectric film, improve leakage current, and reduce equivalent oxide thickness.

Abstract: A semiconductor device includes a fin-type pattern including a first short side and a second short side opposed to each other, a first trench in contact with the first short side, a second trench in contact with the second short side, a first field insulating film in the first trench, the first field insulating film including a first portion and a second portion arranged sequentially from the first short side, and a height of the first portion being different from a height of the second portion, a second field insulating film in the second trench, and a first dummy gate on the first portion of the first field insulating film.

Abstract: A method of designing patterns of semiconductor devices includes forming a plurality of tiles having patterns on a wafer, measuring the patterns of the plurality of tiles, analyzing the measurements of the patterns and determining a tile having such a size that the measurements linearly vary according to a design size and pattern density, and modifying the pattern density of the determined tile.

Abstract: A semiconductor device includes a fin-type pattern including a first short side and a second short side opposed to each other, a first trench in contact with the first short side, a second trench in contact with the second short side, a first field insulating film in the first trench, the first field insulating film including a first portion and a second portion arranged sequentially from the first short side, and a height of the first portion being different from a height of the second portion, a second field insulating film in the second trench, and a first dummy gate on the first portion of the first field insulating film.

Abstract: A method of designing patterns of semiconductor devices includes forming a plurality of tiles having patterns on a wafer, measuring the patterns of the plurality of tiles, analyzing the measurements of the patterns and determining a tile having such a size that the measurements linearly vary according to a design size and pattern density, and modifying the pattern density of the determined tile.