Abstract: Automatically generating a hardware image based on programming model types includes determining by a design tool, types of programming models used in specifications of blocks of a circuit design, in response to a user control input to generate a hardware image to configure a programmable integrated circuit (IC). The design tool can generate a model-type compiler script for each of the types of programming models. Each compiler script initiates compilation of blocks having specifications based on one of the types of programming model into an accelerator representation. The design tool can generate a build script configured to execute the compiler scripts and link the accelerator representations into linked accelerator representations. Execution of the build script builds a hardware image from the linked accelerator representations for configuring the programmable IC to implement a circuit according to the circuit design.

Abstract: The technology relates to an integrated circuit (IC) package in which an interconnection interface chiplet and/or interconnection interface circuit are relocated, partitioned, and/or decoupled from a main or core IC die and/or high-bandwidth memory (HBM) components in an integrated component package.

Abstract: A system and a method are disclosed for emulating a design of an electronic circuit. One or more field programmable gate array (FPGA) overlays are programmed to implement a first set of logic elements of the design of the electronic circuit. A second set of logic elements of the design of the electronic circuit is implemented in one or more FPGAs. The FPGA overlays implementing the first set of logic elements and the FPGAs implementing the second set of logic elements are interconnected to each other. The design of the electronic circuit is then tested using the interconnected FPGA overlays and the FPGAs.

Abstract: Systems and methods are provided for a turnkey modular printed circuit board enclosure that is generated using a template generator. The template generator accepts a user input comprising an enclosure parameter, based on which a manufacturing file may be generated. The manufacturing file may be provided to a fabricator for fabricating the enclosure or the manufacturing file may be modified in a printed circuit board design environment to incorporate a printed circuit board into the enclosure. The printed circuit board may be a separate printed circuit board that is inserted into the enclosure or it may be embedded in a face of the enclosure.

Abstract: Systems and methods for programming field programmable gate array (FPGA) devices are provided. A trained model for a deep learning process is obtained and converted to design abstraction (DA) code defining logic block circuits for programming an FPGA device. Each of these logic block circuits represents one of a plurality of modules that executes a processing step between different layers of the deep learning process.

Abstract: An integrated circuit designing system includes a non-transitory storage medium, the non-transitory storage medium being encoded with a layout of a standard cell corresponding to a predetermined manufacturing process, the predetermined manufacturing process having a nominal minimum pitch of metal lines along a predetermined direction, the layout of the standard cell having a cell height along the predetermined direction, and the cell height is a non-integral multiple of the nominal minimum pitch. The integrated circuit designing system further includes a hardware processor communicatively coupled with the non-transitory storage medium and configured to execute a set of instructions for generating an integrated circuit layout based on the layout of the standard cell and the nominal minimum pitch.

Abstract: A network interface device comprises a plurality of components configured to process a flow of data one after another. A control component is configured to provide one or more control messages in said flow, said one or more control message being provided to said plurality of components one after another such that a configuration of one or more of said components is changed.

Abstract: Implementing an application using a plurality of data processing engines (DPEs) can include, in a first pass, mapping, using computer hardware, a data flow graph onto an array of DPEs by minimizing direct memory access (DMA) circuit usage and memory conflicts in the array of DPEs and, in response to determining that a mapping solution generated by the first pass requires an additional DMA circuit not specified by the data flow graph, inserting, using the computer hardware, additional buffers into the data flow graph. In a second pass, the additional buffers can be mapped, using the computer hardware, onto the array of DPEs by minimizing the memory conflicts in the array of DPEs.

Abstract: A memory die includes a first bank including first memory cells; a second bank including second memory cells; a first local processor connected with first bank local input/output lines through which first local bank data of the first bank are transmitted, and configured to execute a first local calculation on the first local bank data; a second local processor connected with second bank local input/output lines through which second local bank data of the second bank are transmitted, and configured to execute a second local calculation on the second local bank data; and a global processor configured to control the first bank, the second bank, the first local processor, and the second local processor and to execute a global calculation on a first local calculation result of the first local calculation and a second local calculation result of the second local calculation.

Abstract: The technology relates to a system on chip (SoC). The SoC may include a network on layer including one or more routers and an application specific integrated circuit (ASIC) layer bonded to the network layer, the ASIC layer including one or more components. In some instances, the network layer and the ASIC layer each include an active surface and a second surface opposite the active surface. The active surface of the ASIC layer and the second surface of the network may each include one or more contacts, and the network layer may be bonded to the ASIC layer via bonds formed between the one or more contacts on the second surface of the network layer and the one or more contacts on the active surface of the ASIC layer.

Abstract: A unified data model for creating a circuit design for a heterogeneous integrated circuit is provided. The unified data model is stored as a data structure in computer hardware. The unified data model includes a unified netlist specifying the circuit design and a unified device model representing the heterogeneous integrated circuit. The unified netlist includes netlist objects configured to communicate over bitwise connections and network connections representing packet-based communications. The unified netlist may be mapped to the unified device model using computer hardware. Using the computer hardware, at least a portion of the device model may be displayed in coordination with at least a portion of the unified netlist mapped thereto.

Abstract: Systems or methods of the present disclosure may facilitate meeting connectivity demands between the dies of the modularized integrated circuits. Such an integrated circuit system may include a first die of programmable fabric circuitry that is communicatively coupled to a second die of modular periphery intellectual property (IP) tile via a modular interface. The modular interface may enable communication between a first microbump of the first die and a second microbump of the second die using a time-division multiplexing (TDM) technique. The modular interface may also enable communication between the first microbump and the second microbump using a wire-to-wire connection that does not comprise the TDM technique.

Abstract: A method, system and computer program product, the method comprising: obtaining information of a circuit to be designed comprising two blocks, the information comprising: block components of the two blocks, information of connectors connecting the two blocks, information of a plurality of internal nets, each internal net connecting components within a same block, information of a plurality of external nets, each external net connecting a component to a connector; automatically generating a design of a merged block, the design comprising: a plurality of circuit components, comprising circuit components of the first block and the second block, each circuit component having a unique designator and an association to an original component; a plurality of internal circuit nets comprising a plurality of internal nets, each internal net associated with a unique designator and an association to a respective internal net designator, and a plurality of combined circuit nets based on the plurality of external nets, each

Abstract: A power gating system may include a logic circuit area configured to block a supply voltage from being supplied to a plurality of logic gates, when a test power-down mode is enabled; and a plurality of error detection circuits configured to detect logic gates whose output nodes float, among the plurality of logic gates, when the test power-down mode is activated.

Abstract: Technologies for dynamically managing resources in disaggregated accelerators include an accelerator. The accelerator includes acceleration circuitry with multiple logic portions, each capable of executing a different workload. Additionally, the accelerator includes communication circuitry to receive a workload to be executed by a logic portion of the accelerator and a dynamic resource allocation logic unit to identify a resource utilization threshold associated with one or more shared resources of the accelerator to be used by a logic portion in the execution of the workload, limit, as a function of the resource utilization threshold, the utilization of the one or more shared resources by the logic portion as the logic portion executes the workload, and subsequently adjust the resource utilization threshold as the workload is executed. Other embodiments are also described and claimed.

Abstract: The disclosed approaches involve evaluating by a design tool executing on a computer system, a plurality of nets of a circuit design for individual levels of suitability for cutting each net into a cut net that crosses a partition boundary between a plurality of partitions of an integrated circuit (IC) device. The design tool partitions the circuit design. The partitioning includes cutting one or more of the nets into cut nets and favoring the cutting of ones of the plurality of nets having a greater level of suitability over others of the plurality of nets having a lesser level of suitability. The design tool assigns each cut net to one group of a plurality of groups and inserts respective time-division multiplexing circuitry on each group of cut nets. The design toon then places the circuit design on the IC device.

Abstract: Systems and methods for determining a configuration for a microarchitecture are described herein. An example system includes a proposal generator to generate a first candidate configuration of parameters for the microarchitecture, a machine learning model to process the first candidate configuration of parameters to output estimated performance indicators for the microarchitecture, an uncertainty checker to determine whether the estimated performance indicators are reliable, and a performance checker. In response to a determination that the estimated performance indicators are reliable, the performance checker is to determine whether the estimated performance indicators have improved toward a target. Further, if the estimated performance indicators have improved, the performance checker is to store the first candidate configuration of parameters in a memory as a potential solution for a microarchitecture without performing a full simulation on the first candidate configuration of parameters.

Abstract: An example method for compiling by a processor-based system includes obtaining a netlist of an application, the netlist containing program nodes and respective edges between the program nodes, the application to be implemented on a device comprising an array of data processing engines; generating a global mapping of the program nodes based on a representation of the array of data processing engines; generating a detailed mapping of the program nodes based on the global mapping, the detailed mapping assigning input/outputs of programmable logic (PLIOs) of the device to channels in an interface of the array of data processing engines, the detailed mapping further assigning buffers of the application to individual memory banks in the array of data processing engines; and translating the detailed mapping to a file.

Abstract: An invention is disclosed for systems, methods, processes, and products, including but not limited to, one that provides for user communication and interaction with as well as access to resources available on or via a computing device. An embodiment of the invention includes providing a digital resource gathering and dissemination system, method, or process that can accommodate digital resources of interest for heterogeneous groups and communities of online users for the same topic, demographic, or some other categories as provided by a particular classification scheme. Such a system, method, or process also provides a more reliable or otherwise representative selection of digital resources of interest to the population as a whole.

Abstract: Creating an adaptable dynamic region for hardware acceleration can include receiving a first kernel for inclusion in a circuit design for an integrated circuit of an accelerator platform. The circuit design includes a dynamic design corresponding to a dynamic region of programmable circuitry in the integrated circuit that couples to a static region of the programmable circuitry. The first kernel can be included in the within the dynamic design. A global resource used by the first kernel can be determined. An interconnect architecture for the dynamic design can be constructed based on the global resource used by the first kernel.

Abstract: In one embodiment, an integrated circuit cell includes a first circuit component and a second circuit component. The first circuit component includes fin field-effect transistors (finFETs) formed in a high fin portion of the integrated circuit cell, the high fin portion of the integrated circuit including a plurality of fin structures arranged in rows. The second circuit component that includes finFETs formed in a less fin portion of the integrated circuit cell, the less fin portion of the integrated circuit including a lesser number of fin structures than the high fin portion of the integrated circuit cell.

Abstract: Provided is for reducing access latency. A high-level synthesis device includes feature quantity obtaining unit and implementation determination unit. Feature quantity obtaining unit obtains an access feature quantity including a feature quantity relating to communication between a plurality of modules by analyzing an access pattern in communication between the plurality of modules. Implementation determination unit determines an implementation method for communicating between the plurality of modules based on the obtained access feature quantity.

Abstract: A method for designing a system on a target device includes mapping a high-level description of the system onto a model of a target device prior to generating a register transfer level description of the system. A visual representation of the mapping is generated.

Abstract: In an embodiment, a method is disclosed providing an improvement in speed and efficiency of programming field programmable gate array (FPGA) digital electronic integrated circuits (ICs) or other ICs that support partial reconfiguration, a particular FPGA having a plurality of reconfigurable partitions and a plurality of primitive variations configurable in each of the reconfigurable partitions, the method comprising: before writing configuration bitstreams to the particular FPGA, compiling and storing, using digital storage, a plurality of primitive bitstreams for a plurality of different primitive functions that can be written to and implemented on the particular FPGA; receiving input in a graphical user interface to select and connect graphical blocks representing functional logic of an algorithm to implement on the particular FPGA, the graphical blocks relating to reconfigurable logic; automatically determining a subset of the primitive functions comprising particular primitive functions that correspond to

Abstract: A method for circuit design automation includes appending a non-synthesizable input having a unique identifier to HDL code that specifies a physical input of the circuit. For the physical components in the circuit to which a signal from the physical input is to propagate, corresponding non-synthesizable components are appended, having respective identifiers assigned responsively to the unique identifier of the non-synthesizable input, to the HDL code that specifies the physical components. The design is verified by simulating operation of the circuit using the HDL code, including both the physical and non-synthesizable inputs and components. After verifying the design, a netlist synthesis tool automatically generates a netlist of the circuit including the physical inputs and components while omitting the non-synthesizable inputs and components.

Abstract: In a first mode, a control circuit can implement a circuit design with storage circuits in an integrated circuit by programming configuration memory bits via configuration resources. The storage circuits can be accessed for read and write operations during execution of the implemented circuit design with the integrated circuit. In a second mode, the control circuit can perform read and write access operations at the storage circuits via configuration resources or via an interface circuit and interconnect resources that are allocated to the circuit design implementation. Typical applications for performing access operations at the storage circuits include fault injection and observation, statistical monitoring of the circuit design, initialization and the distribution of certain signals such as reset signals, event sampling, just to name a few.

Abstract: Methods and apparatus relating generally to synthesis are described. In such a method, a directed graph for a circuit design is generated. A cascaded chain is identified in the directed graph with a timing violation. A pipeline register stage of the cascaded chain is moved (or added) to remove the timing violation. The circuit design is transformed to provide a netlist including the pipeline register stage.

Abstract: The present disclosure relates to a method for generating an overall netlist (50) comprising the following steps: providing a first PLD code (24) as first netlist (26), wherein the first PLD code (24) has at least one first functional block (28), providing a second PLD code (30), wherein the second PLD code (30) has at least one second functional block (32) for alternative use instead of a corresponding first functional block (28), providing a switch PLD code (40) having at least one switch (42) assigned to the at least one first functional block (28) for connecting the first functional block (28) assigned to the switch (42), connecting the at least one second functional block (32) to one switch from the at least one switch (42) as an alternative to the corresponding first functional block (28), implementing at least one switch driving signal (44) for the at least one second functional block (32), wherein the at least one switch driving signal (44) is assigned to the corresponding switch (42) for connecting t

Abstract: Utilities for use in generation of a single executable (e.g., single set of machine code) compatible with processors of multiple different architectures and/or versions with reduced levels of code bloating, no or limited changes to the source code, no or limited special code and/or data sections in the executable, and the like. Specifically, a compiler can selectively generate machine code for each of one or more particular C++ functions for each of a plurality of different processor versions and/or architectures in a “multi-version mode” or “multi-architecture mode” to allow such functions to perform better under different processor versions or architectures, avoid the need to maintain multiple entire object code sets for different processor versions or architectures, and allow for maintenance of a substantially complete C++ code mechanism.

Abstract: A method for determining power consumed by a circuit is described that includes identifying a redundant frame including one of a clock toggle or a data toggle that is not propagated to an output pin of the circuit and identifying a non-redundant frame comprising a clock toggle and a data toggle that are propagated to the output pin of the circuit. Further, the method includes determining an ideal power consumed by the circuit during the non-redundant frame and providing a feedback to the user, the feedback including the redundant frame, a source of the redundant frame, and the ideal power consumed by the circuit during the non-redundant frame.

Abstract: A programmable logic array (PLA) is disclosed employing programming logic tile (PLT), System On Chip (SOC) interface bus, Input Output (IO) blocks and Logic Processing Blocks (LPB). SOC processors using SOC interface bus program PLT successively using different configuration memory bank values to realize a logic not limited by the PLT resource counts. Configuration memory blocks comprising of multiple configuration memory banks and configuration programming control logic remove logic processing penalty due to configuration delays. PLT comprises of Programmable Logic Cells (PLC), Programmable Logic Interface (PLY), Embedded Array Blocks (EAB) and configuration memory block. PLA comprises of PLT, IO blocks, SOC interface bus and LPB. PLA accelerates user functionality in as SOC. IO blocks are used to stream data from other SOC components. LPB use PLT to accelerate user specific functionality.

Abstract: A computer implemented method for determining performance of a semiconductor device is provided. The method includes providing a technology computer aided design data set corresponding to nominal performance of the semiconductor device, identifying a plurality of process variation sources that correspond to process variations that occur during the manufacturing of the semiconductor device, generating a nominal value look-up table of electrical parameters of the semiconductor device using nominal values of each of the plurality of process variation sources, and generating a plurality of process variation look-up tables of electrical parameters of the semiconductor device using variation values corresponding to each of the plurality of process variation sources that are identified as corresponding to the semiconductor device.

Abstract: This application discloses a computing system implementing tools and mechanisms that can incorporate a security co-processor into a circuit design modeling an electronic device. The tools and mechanisms can configure the security co-processor to monitor at least a portion of the electronic device. The tools and mechanisms can generate at least one security action for the security co-processor to initiate when the security co-processor monitors the electronic device failing to conform to rules in a rules database.

Abstract: A method of circuit design may include identifying, using a processor, a timing critical path within a first look-up table structure in a circuit design and restructuring, using the processor, the first look-up table structure into a functionally equivalent second look-up table structure. The second look-up table structure may include fewer look-up tables serially coupled in the timing critical path than the first look-up table structure. The method may include placing, using the processor, the second look-up table structure and routing, using the processor, the second look-up table structure.

Abstract: A method for designing a system on a target device utilizing programmable logic devices (PLDs) includes generating options for utilizing resources on the PLDs in response to user specified constraints. The options for utilizing the resources on the PLDs are refined independent of the user specified constraints.

Abstract: Systems and methods for enhancing fixed-point operations, floating-point operations, or a combination thereof for programs implemented on an integrated circuit (IC) are provided. Portions of these operations may be shared among the operations. Accordingly, the embodiments described herein enhance these fixed-point operations, floating-point operations, or a combination thereof based upon these portions of the operations that may be shared.

Abstract: Aspects of the disclosed technology relate to techniques of combining directed self-assembly lithography and multiple patterning lithography. A coloring/grouping graph is first generated from layout data of a layout design. In the coloring/grouping graph, each coloring edge connects two nodes representing layout features that must be assigned to different masks, and each grouping/coloring edge connects two nodes representing layout features that should either be grouped together for DSA (directed-self-assembly) lithography or be assigned to different masks for multiple patterning lithography. The node groups formed by nodes connected with the coloring edges are colored. Colors of the nodes in one or more of node groups connected by the grouping/coloring edges are adjusted to convert one or more of the grouping/coloring edges into the coloring edges.

Abstract: A system for allocating field programmable gate array (FPGA) resources, comprises a plurality of FPGAs operable to implement one or more pipeline circuits; and one or more processors operable to determine the size of a set of data to be processed, determine an amount of time available to process the data set, determine an operational clock speed for the plurality of FPGAs, determine, based at least in part on the determined size of the set of data, the determined amount of time, and the determined operational clock speed, a number of FPGAs to allocate to process the set of data within the determined amount of time, and allocate at least the determined number of the plurality of FPGAs to process the set of data.

Abstract: A method is disclosed for defining an integrated circuit. The method includes generating a digital data file that includes both electrical connection information and physical topology information for a number of circuit components. The method also includes operating a computer to execute a layout generation program. The layout generation program reads the electrical connection and physical topology information for each of the number of circuit components from the digital data file and automatically creates one or more layout structures necessary to form each of the number of circuit components in a semiconductor device fabrication process, such that the one or more layout structures comply with the physical topology information read from the digital data file. The computer is also operated to store the one or more layout structures necessary to form each of the number of circuit components in a digital format on a computer readable medium.

Abstract: Methods and circuits are disclosed for testing a partial circuit design including circuit modules having a set of ports configured to be driven by signals from ports of one or more circuits omitted from the partial circuit. The set of ports are identified by identifying ports that are not connected by a net to another port or input/output (I/O) pin in the circuit design and that form inputs to slave circuits in the circuit modules. A traffic generator circuit is added to the partial design to form a test circuit design. The traffic generator circuit is configured to provide to the set of ports respective input data signals having a pattern consistent with master-to-slave communication. Operation of a test circuit design is modeled. A set of data signals generated by the circuit modules during the modeled operation of the test circuit design is captured and stored.

Abstract: A method for designing a system on a target device is disclosed. A partition in the system with a plurality of instances from an extraction netlist is identified. Synthesis optimizations are performed on the partition to generate a synthesis optimization solution. The synthesis optimization solution is applied to the plurality of instances in the system.

Abstract: Methods and systems are described for placing arithmetic operators on a programmable integrated circuit device (e.g., a PLD). Placement of arithmetic operators of a data flow graph in one of multiple regions (e.g., a region of DSP circuitry blocks or a region of logic fabric circuitry) on the programmable integrated circuitry device may be determined (e.g., randomly). A score related to the performance of the graph (e.g., a score related to data flow graph routing delays or area consumed by the data flow graph) may be determined and this process may be repeated after one of the arithmetic operators of the data flow graph is moved. The placement of arithmetic operators that corresponds to the best value for the score related to the performance of the data flow graph may be stored. Accordingly, more arithmetic operators may be included on a programmable integrated device than in conventional devices.

Abstract: A method for designing a system to be implemented on a target device includes generating a register transfer language (RTL) representation of the system from a description of the system without pipelined delays. The RTL representation of the system includes pipelined delays to facilitate timing of the system as implemented on a target device identified by a designer.

Abstract: An enhanced field programmable gate-array (FPGA) incorporates one or more programmable networks-on-chip (NoCs) or NoC components integrated within the FPGA fabric. This NoC interconnect augments the existing FPGA interconnect. In one embodiment, the NoC is used as system-level interconnect to connect compute and communication modules to one another and integrate large systems on the FPGA. The NoC components include a “fabric port”, which is a configurable interface that bridges both data width and frequency between the embedded NoC routers and the FPGA fabric components such as logic blocks, block memory, multipliers, processors or I/Os. Finally, the FPGA design flow is modified to target the embedded NoC components either manually through designer intervention, or automatically.

Abstract: One or more physical RCDs (PRCDs) are shared between one or more workloads in one or more virtual computing environments. Example PRCD sharing operations may include: (1) providing a virtual RCD (VRCD) for one of the workloads, the VRCD being programmed with an IC design representing a hardware implementation of a software hotspot in the workload, (2) allocating one of the PRCDs to the workload by scheduling the programmed VRCD on the PRCD, (3) burning the PRCD with the IC design of the programmed VRCD so that the PRCD becomes a programmed PRCD that is capable of implementing the workload's hotspot in hardware, and (4) invoking the programmed VRCD instead of executing the hotspot as software in order to cause the programmed PRCD to implement the hotspot in hardware.

Abstract: A method for routing a design may comprise receiving a design for implementing in a target device, wherein the design includes an input/output (I/O) signal of a functional block, and wherein the functional block is assigned to a physical component of the target device; based on the design and on a routing resource graph representing the target device, calculating a route including the physical component and a physical pin of the target device; and assigning the physical pin of the target device to the I/O signal based on the calculated route.

Abstract: One or more physical RCDs (PRCDs) are shared between one or more workloads in one or more virtual computing environments. Example PRCD sharing operations may include: (1) providing a virtual RCD (VRCD) for one of the workloads, the VRCD being programmed with an IC design representing a hardware implementation of a software hotspot in the workload, (2) allocating one of the PRCDs to the workload by scheduling the programmed VRCD on the PRCD, (3) burning the PRCD with the IC design of the programmed VRCD so that the PRCD becomes a programmed PRCD that is capable of implementing the workload's hotspot in hardware, and (4) invoking the programmed VRCD instead of executing the hotspot as software in order to cause the programmed PRCD to implement the hotspot in hardware.

Abstract: Techniques for compiling an integrated circuit (IC) design with a computer-aided design tool are provided. The IC design may include multiple dynamic configuration regions that may be updated during runtime without affecting other regions on the IC device. When an IC design is compiled for an IC device, dynamic configuration regions in the IC design are identified. The computer-aided design tool may generate a partial configuration file for each identified dynamic configuration region. Two or more partial reconfiguration files may be combined to obtain a single partial configuration file that may then be used to configure respective dynamic configuration regions on the IC device.

Abstract: An apparatus and method for conducting fault sensitivity analysis of a digitally calibrated circuit design includes simulating calibration of the circuit design, simulating calibration of the circuit design with a fault in the analog portion of the circuit design, simulating the circuit design with the fault for a fault interval time period, and determining whether the fault is detectable.

Abstract: Some embodiments provide an IC with configuration context switchers. The IC includes several configurable circuits, each of which configurably performs one of several operations at any given time, based on the configuration data set that it receives at that time. The IC includes several storage circuits for storing several configuration data sets for each of the configurable circuits. The IC also includes a context switching interconnect circuit for switchably connecting the configurable circuit to different sets of storage circuits to receive different sets of configuration data sets. The context switcher includes one or more stages for re-timing the data coming from the configuration storage elements. The stages can include interconnect circuitry or storage circuitry. Some embodiments build one of the stages in the configuration data storage elements. Some embodiments encode the configuration data bits and hence utilize a decoder in the context switcher to decode the encoded configuration data.