Abstract:
Control of a reconfigurable platform can include determining, by a host computer, an interface universally unique identifier (UUID) of an interface of platform circuitry implemented on an accelerator, wherein the accelerator is communicatively linked to the host computer. An electronic request to run a partition design on the accelerator is received by the host computer. In response to the electronic request, the host computer determines an interface UUID for an interface of the partition design and determines compatibility of the partition design with the platform circuitry based on a comparison of the interface UUID of the partition design with the interface UUID of the platform circuitry. The partition design is implemented on the accelerator in response to determining that the partition design is compatible with the platform circuitry.
Abstract:
Approaches are disclosed for testing a module of a circuit design. The module is simulated a first time using a testbench on a programmed processor. Event data is captured to a first file during the simulating. For each event, the event data describes a signal identifier, an associated signal value, and an associated timestamp. The event data of the first file is transformed into a hardware description language (HDL) replay module.
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:
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:
Using scalable scribe regions for implementing a user circuit design includes generating a scribe region having a plurality of contours for a static top design of a circuit design for an integrated circuit. The static top design is configured to integrate with a user circuit design in the integrated circuit. Each contour defines a different size of the scribe region having a boundary that extends outward in at least one direction from a boundary of a floorplan area of the static top design on the IC. The scribe region can be translated into design constraints defining the plurality of contours of the scribe region and restrict placement of components of the user circuit design within the scribe region as sized according to a selected contour. The static top design and the plurality of design constraints can be stored in a memory for use in implementing the user circuit design.
Abstract:
Using scalable scribe regions for implementing a user circuit design includes generating a scribe region having a plurality of contours for a static top design of a circuit design for an integrated circuit. The static top design is configured to integrate with a user circuit design in the integrated circuit. Each contour defines a different size of the scribe region having a boundary that extends outward in at least one direction from a boundary of a floorplan area of the static top design on the IC. The scribe region can be translated into design constraints defining the plurality of contours of the scribe region and restrict placement of components of the user circuit design within the scribe region as sized according to a selected contour. The static top design and the plurality of design constraints can be stored in a memory for use in implementing the user circuit design.
Abstract:
Approaches for verifying connectivity of signals in a circuit design include generating a configured version of the circuit design based on input parameter values. The configured version specifies connections from source pins of ports of circuit blocks of the configured version to destination pins of ports of circuit blocks. Expected source-destination connections between source pins and destination pins of the ports of the circuit blocks of the configured version are determined from the input parameter values. A connectivity checker that includes HDL code is generated based on the expected source-destination connections. For each of the expected source-destination connections, the HDL code forces a first signal value on a source pin of the expected source-destination connection in the configured version of the circuit design and determines whether or not a second signal value at a destination pin of the expected source-destination connection matches the first signal value.
Abstract:
Methods for generating a circuit design are disclosed. A plurality of cells is instantiated in the circuit design in response to user input. The set of interface parameters of each cell is arranged into a hierarchy of interface levels as indicated by an interface model corresponding to the cell. For each of the interface levels, values of the sets of interface parameters of cells included in the interface level are respectively propagated to other cells directly connected to the cell. In response to propagating a value of an interface parameter from another cell of the plurality of cells to the cell and the cell having a value of the corresponding interface parameter that is different from the propagated value, a value for the corresponding interface parameter of the cell is determined using a respective propagation function associated with the corresponding interface level.