Samsung Electronics Co., Ltd.

Sang-deok Kwon

Choel-Hwyi Bae

Yuri Masuoka

Je-min Yoo

Jong-Hyun Lee

Mi-Joung Lee

Ki-Am Lee

Gwang-Hyeon Baek

Min-Geon Cho

Yong-woon Han

Provided are semiconductor devices having various line widths and a method of manufacturing the semiconductor device. The semiconductor device includes: a substrate including a first region and a second region, a plurality of first gate lines extending in a first direction in the first region and each having a first width in a second; a plurality of second gate lines extending in the first direction in the second region and each having a second width that is different from the first width in the second direction and a pitch that is the same as a pitch of the plurality of first gate lines; a spacer layer covering opposite side walls of each of the plurality of first gate lines and each of the plurality of second gate lines; and a first base layer arranged between the substrate and the spacer layer in the first region.

Semiconductor devices with various line widths and method of manufacturing the same

A monitoring pattern for detecting a defect in a semiconductor device allows a voltage contrast inspection which may be verified by an electrical test where no special test pattern is required for the electrical test. The monitoring pattern includes a test pattern with line shapes arranged in parallel and spaced apart at predetermined linewidths and intervals, and an interconnection layer connected to the test pattern, where the test pattern is adapted to be charged with a specific potential to be displayed as a voltage contrast image when scanned with an electron beam.

Monitoring pattern for detecting a defect in a semiconductor device and method for detecting a defect

A method of enhancing yield of semiconductor integrated circuit includes determining multiple experimental values, each experimental value corresponding to a distance from a side of a hole to an opposing side of a shape surrounding the hole, forming test patterns representing each of the experimental values on a wafer and calculating experimental value-based systematic fault rates from the test patterns; converting the experimental value-based systematic fault rates of the hole into the experimental value-based systematic fault rates, calculating a length of a side of the hole for which a distance between the side of the hole and the opposing side of the shape corresponds to each of experimental values, and calculating a systematic fault rate of the hole using the experimental value-based systematic fault rates per unit hole length and the length of the sides of the hole calculated for the respective experimental values in the desired layout.

Method and system for enhancing yield of semiconductor integrated circuit devices using systematic fault rate of hole

In a method and structure for semiconductor failure analysis, the structure comprises: a plurality of analytic fields disposed on a predetermined area of a semiconductor device; semiconductor transistors arranged in each of the analytic fields, the semiconductor transistors arranged in an array; wordlines arranged on each of the plurality of the analytic fields, connecting the semiconductor transistors with each other in a first direction; and bitline structures on each of the plurality of the analytic fields, connecting the semiconductor transistors with each other in a second direction, wherein the bitline structures are configured in different patterns in each of the plurality of analytic fields.

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Seoul, South Korea

Sang-deok Kwon