Abstract: A processor-implemented method for automatically generating a layout of a cell of a semiconductor circuit is provided herein. The processor-implemented method includes reading a netlist of the cell. The netlist includes a description of internal electrical nets connecting electrical components of the cell with each other. The processor-implemented method assigning a weight to an internal net of the internal electrical nets and placing the electrical components in an area of the semiconductor circuit based on the netlist and the weight to generate the layout of the cell of the semiconductor circuit.

Abstract: A processor-implemented method for automatically generating a layout of a cell of a semiconductor circuit is provided herein. The processor-implemented method includes reading a netlist of the cell. The netlist includes a description of internal electrical nets connecting electrical components of the cell with each other. The processor-implemented method assigning a weight to an internal net of the internal electrical nets and placing the electrical components in an area of the semiconductor circuit based on the netlist and the weight to generate the layout of the cell of the semiconductor circuit.

Abstract: A processor-implemented method for automatically generating a layout of a cell of a semiconductor circuit is provided herein. The processor-implemented method includes reading a netlist of the cell. The netlist includes a description of internal electrical nets connecting electrical components of the cell with each other. The processor-implemented method assigning a weight to an internal net of the internal electrical nets and placing the electrical components in an area of the semiconductor circuit based on the netlist and the weight to generate the layout of the cell of the semiconductor circuit.

Abstract: A processor-implemented method for automatically generating a layout of a cell of a semiconductor circuit is provided herein. The processor-implemented method includes reading a netlist of the cell. The netlist includes a description of internal electrical nets connecting electrical components of the cell with each other. The processor-implemented method assigning a weight to an internal net of the internal electrical nets and placing the electrical components in an area of the semiconductor circuit based on the netlist and the weight to generate the layout of the cell of the semiconductor circuit.

Abstract: An SRAM circuitry having SRAM cells for storing at least one data word of a length of at least one bit is provided. Each bit of the data words is stored in an assigned SRAM cell, wherein the SRAM circuitry comprises address lines for addressing the at least one data word, a decoding unit for decoding the address signals on the address lines to generate a word line signals on a word line per addressed word, a local bit line to be coupled to SRAM cells of different data words with different addresses, a global bit line to be coupled to the local bit line, and a global bit line restore unit for pre-charging the global bit line. The global bit line restore unit is configured for being triggered by a trigger signal based on the address signal of one of the decoded address lines.

Abstract: A method and a system for generating a placement layout is disclosed. The method includes receiving one or more user provided schematic with circuit data, placement parameters of circuit elements, default values, and user specified function calls and variables for calculating placement parameters; evaluating variables and function calls to discrete placement parameters; evaluating justification values and adjusting relative parameter values; calculating absolute placement coordinates for all cells from relative placement parameters for each instance; adjusting placement coordinates for alignment options; and generating a layout/hierarchical layout with placement circuit elements based on the calculated absolute placement coordinates.

Abstract: An SRAM circuitry having SRAM cells for storing at least one data word of a length of at least one bit is provided. Each bit of the data words is stored in an assigned SRAM cell, wherein the SRAM circuitry comprises address lines for addressing the at least one data word, a decoding unit for decoding the address signals on the address lines to generate a word line signals on a word line per addressed word, a local bit line to be coupled to SRAM cells of different data words with different addresses, a global bit line to be coupled to the local bit line, and a global bit line restore unit for pre-charging the global bit line. The global bit line restore unit is configured for being triggered by a trigger signal based on the address signal of one of the decoded address lines.