Abstract: The present disclosure relates to a computer-implemented method for electronic design is provided. Embodiments may include receiving, using at least one processor, an electronic design schematic and an electronic design layout and analyzing, via machine learning, at least one schematic feature from a pair of devices associated with the electronic design schematic. Embodiments may further include determining, based, at least in part, upon the analyzing, whether the pair of devices should be grouped together.

Abstract: An approach is described for a method, system, and product, the approaching includes a multi-cloud orchestrator that manages interfacing with multiple cloud service providers on behalf of a user. In some embodiments, the multi-cloud orchestrator includes a client interface layer for each cloud provider supported where each supported cloud provider is associated with a set of management data for tracking transfers and a set of mapping data for scheduling sequences of commands to satisfy user requests. In some embodiments, the process is tightly coupled with an electronic design system and that client side and circuit verification and processing tools in cloud provider provided computing environments.

Abstract: The present disclosure relates to a method for use with an electronic design. Embodiments may include displaying, at a graphical user interface, at least a portion of the electronic design and receiving a selection of a subcircuit at a first position of the graphical user interface. In response to a user input, embodiments may include transitioning the subcircuit from the first position to a second position of the graphical user interface and determining one or more direct and indirect connections resulting from a potential placement at the second position. Embodiments may include determining an influence metric by applying an optimized connectivity rules definition upon the potential placement at the second position and the one or more direct and indirect connections. Embodiments may also include displaying feedback at the graphical user interface based upon, at least in part, the influence metric.

Abstract: In some examples, a receiver can include a sampler circuit that can be configured to process a data input signal corresponding to a current bit received at a receiver based on a capacitive weighted signal to compensate for distortion effects that a previously received bit at the receiver has on the data input signal. The receiver can include a capacitive coupling feedback circuit that can be configured to generate the capacitive weighted signal corresponding to a weighted detected bit of the previously received bit based on a capacitance of a subset of capacitors of a plurality of capacitors of the feedback circuit. The capacitive coupling feedback circuit can be configured to selectively control a number of capacitors of the plurality of capacitors that are connected in parallel corresponding to the subset of capacitors to control an amount of weight applied to the detected bit to generate the capacitive weighted signal.

Abstract: Embodiments include herein are directed towards a method for use in an electronic design environment is provided. Embodiments may include receiving, using a processor, an electronic design and providing, at a graphical user interface, an option to change an object associated with the electronic design. Embodiments may further include identifying a damage area associated with the electronic design, the damage area including an object therein. Embodiments may also include generating a polygon for the damage area and caching one or more voids located outside of the damage area. Embodiments may further include performing a cut and stamp operation on a portion of the electronic design associated with the damage area and populating, at the graphical user interface, a repaired damage area.

Abstract: Disclosed are methods, systems, and articles of manufacture for implementing an electronic design with high-capacity design closure. A reduced netlist may be generated for an analysis view of an electronic design based at least in part upon logic of interest in the analysis view. A closure may be performed based at least in part upon a union netlist, wherein the union netlist is generated from the reduced netlist. The electronic design may then be implemented based at least in part upon a result of the closure task.

Abstract: Provided is an improved method, system, and computer program product to implement simulation for photonic devices. A composite, multi-domain simulation model is disclosed, with connected domain-specific representations that allow the use of the most relevant simulator technology for a given domain. The model has external connection points either expressed as actual ports or virtual ones, embodied by simulator API calls in the model.

Abstract: A scan chain engine can determine a set number of EXTEST scan chains for the IP block and based on a predetermined maximum number of EXTEST wrapper cells per EXTEST scan chain. The scan chain engine iteratively executes partitioning on the IP block to generate a set of partitions. Each partition in the set of partitions has a number of EXTEST wrapper cells that does not exceed the maximum number of EXTEST wrapper cells per EXTEST scan chain. The scan chain engine selectively merges partitions of the set of partitions to form a set of populated partitions that each include an EXTEST wrapper cell. The number of partitions is equal to the set number of EXTEST scan chains for the IP block. The scan chain engine generates wire paths connecting EXTEST wrapper cells of each populated partition to construct the set number of EXTEST scan chains for the IP block.

Abstract: Aspects of the present disclosure address systems and methods for performing a machine-learning based clustering of dock sinks during clock tree synthesis. An integrated circuit design comprising a clock net that includes a plurality of clock sinks is accessed. A set of clusters are generated by clustering the set of clock objects of the clock net. A machine-learning model is used to assess whether each cluster satisfies one or more design rule constraints. Based on determining each cluster in the set of dusters is assessed by the machine-learning model to satisfy the one or more design rule constraints, a timing analysis is performed to determine whether each cluster in the set of clusters satisfies the target timing constraints. A clustering solution for the clock net is generated based on the set of clusters in response to determining each cluster satisfies the one or more design rule constraints.

Abstract: Using a framing protocol, an application specific integrated circuit (ASIC) in an emulation system may transmit a start-of-packet molecule to a serializer-deserializer (SerDes) interface of a switching ASIC in a gap cycle leading up to an emulation cycle such that the switching ASIC may start routing mission data through the SerDes interface during the emulation cycle. The ASIC may transmit an end-of-packet molecule at a first gap cycle to the SerDes interface of the switching ASIC such that the switching ASIC may stop routing data through the SerDes interface during the gap cycles. The start-of-packet molecule may include a start-of-packet word, a status word, cyclic redundancy check word, and an idle word. The end-of-packet molecule may include an end-of-packet word, a status word, a cyclic redundancy check word, and an idle word.

Abstract: Various embodiments provide for testing a transmitter with interpolation, which can be used with a circuit for data communications, such as serializer/deserializer (SerDes) communications. In particular, some embodiments provide for data transmission test of a transmitter by: generating and outputting a pre-determined data pattern through a serializer of the transmitter; sampling a serialized data output of the serializer over a plurality of different interpolation phase positions of a phase interpolator; and using a pattern checker to error check the sampled data over the plurality of different interpolation phase positions to determine whether the data transmission test passes.

Abstract: The present disclosure relates to embodiments for collaborative electronic design. Embodiments may include receiving a baseline model at a computing device associated with each of a plurality of geographically dispersed electronic design teams. Embodiments may further include applying environmental data from each of the plurality of geographically dispersed electronic design teams to the baseline model. Embodiments may also include generating a plurality of training changes, based upon, at least in part, the applied environmental data from each of the plurality of geographically dispersed electronic design teams. Embodiments may also include encrypting the plurality of training changes to create a plurality of encrypted training changes. Embodiments may further include providing the plurality of encrypted training changes to a centralized host configured to aggregate the plurality of encrypted training changes.

Abstract: Various embodiments provide for calibrating one or more clock signals for a serializer, which can be used with a circuit for data communications, such as serializer/deserializer (SerDes) communications. In particular, for a serializer operating based on a plurality of clock signals, some embodiments provide for calibration of one or more of the plurality of clock signals by adjusting a duty cycle of one or more clock signals, a delay of one or more clock signals, or both.

Abstract: A computer implemented method for functional safety verification includes simulating SA0 and/or SA1 faults at a Q output port of each sequential element in a first representation of an electronic design, to determine whether any of the simulated faults is detectable by a safety mechanism, determining, based on one or more fault relation rules and based on a second gate-level representation of the electronic design, whether any of the faults is also detectable by the safety mechanism if occurred at one or more input ports of the respective sequential element or one or more input ports of a clockgate of the respective sequential element, and identifying a remainder of input ports and input ports of a clockgate of each of the sequential elements at which the faults are not determined to be detectable by the safety mechanism based on the one or a plurality of fault relation rules.

Abstract: An emulation processor may be configured to support emulating unknown binary logic based on non-arbitrariness of the unknown binary logic. For example, an unknown binary logic signal may take the finite binary values of 0 and 1. The circuitry in the emulation processor is configured to generate and propagate outputs based on the interactions of known input binary signals with the unknown input binary signals having non-arbitrary states. The emulation processor may support the both combinational and sequential operations associated with the unknown binary logic.

Abstract: A level shifter circuit comprises a first and second path connected in parallel. The first path comprises three inverters connected in series, and the first path generates a first intermediate clock signal based on an input clock signal. The first intermediate clock signal has a first duty cycle distortion. The second path also comprises three inverters connected in series and the second path generates a second intermediate clock signal based on the input clock signal. The second intermediate clock signal has a second duty cycle distortion. A level shifter output provides an output clock signal based on a combination of the first and second intermediate clock signals. The combination of the first and second intermediate clock signals results in an averaging of the first and second duty cycle distortions in the output clock signal.

Abstract: A physical layer (PHY) device comprises a phase interpolator to generate a set of sampler clocks. A sampler of the PHY device samples a calibration data pattern based on the set of sampler clocks. A data alignment system of the PHY device performs a coarse calibration and a fine calibration on the sampler clock signals. During the coarse calibration, the data alignment system moves the sampler clock signals earlier or later in time relative to the sampled data based on a first bit of the sampled data. During the fine calibration, the data alignment system moves the sampler clock signals earlier or later in time relative to the sampled data based on the first bit, a second bit, and a third bit in the sampled data.

Abstract: Aspects of the present disclosure address systems and methods for local cluster refinement for integrated circuit (IC) designs using a dynamic weighting scheme. Initial cluster definitions are accessed. The initial cluster definitions define a plurality of clusters where each cluster includes a plurality of pins. Each cluster is evaluated with respect to one or more design rule constraints. Based on the evaluation, clusters are identified from the plurality of clusters. A set of refinement candidates are generated based on the one or more clusters. A scoring function that employs a dynamic weighting scheme is used to determine a refinement quality score for each refinement candidate in the set of candidates and one or more refinement candidates are selected from among the set of refinement candidates based on respective refinement quality scores. A refined clustering solution is generated based on the selected refinement candidates.

Abstract: An approach is described for a method, system, and product for deferred merge based method for graph based analysis to reduce pessimism. According to some embodiments, the approach includes receiving design data, static and/or statistical timing analysis data, identifying cells and interconnects for performing graph based worst case timing analysis where merger of signals is deferred based on one or more conditions to reduce pessimism, and generating results thereof. Other additional objects, features, and advantages of the invention are described in the detailed description, figures, and claims.

Abstract: An approach is described for a method, system, and product, the approach includes setting up a sorted unique value array, receiving a user input, receiving data for polar encoding, generating an output array based on locations determined using the sorted unique value array and values determined using the data for polar encoding, and transmit data using 5g wireless communication protocol that has been processed by polar encoding.