Samsung Electronics Co., Ltd.

Kwanyoung Chun

Chulhong Park

Raheel Azmat

Rwik Sengupta

Yoonjin Kim

Taehyung Kim

Jinwoo Jeong

Sharma Deepak

Jiwook Kwon

Jungkyu Chae

Yeoncheol Heo

Byungju Kang

Panjae Park

Sunyoung Park

Jung-Ho Do

Sanghoon Baek

Taejoong Song

Sang-Kyu Oh

Jaeseok Yang

Hyun-jong Lee

Rajeev Ranjan

Kuchanuri Subhash

Yusun Lee

Yoonjeong Kim

Sooyeon Jeon

Suhyeong Choi

A cell including individual source regions includes active regions extending in a first direction and being spaced apart from each other in a second direction different from the first direction, gate lines extending across the active regions in the second direction and being spaced apart from each other in the first direction, first contacts arranged on both sides of each of the gate lines in the first direction and connected to the active regions, metal lines arranged over the gate lines and the first contacts, the metal lines extending in the first direction and being spaced apart from each other in the second direction, second contacts connecting the gate lines to the metal lines, and vias connecting the first contacts to the metal lines.

Cell including individual source regions and integrated circuit including the cell

A semiconductor device includes: a semiconductor substrate having power arrangement regions; a first interconnection structure disposed on the semiconductor substrate and including first interconnection patterns and power lines; a second interconnection structure disposed on the semiconductor substrate and including second interconnection patterns; and through-electrodes passing through each of the power arrangement regions and contacting the power lines, wherein the first interconnection patterns include first interconnection lines, wherein the power lines are disposed on a same height level as a first interconnection line, among the first interconnection lines, and are parallel to each other, wherein the power arrangement regions are parallel to each other, and wherein intersection regions, in which the power arrangement regions and the power lines intersect, include a plurality of first active intersection regions, one dummy intersection region, and a plurality of second active intersection regions, sequentially arranged.

Semiconductor devices

A semiconductor device includes a pair of first and second dummy active regions extending in a first horizontal direction and spaced apart from each other in a second horizontal direction; a pair of first and second circuit active regions extending in the first horizontal direction and spaced apart in the second horizontal direction; and a plurality of line patterns extending in the second horizontal direction and spaced apart in the first horizontal direction. The pair of first and second dummy active regions may be between a pair of line patterns adjacent to each other among the plurality of line patterns. At least one of the first and second dummy active regions may have a width-changing portion in which a width of the at least one of the first and second dummy active regions changes in the second horizontal direction between the pair of line patterns adjacent to each other.

Semiconductor device

An integrated circuit chip including a substrate including first and second element regions; a first channel active region extending in a first direction; a second channel active region; gate lines extending in a second direction and intersecting the first and second channel active regions; a diffusion break extending in the second direction; source/drain regions at opposite sides of the gate lines and on the first and second channel active regions; a first power line electrically connected to the source/drain regions; and a second power line electrically connected to the source/drain regions and having a lower voltage level than the first power line, wherein the diffusion break includes a first region including an insulator and overlapping the first element region, and a second region including a same material as the gate lines and overlapping the second element region, wherein the second region is electrically connected to the second power line.

Integrated circuit chip including standard cell

A semiconductor device including a substrate; first to third active patterns on an upper portion of the substrate, the active patterns being sequentially arranged in a first direction and extending in a second direction crossing the first direction; first to third power rails respectively connected to the first to third active patterns, wherein a width of the second active pattern in the first direction is at least two times a width of the first active pattern in the first direction and is at least two times a width of the third active pattern in the first direction, the first active pattern is not vertically overlapped with the first power rail, the second active pattern is vertically overlapped with the second power rail, and the third active pattern is not vertically overlapped with the third power rail.

Disclosed is a semiconductor device comprising an active region that protrudes upwardly from a substrate, a plurality of channel patterns that are spaced apart from each other in a first direction on the active region, and a gate electrode that extends in the first direction on the active region and covers the plurality of channel patterns. Each of the plurality of channel patterns includes a plurality of semiconductor patterns that are spaced apart from each other in a direction perpendicular to a top surface of the active region. The gate electrode covers the top surface of the active region between the plurality of channel patterns.

Semiconductor device with channel patterns having different widths

A method of manufacturing an integrated circuit includes: generating layout data of the integrated circuit by placing and routing standard cells that define the integrated circuit, the standard cells including a nanosheet; generating timing analysis data by performing a timing analysis of the integrated circuit using the layout data; and regenerating the layout data of the integrated circuit by replacing and rerouting the standard cells that define the integrated circuit based on the timing analysis data and a shape of the nanosheet of the placed standard cells.

Method and computing system for manufacturing integrated circuit including nanosheet

A semiconductor device includes a substrate with an upper surface and a lower surface, and first to third active patterns extending from the upper surface of the substrate. The first to third active patterns are arranged adjacent to each other in a first direction. The second active pattern is disposed between the first and third active patterns. The semiconductor device also includes a first gate electrode surrounding side surfaces of the first and second active patterns, and a second gate electrode surrounding side surfaces of the third active pattern. Each of the first to third active patterns includes a first impurity region, a channel region, and a second impurity region.

Method of fabricating a semiconductor device including vertical-type field effect transistors

A semiconductor device includes a first active pattern extending in a first direction on a first region and a second region of a substrate, a first dummy gate electrode extending in a second direction crossing the first active pattern between the first region and the second region, a contact structure contacting the first dummy gate electrode and extending in the first direction, and a power line disposed on the contact structure and electrically connected to the contact structure. The power line extends in the first direction. The contact structure overlaps with the power line when viewed in a plan view.

Semiconductor device and method of manufacturing semiconductor device

Semiconductor device including vertical-type field effect transistors and method of fabricating the same

Provided is a semiconductor device including a substrate with a plurality of logic cells, transistors provided in the plurality of logic cells, contact plugs connected to electrodes of the transistors, first via plugs in contact with top surfaces of the contact plugs, and first wires in contact with top surfaces of the first via plugs. The first wires may include a common conductive line connected to the plurality of logic cells through the contact plugs, and all of the first wires may be shaped like a straight line extending parallel to a specific direction.

Provided is a method of fabricating a semiconductor device with a field effect transistor. The method may include forming a first gate electrode and a second gate electrode extending substantially parallel to each other and each crossing a PMOSFET region on a substrate and an NMOSFET region on the substrate; forming an interlayered insulating layer covering the first gate electrode and the second gate electrode; patterning the interlayered insulating layer to form a first sub contact hole on the first gate electrode, the first sub contact hole being positioned between the PMOSFET region and the NMOSFET region, when viewed in a plan view; and patterning the interlayered insulating layer to form a first gate contact hole and to expose a top surface of the second gate electrode, wherein the first sub contact hole and the first gate contact hole form a single communication hole.

Growing community of inventors

Suwon-si, South Korea

Kwanyoung Chun