Abstract: A standard cell includes plural of transistors including a first type transistor and a second type transistor, plural of contacts coupled to the transistors; at least one input line electrically coupled to the transistors; an output line electrically coupled to the transistors; a VDD contacting line electrically coupled to the transistors; a VSS contacting line electrically coupled to the transistors; wherein the first type transistor includes a first set of fin structures electrically coupled together, the second type transistor includes a second set of fin structures electrically coupled together, and a gap between the first type transistor and the second type transistor is not greater than 3×Fp minus A, wherein Fp is a pitch distance between two adjacent fin structures in the first type transistor and A is a minimum feature size of the standard cell.

Abstract: A data market system located at the Internet includes a storage circuit, an input surface circuit, and a processor. The input surface circuit is used for receiving a query and an encrypted data packet. The processor is used for controlling the input surface circuit to receive the encrypted data packet and to store the encrypted data packet in the storage circuit. The processor processes the encrypted data packet according to the query. The encrypted data packet corresponds to at least one of anonymization application programming interface, blockchain, differential privacy, and homomorphic encryption provided by the data market system.

Abstract: A SRAM cell structure includes a plurality of transistors, a set of contacts, a word-line, a bit-line, a VDD contacting line and a VSS contacting line. The plurality of transistors include n transistors, wherein n is a positive integral less than 6. The set of contacts are coupled to the plurality of transistors. The word-line is electrically coupled to the plurality of transistors. The bit-line and a bit line bar are electrically coupled to the plurality of transistors. The VDD contacting line is electrically coupled to the plurality of transistors. The VSS contacting line is electrically coupled to the plurality of transistors. Wherein as a minimum feature size of the SRAM cell structure gradually decreases from 28 nm, an area size of the SRAM cell in terms of square of the minimum feature size (?) is the same or substantially the same.

Abstract: A standard cell includes a plurality of transistors, a set of contacts coupled to the plurality of transistors, at least one input line electrically coupled to the plurality of transistors, an output line electrically coupled to the plurality of transistors, a VDD contacting line electrically coupled to the plurality of transistors and a VSS contacting line electrically coupled to the plurality of transistors. Wherein as a minimum feature size (?) of the standard cell gradually decreases from 22 nm, an area size of the standard cell in terms of ?2 is the same or substantially the same.

Abstract: The present invention provides a method for monitoring tracks and a track monitoring module. The method comprises: maintaining a target list, stored a target track, by a monitoring server; recording a first track related to a first mobile device by a first monitoring application; and comparing the similarity between the first track and the target track by the first monitoring application to generate a comparison result.

Abstract: A SRAM cell includes a plurality of transistors, a set of contacts coupled to the plurality of transistors, a word-line electrically coupled to the plurality of transistors, a bit-line and a bit line bar electrically coupled to the plurality of transistors, a VDD contacting line electrically coupled to the plurality of transistors, and a VSS contacting line electrically coupled to the plurality of transistors, wherein as the minimum feature size of the SRAM cell gradually decreases from 28 nm, an area size of the SRAM cell in terms of square of a minimum feature size (?) is the same or substantially the same.

Abstract: A method for validating standard cells stored in a standard cell library and for use in design of an integrated circuit device is described. Each standard cell of the standard cells is iteratively placed adjacent to each side and corner of itself and each other standard cell of the standard cells to produce an interim test layout comprising a first plurality of cell pair permutations. The cell pair permutations are reduced by identifying at least one of: illegal or redundant left-right and top-bottom boundaries, and removing any cell pair permutations using the identified boundaries to generate a final test layout comprising a second plurality of cell pair permutations.

Abstract: Disclosed herein is a digital system that includes a distribution network having a path to carry a reference clock and an adjustable delay element disposed along the path, and first and second clock domains coupled to the distribution network to receive the reference clock and configured to be driven by respective clock waveforms, each of which has a frequency in common with the reference clock. The digital system further includes a phase detector coupled to the first and second clock domains to generate a phase difference signal based on the clock waveforms, and a control circuit coupled to the phase detector and configured to adjust the adjustable delay element based on the phase difference signal.

Abstract: Disclosed herein is a digital system that includes a distribution network having a path to carry a reference clock and an adjustable delay element disposed along the path, and first and second clock domains coupled to the distribution network to receive the reference clock and configured to be driven by respective clock waveforms, each of which has a frequency in common with the reference clock. The digital system further includes a phase detector coupled to the first and second clock domains to generate a phase difference signal based on the clock waveforms, and a control circuit coupled to the phase detector and configured to adjust the adjustable delay element based on the phase difference signal.

Abstract: Disclosed herein is a digital system that includes a distribution network having a path to carry a reference clock and an adjustable delay element disposed along the path, and first and second clock domains coupled to the distribution network to receive the reference clock and configured to be driven by respective clock waveforms, each of which has a frequency in common with the reference clock. The digital system further includes a phase detector coupled to the first and second clock domains to generate a phase difference signal based on the clock waveforms, and a control circuit coupled to the phase detector and configured to adjust the adjustable delay element based on the phase difference signal.

Abstract: Disclosed herein is a digital system that includes a distribution network to carry a reference clock, and a circuit domain coupled to the distribution network to receive the reference clock for synchronous operation in accordance with the reference clock. The circuit domain includes a clock generator driven by the reference clock to generate a resonant clock signal, an input port to receive a control signal, and a gate coupled to the input port to discontinue application of the resonant clock signal within the circuit domain based on the control signal.

Abstract: Disclosed herein is a digital system that includes a distribution network to carry a reference clock and a plurality of circuit domains coupled to the distribution network to receive the reference clock for synchronous operation in accordance with the reference clock. Each circuit domain of the plurality of circuit domains includes a respective clock generator driven by the reference clock to generate a resonant clock signal, respective circuitry coupled to the clock generator to operate in accordance with the resonant clock signal, with the circuitry including a capacitive load for the resonant clock signal and a respective inductance coupled to the circuitry and the clock generator to resonate the capacitive load of the circuitry.

Abstract: Disclosed herein is a digital system that includes a distribution network to carry a reference clock and a plurality of circuit domains coupled to the distribution network to receive the reference clock for synchronous operation in accordance with the reference clock. Each circuit domain of the plurality of circuit domains includes a respective clock generator driven by the reference clock to generate a resonant clock signal, respective circuitry coupled to the clock generator to operate in accordance with the resonant clock signal, with the circuitry including a capacitive load for the resonant clock signal and a respective inductance coupled to the circuitry and the clock generator to resonate the capacitive load of the circuitry.

Abstract: Disclosed herein is a digital system that includes a distribution network to carry a reference clock, and a circuit domain coupled to the distribution network to receive the reference clock for synchronous operation in accordance with the reference clock. The circuit domain includes a clock generator driven by the reference clock to generate a resonant clock signal, an input port to receive a control signal, and a gate coupled to the input port to discontinue application of the resonant clock signal within the circuit domain based on the control signal.

Abstract: Disclosed herein is a digital system that includes a distribution network having a path to carry a reference clock and an adjustable delay element disposed along the path, and first and second clock domains coupled to the distribution network to receive the reference clock and configured to be driven by respective clock waveforms, each of which has a frequency in common with the reference clock. The digital system further includes a phase detector coupled to the first and second clock domains to generate a phase difference signal based on the clock waveforms, and a control circuit coupled to the phase detector and configured to adjust the adjustable delay element based on the phase difference signal.