Abstract: Circuit design development using block design containers can include opening, within a development environment generated by an Electronic Design Automation (EDA) system, a top-level block design specifying a circuit design and inserting, within the top-level block design using the EDA system, a block design container. The block design container specifies a source block design used as a sub-design within the top-level block design.

Abstract: Resource estimation for implementing circuit designs in an integrated circuit (IC) can include detecting, using computer hardware, a plurality of Intellectual Property (IP) cores within a circuit design, extracting, using the computer hardware and from the circuit design, parameterizations for the plurality of IP cores as used in the circuit design, and selecting, using the computer hardware, a machine learning (ML) model corresponding to each IP core, wherein each selected ML model is specific to the corresponding IP core. Each selected ML model can be provided input specifying a target IC for the circuit design and the parameterization for the corresponding IP core. An estimate of resource usage for the circuit design can be generated by executing the selected ML models. The resource usage specifies an amount of resources of the target IC needed to implement the circuit design in the target IC.

Abstract: Approaches for post-synthesis insertion of debug cores include a programmed processor inputting data that identify signals of a synthesized circuit design to be probed and determining whether or not debug cores and interfaces needed to probe the signals are absent from the circuit design. The programmed processor creates, in response to determining that the debug cores and interfaces are absent, the debug cores and interfaces in the circuit design. The programmed processor couples the debug cores and interfaces to the signals in the circuit design and synthesizes the debug cores and interfaces created in the circuit design to create a modified circuit design. The method includes generating a circuit definition from the modified circuit design by the programmed processor, and implementing a circuit that operates according to the circuit definition.

Abstract: Apparatus and associated methods relate to controlling synthesis of an electronic design by tagging an intellectual property (IP) parameter such that changes to the tagged design parameter do not result in the entire electronic design being re-synthesized. In an illustrative example, a circuit may contain a number of hard blocks, which may be configured using an HDL design tool. Whenever an IP parameter of an HDL design is updated, place and route may go out of date, which may require the entire design to be re-synthesized. By tagging certain IP parameters with at least one tag, changes or alterations to these tagged IP parameters will not cause synthesis to occur (for output products associated with the at least one tag). Avoiding re-synthesis may save significant time for designers by performing re-synthesis only when necessary.

Abstract: Implementing hardware accelerators using programmable integrated circuits may include performing, using a processor, a design flow on a static circuit design. The static circuit design may specify a region reserved for a hardware accelerator and a static region comprising interface circuitry configured to couple the hardware accelerator with an external node. The design flow may generate an implemented static circuit design. Metadata describing the interface circuitry may be generated using a processor. A device support archive including the implemented static circuit design and the metadata may be written, using the processor, to a computer readable storage medium.

Abstract: A method of implementing a circuit design in a circuit design tool for configuration in a programmable integrated circuit (IC) connected to components on a circuit board is described. The method includes processing a first file associated with the circuit board to obtain descriptions of circuit board interfaces of the components on the circuit board; displaying a graphic user interface (GUI) of the circuit design tool to connect a circuit board interface described in the first file with a circuit design interface in the circuit design; generating physical constraints on the circuit design interface with respect to input/outputs of the programmable IC described as being connected to the selected circuit board interface; and generating a bitstream to configure the programmable IC. The bitstream includes a physical implementation of the circuit design satisfying the physical constraints.