Abstract: A standard cell library and a method of using the same may include information regarding a plurality of standard cells stored on a non-transitory computer-readable storage medium, wherein at least one of the plurality of standard cells includes a pin through which an input signal or an output signal of the at least one standard cell passes and including first and second regions perpendicular to a stack direction. When the via is disposed in the pin, the second region can provide a resistance value of the via smaller than that of the first region. The standard cell library may further include marker information corresponding to the second region.

Abstract: A method of designing a semiconductor device and system for designing a semiconductor device are provided. The method of designing a semiconductor device includes providing a standard cell layout which includes an active region and a dummy region; determining a first fin pitch between a first active fin and a second active fin in the active region and a second fin pitch between a first dummy fin and a second dummy fin in the dummy region; placing the first and second active fins in the active region and the first and second dummy fins in the dummy region using the first and second fin pitches; and verifying the standard cell layout.

Abstract: A method of designing a semiconductor integrated circuit (IC) is provided as follows. A standard cell library is generated. The standard cell library includes characteristic information for a plurality of standard cells. The characteristic information includes a characteristic of each standard cell. A characteristic change region is detected. The characteristic change region includes at least one of the plurality of standard cells by comparing characteristics of standard cells to be placed adjacent to the characteristic change region, based on the standard cell library. A characteristic of the at least one standard cell included in the detected characteristic change region is changed to one of the characteristics of the standard cells to be placed adjacent to the characteristic change region to update the standard cell library. A plurality of standard cells of the updated standard cell library is placed.

Abstract: First and second active regions are doped with different types of impurities, and extend in a first direction and spaced apart from each other in a second direction. First and third gate structures, which are on the first active region and a first portion of the isolation layer between the first and second active regions, extend in the second direction and are spaced apart from each other in the first direction. Second and fourth gate structures, which are on the second active region and the first portion, extend in the second direction, are spaced apart from each other in the first direction, and face and are spaced apart from the first and third gate structures, respectively, in the second direction. First to fourth contacts are on portions of the first to fourth gate structures, respectively. The first and fourth contacts are connected, and the second and third contacts are connected.

Abstract: An integrated circuit including a first standard cell including, first transistors, the first transistors being first unfolded transistors, a first metal pin, a second metal pin, and a third metal pin on a first layer, the first metal pin and the second metal pin having a first minimum metal center-to-metal center pitch therebetween less than or equal to 80 nm, a fourth metal pin and a fifth metal pin at a second layer, the fourth metal pin and the fifth metal pin extending in a second direction, the second direction being perpendicular to the first direction, a first via between the first metal pin and the fourth metal pin, and a second via between the third metal pin and the fifth metal pin such that a first via center-to-via center space between the first via and the second via is greater than double the first minimum metal center-to-metal center pitch.

Abstract: A computer-implemented method of designing an integrated circuit (IC) includes allocating a plurality of colors to a plurality of patterns corresponding to one layer of a first cell so that a multi-patterning technology is designated for use in forming the plurality of patterns, the first cell being a multi-height cell corresponding to a plurality of rows, generating a plurality of shift cells, in which a color remapping operation associated with the plurality of patterns is performed for each row, with respect to the first cell, and storing a cell set including the first cell and the plurality of shift cells in a standard cell library.

Abstract: First and second active regions are doped with different types of impurities, and extend in a first direction and spaced apart from each other in a second direction. First and third gate structures, which are on the first active region and a first portion of the isolation layer between the first and second active regions, extend in the second direction and are spaced apart from each other in the first direction. Second and fourth gate structures, which are on the second active region and the first portion, extend in the second direction, are spaced apart from each other in the first direction, and face and are spaced apart from the first and third gate structures, respectively, in the second direction. First to fourth contacts are on portions of the first to fourth gate structures, respectively. The first and fourth contacts are connected, and the second and third contacts are connected.

Abstract: An integrated circuit (IC) and a mobile device are provided. The IC includes a memory cell that includes a word line, a bit line pair, and a storage cell connected to the word line and the bit line pair. The IC further includes a timing control circuit configured to generate switch signals based on an operation control signal, and a switch circuit configured to receive a first voltage, a second voltage and a third voltage having different levels, and output, to the word line, one among the first voltage, the second voltage, and the third voltage based on the switch signals.

Abstract: An embodiment includes an integrated circuit comprising a standard cell, the standard cell comprising: first and second active regions having different conductivity types and extending in a first direction; first, second, and third conductive lines extending over the first and second active regions in a second direction substantially perpendicular to the first direction, and disposed parallel to each other; and a cutting layer extending in the first direction between the first and second active regions and separating the first conductive line into a first upper conductive line and a first lower conductive line, the second conductive line into a second upper conductive line and a second lower conductive line, and the third conductive line into a third upper conductive line and a third lower conductive line; wherein: the first upper conductive line and the third lower conductive line are electrically connected together; and the second upper conductive line and the second lower conductive line are electrically c

Abstract: A layout design system includes a processor; a storage unit configured to store a first unit design having a first area, wherein in the first unit design, a termination is not placed on a border thereof; and a design module configured to generate a second unit design having a second area larger than the first area by placing the termination on a border of the first unit.

Abstract: A semiconductor device includes first and second memory cell regions adjacent to each other on a substrate. At least one active base and a shallow trench isolation may be sequentially laminated at a boundary between the first and second memory cell regions. First and second active fins are formed on respective sides of the shallow trench isolation, and the first and second active fins projecting from the active base. At least one deep trench isolation is formed on one side of the active base.

Abstract: An embodiment includes an integrated circuit comprising a standard cell, the standard cell comprising: first and second active regions having different conductivity types and extending in a first direction; first, second, and third conductive lines extending over the first and second active regions in a second direction substantially perpendicular to the first direction, and disposed parallel to each other; and a cutting layer extending in the first direction between the first and second active regions and separating the first conductive line into a first upper conductive line and a first lower conductive line, the second conductive line into a second upper conductive line and a second lower conductive line, and the third conductive line into a third upper conductive line and a third lower conductive line; wherein: the first upper conductive line and the third lower conductive line are electrically connected together; and the second upper conductive line and the second lower conductive line are electrically c

Abstract: Provided is a semiconductor memory device. The semiconductor memory device includes: a memory cell; a sensing circuit connected to the memory cell via a first bit line and a second bit line different from the first bit line, the sensing circuit configured to sense data stored in the memory cell; and a bit line voltage control circuit connected to the memory cell via the first bit line and the second bit line, the bit line voltage control circuit configured to precharge the first bit line to a first voltage that is lower than a supply voltage and to precharge the second bit line to a second voltage that is lower than the supply voltage and is different from the first voltage.

Abstract: A layout design system for designing a semiconductor device includes a processor, a storage module storing an intermediate design, and a correction module used by the processor to correct the intermediate design. The intermediate design includes an active region and dummy designs on the active region. Each dummy design includes a dummy structure and dummy spacers disposed at opposite sides of the dummy structure. The correction module is configured to alter widths of regions of at least some of the dummy designs. The corrected design is used to produce a semiconductor device having an active fin, a hard mask layer disposed on the active fin, a gate structure crossing the over the hard mask layer, and a spacer disposed on at least one side of the gate structure. The hard mask layer, and the active fin, are provided with widths that vary due to the dummy designs.

Abstract: An embodiment includes an integrated circuit comprising a standard cell, the standard cell comprising: first and second active regions having different conductivity types and extending in a first direction; first, second, and third conductive lines extending over the first and second active regions in a second direction substantially perpendicular to the first direction, and disposed parallel to each other; and a cutting layer extending in the first direction between the first and second active regions and separating the first conductive line into a first upper conductive line and a first lower conductive line, the second conductive line into a second upper conductive line and a second lower conductive line, and the third conductive line into a third upper conductive line and a third lower conductive line; wherein: the first upper conductive line and the third lower conductive line are electrically connected together; and the second upper conductive line and the second lower conductive line are electrically c

Abstract: A method of designing a layout of an integrated chip (IC) includes designing a first layout by place and route a plurality of standard cells that define the IC, and generating a second layout by modifying the first layout during a mask data preparation process related to the first layout, wherein the second layout is generated by connecting first and second patterns from among first layer patterns that correspond to a first layer of the first layout, such that the number of masks necessary for forming the first layer patterns is reduced.

Abstract: First and second active regions are doped with different types of impurities, and extend in a first direction and spaced apart from each other in a second direction. First and third gate structures, which are on the first active region and a first portion of the isolation layer between the first and second active regions, extend in the second direction and are spaced apart from each other in the first direction. Second and fourth gate structures, which are on the second active region and the first portion, extend in the second direction, are spaced apart from each other in the first direction, and face and are spaced apart from the first and third gate structures, respectively, in the second direction. First to fourth contacts are on portions of the first to fourth gate structures, respectively. The first and fourth contacts are connected, and the second and third contacts are connected.

Abstract: In a sense amplifier, a switching transistor is configured to apply a ground voltage to a ground node in response to a sense enable signal. A first detection circuit is configured to output a first detection signal to the first detection node based on a mode signal and a voltage of a bit-line. A second detection circuit is configured to output a second detection signal to the second detection node based on a voltage of a complementary bit-line. A latch circuit is connected to a supply voltage, the first detection node and the second detection node, and configured to output a first amplified signal and a second amplified signal through a latch node and a complementary latch node, respectively, based on the first detection signal and the second detection signal.

Abstract: A method of designing a semiconductor device and system for designing a semiconductor device are provided. The method of designing a semiconductor device includes providing a standard cell layout which includes an active region and a dummy region; determining a first fin pitch between a first active fin and a second active fin in the active region and a second fin pitch between a first dummy fin and a second dummy fin in the dummy region; placing the first and second active fins in the active region and the first and second dummy fins in the dummy region using the first and second fin pitches; and verifying the standard cell layout.

Abstract: A semiconductor device includes: active fins protruding from an active layer and extending in a first direction; a gate structure on the active fins extending in a second direction intersecting the first direction; and a spacer on at least one side of the gate structure, wherein each of the active fins includes a first region and a second region adjacent to the first direction in the first direction, and a width of the first region in the second direction is different from a width of the second region in the second direction.