Abstract: Techniques for specifying and implementing a software application targeted for execution on a multiprocessor array (MPA). The MPA may include a plurality of processing elements, supporting memory, and a high bandwidth interconnection network (IN), communicatively coupling the plurality of processing elements and supporting memory. In some embodiments, software code may specify one or more cell definitions that include: program instructions executable to perform a function and one or more language constructs. The software code may further instantiate first, second, and third cell instances, each of which is an instantiation of one of the one or more cell definitions, where the instantiation includes configuration of the one or more language constructs such that: the first and second cell instances communicate via respective communication ports and the first and second cell instances are included in the third cell instance.

Abstract: A multiprocessor system and method for swapping applications executing on the multiprocessor system are disclosed. The plurality of applications may include a first application and a plurality of other applications. The first application may be dynamically swapped with a second application. The swapping may be performed without stopping the plurality of other applications. The plurality of other applications may continue to execute during the swapping to perform a real-time operation and process real-time data. After the swapping, the plurality of other applications may continue to execute with the second application, and at least a subset of the plurality of other applications may communicate with the second application to perform the real time operation and process the real time data.

Abstract: A multiprocessor system and method for swapping applications executing on the multiprocessor system are disclosed. The plurality of applications may include a first application and a plurality of other applications. The first application may be dynamically swapped with a second application. The swapping may be performed without stopping the plurality of other applications. The plurality of other applications may continue to execute during the swapping to perform a real-time operation and process real-time data. After the swapping, the plurality of other applications may continue to execute with the second application, and at least a subset of the plurality of other applications may communicate with the second application to perform the real time operation and process the real time data.

Abstract: Techniques for specifying and implementing a software application targeted for execution on a multiprocessor array (MPA). The MPA may include a plurality of processing elements, supporting memory, and a high bandwidth interconnection network (IN), communicatively coupling the plurality of processing elements and supporting memory. In some embodiments, software code may specify one or more cell definitions that include: program instructions executable to perform a function and one or more language constructs. The software code may further instantiate first, second, and third cell instances, each of which is an instantiation of one of the one or more cell definitions, where the instantiation includes configuration of the one or more language constructs such that: the first and second cell instances communicate via respective communication ports and the first and second cell instances are included in the third cell instance.

Abstract: Techniques for specifying and implementing a software application targeted for execution on a multiprocessor array (MPA). The MPA may include a plurality of processing elements, supporting memory, and a high bandwidth interconnection network (IN), communicatively coupling the plurality of processing elements and supporting memory. In some embodiments, software code may include first program instructions executable to perform a function. In some embodiments, the software code may also include one or more language constructs that are configurable to specify one or more one or more parameter inputs. In some embodiments, the one or more parameter inputs are configurable to specify a set of hardware resources usable to execute the software code. In some embodiments, the hardware resources include multiple processors and may include multiple supporting memories.

Abstract: A multiprocessor system and method for swapping applications executing on the multiprocessor system are disclosed. The plurality of applications may include a first application and a plurality of other applications. The first application may be dynamically swapped with a second application. The swapping may be performed without stopping the plurality of other applications. The plurality of other applications may continue to execute during the swapping to perform a real-time operation and process real-time data. After the swapping, the plurality of other applications may continue to execute with the second application, and at least a subset of the plurality of other applications may communicate with the second application to perform the real time operation and process the real time data.

Abstract: A multiprocessor system and method for swapping applications executing on the multiprocessor system are disclosed. The plurality of applications may include a first application and a plurality of other applications. The first application may be dynamically swapped with a second application. The swapping may be performed without stopping the plurality of other applications. The plurality of other applications may continue to execute during the swapping to perform a real-time operation and process real-time data. After the swapping, the plurality of other applications may continue to execute with the second application, and at least a subset of the plurality of other applications may communicate with the second application to perform the real time operation and process the real time data.

Abstract: Techniques for specifying and implementing a software application targeted for execution on a multiprocessor array (MPA). The MPA may include a plurality of processing elements, supporting memory, and a high bandwidth interconnection network (IN), communicatively coupling the plurality of processing elements and supporting memory. In some embodiments, software code may include first program instructions executable to perform a function. In some embodiments, the software code may also include one or more language constructs that are configurable to specify one or more one or more parameter inputs. In some embodiments, the one or more parameter inputs are configurable to specify a set of hardware resources usable to execute the software code. In some embodiments, the hardware resources include multiple processors and may include multiple supporting memories.

Abstract: Techniques for specifying and implementing a software application targeted for execution on a multiprocessor array (MPA). The MPA may include a plurality of processing elements, supporting memory, and a high bandwidth interconnection network (IN), communicatively coupling the plurality of processing elements and supporting memory. In some embodiments, software code may include first program instructions executable to perform a function. In some embodiments, the software code may also include one or more language constructs that are configurable to specify one or more parameter inputs. In some embodiments, the one or more parameter inputs are configurable to specify a set of hardware resources usable to execute the software code. In some embodiments, the hardware resources include multiple processors and may include multiple supporting memories.

Abstract: A multiprocessor system and method for swapping applications executing on the multiprocessor system are disclosed. The plurality of applications may include a first application and a plurality of other applications. The first application may be dynamically swapped with a second application. The swapping may be performed without stopping the plurality of other applications. The plurality of other applications may continue to execute during the swapping to perform a real-time operation and process real-time data. After the swapping, the plurality of other applications may continue to execute with the second application, and at least a subset of the plurality of other applications may communicate with the second application to perform the real time operation and process the real time data.

Abstract: A multiprocessor system and method for swapping applications executing on the multiprocessor system are disclosed. The plurality of applications may include a first application and a plurality of other applications. The first application may be dynamically swapped with a second application. The swapping may be performed without stopping the plurality of other applications. The plurality of other applications may continue to execute during the swapping to perform a real-time operation and process real-time data. After the swapping, the plurality of other applications may continue to execute with the second application, and at least a subset of the plurality of other applications may communicate with the second application to perform the real time operation and process the real time data.

Abstract: Techniques for specifying and implementing a software application targeted for execution on a multiprocessor array (MPA). The MPA may include a plurality of processing elements, supporting memory, and a high bandwidth interconnection network (IN), communicatively coupling the plurality of processing elements and supporting memory. In some embodiments, software code may include first program instructions executable to perform a function. In some embodiments, the software code may also include one or more language constructs that are configurable to specify one or more one or more parameter inputs. In some embodiments, the one or more parameter inputs are configurable to specify a set of hardware resources usable to execute the software code. In some embodiments, the hardware resources include multiple processors and may include multiple supporting memories.

Abstract: Techniques for specifying and implementing a software application targeted for execution on a multiprocessor array (MPA). The MPA may include a plurality of processing elements, supporting memory, and a high bandwidth interconnection network (IN), communicatively coupling the plurality of processing elements and supporting memory. In one embodiment, software code may include first program instructions executable to perform a function. In this embodiment, the software code may also include one or more language constructs that are configurable to specify one or more communication ports and one or more parameter inputs. In this embodiment, the one or more communication ports are configurable to specify communication with other software code. In this embodiment, the one or more parameter inputs are configurable to specify a set of hardware resources usable to execute the software code. In this embodiment, the hardware resources include multiple processors and may include multiple supporting memories.

Abstract: A multiprocessor system and method for swapping applications executing on the multiprocessor system are disclosed. The plurality of applications may include a first application and a plurality of other applications. The first application may be dynamically swapped with a second application. The swapping may be performed without stopping the plurality of other applications. The plurality of other applications may continue to execute during the swapping to perform a real-time operation and process real-time data. After the swapping, the plurality of other applications may continue to execute with the second application, and at least a subset of the plurality of other applications may communicate with the second application to perform the real time operation and process the real time data.

Abstract: A multiprocessor system and method for swapping applications executing on the multiprocessor system are disclosed. The plurality of applications may include a first application and a plurality of other applications. The first application may be dynamically swapped with a second application. The swapping may be performed without stopping the plurality of other applications. The plurality of other applications may continue to execute during the swapping to perform a real-time operation and process real-time data. After the swapping, the plurality of other applications may continue to execute with the second application, and at least a subset of the plurality of other applications may communicate with the second application to perform the real time operation and process the real time data.

Abstract: A multiprocessor system and method for swapping applications executing on the multiprocessor system are disclosed. The plurality of applications may include a first application and a plurality of other applications. The first application may be dynamically swapped with a second application. The swapping may be performed without stopping the plurality of other applications. The plurality of other applications may continue to execute during the swapping to perform a real-time operation and process real-time data. After the swapping, the plurality of other applications may continue to execute with the second application, and at least a subset of the plurality of other applications may communicate with the second application to perform the real time operation and process the real time data.

Abstract: Techniques for specifying and implementing a software application targeted for execution on a multiprocessor array (MPA). The MPA may include a plurality of processing elements, supporting memory, and a high bandwidth interconnection network (IN), communicatively coupling the plurality of processing elements and supporting memory. In one embodiment, software code may include first program instructions executable to perform a function. In this embodiment, the software code may also include one or more language constructs that are configurable to specify one or more communication ports and one or more parameter inputs. In this embodiment, the one or more communication ports are configurable to specify communication with other software code. In this embodiment, the one or more parameter inputs are configurable to specify a set of hardware resources usable to execute the software code. In this embodiment, the hardware resources include multiple processors and may include multiple supporting memories.

Abstract: Methods and systems for electronic design automation includes clustering objects into more manageable numbers of objects. Clustering is optionally performed to reduce or minimize interconnections between clusters. Clustering optionally includes multi-level clustering. The clusters, and any unclustered objects, are floorplanned. Floorplanning positions the clusters so as to reduce or minimize the length of interconnections between the clusters. Objects within the clusters are then placed within the area assigned to the corresponding clusters. Placement optionally utilizes placement-based wire load models to accurately predict timing issues. A bottoms-up procedure is optionally performed during clustering and/or floorplanning, whereby area and/or size constraints of clustered objects are taken into account.

Abstract: Methods and systems for electronic design automation includes clustering objects into more manageable numbers of objects. Clustering is optionally performed to reduce or minimize interconnections between clusters. Clustering optionally includes multi-level clustering. The clusters, and any unclustered objects, are floorplanned. Floorplanning positions the clusters so as to reduce or minimize the length of interconnections between the clusters. Objects within the clusters are then placed within the area assigned to the corresponding clusters. Placement optionally utilizes placement-based wire load models to accurately predict timing issues. A bottoms-up procedure is optionally performed during clustering and/or floorplanning, whereby area and/or size constraints of clustered objects are taken into account.

Abstract: Electronic design automation (“EDA) methods and systems for structured ASICs include accessing or receiving objects representative of source code for a structured ASIC. The objects are flattened to remove hierarchies associated with the source code, such as functional RTL hierarchies. The flattened objects are clustered to accommodate design constraints associated with the structured ASIC. The clustered objects are floorplanned within a design area of the structured ASIC. The objects are then placed within the portions of the design areas assigned to the corresponding clusters. The objects optionally include logic objects and one or more memory objects and/or proprietary objects, wherein the one or more memory objects and/or proprietary objects are placed concurrently with the logic objects.