Abstract: The ManArray core indirect VLIW processor consists of an array controller sequence processor (SP) merged with a processing element (PE0) closely coupling the SP with the PE array and providing the capability to share execution units between the SP and PE0. Consequently, in the merged SP/PE0 a single set of execution units are coupled with two independent register files. To make efficient use of the SP and PE resources, the ManArray architecture specifies a bit in the instruction format, the SP/PE-bit, to differentiate SP instructions from PE instructions. Multiple register contexts are obtained in the ManArray processor by controlling how the array SP/PE-bit in the ManArray instruction format is used in conjunction with a context switch bit (CSB) for the context selection of the PE register file or the SP register file.

Abstract: An expanded arithmetic and logic unit (EALU) with special extra functions is integrated into a configurable unit for performing data processing operations. The EALU is configured by a function register, which greatly reduces the volume of data required for configuration. The cell can be cascaded freely over a bus system, the EALU being decoupled from the bus system over input and output registers. The output registers are connected to the input of the EALU to permit serial operations. A bus control unit is responsible for the connection to the bus, which it connects according to the bus register. The unit is designed so that distribution of data to multiple receivers (broadcasting) is possible. A synchronization circuit controls the data exchange between multiple cells over the bus system. The EALU, the synchronization circuit, the bus control unit, and registers are designed so that a cell can be reconfigured on site independently of the cells surrounding it.

Abstract: A customization program for use in customizing a baseboard management controller used for monitoring operation of various computer system components is disclosed. A user interacts with the customization program to customize the baseboard management controller based on a configuration of components specified for the baseboard of the computer system. The customization program provides a user interface having a repository of icons and a design page. The icons represent various components that may be connected, either directly or indirectly, to the baseboard. The design page is used for constructing a model representing the specified configuration of components. As a user drags icons onto the design page, the model is updated to reflect selection of the components corresponding to these icons. Further, the customization program creates a configuration file that identifies and describes each of the selected components.

Abstract: A multi-processor unit includes a first domain for processing data according to first configuration information and having multiple first domain processors each connected to communication apparatus and each performing a different function of the first processing. The first domain processors include a first domain control processor for controlling the first processing of the first domain. The multi-processor unit also includes a second domain for second processing of the first processed data depending on a second domain configuration and having multiple second domain processors each connected to the communication apparatus and each performing a different function of the second processing. The second domain processors include a second domain control processor for controlling the second processing of the second domain.

Abstract: A method for translating high-level languages to reconfigurable architectures is disclosed. The method includes building a finite automaton for calculation. The method further includes forming a combinational network of a plurality of individual functions in accordance with the structure of the finite automaton. The method further includes allocating a plurality of memories to the network for storing a plurality of operands and a plurality of results.

Abstract: An integrated circuit device with a data processing block is provided, the data processing block including a plurality of operation units that are arranged in a matrix, a plurality of first wire sets that extend in a first direction in the matrix and transfer input data of each operation unit, a plurality of second wire sets that extend in a second direction in the matrix and transfer output data of each operation unit, and a plurality of switching units that are arranged at each intersection between the first and second wire sets and can select and connect any wire in the first wire sets and any wire in the second wire sets. The plurality of operation units include a plurality of types of operation units with different data paths that are suited to special-purpose, processing, with an arrangement of operation units of the same type in the first direction or the second direction being formed in at least part of the data processing block.

Abstract: A method and apparatus for providing local control of processing elements in a network of multiple context processing elements (MCPEs). A MCPE stores configuration memory contexts and maintains data of a current configuration. State information is received from at least one other MCPE. A configuration control signal is generated in response to the state information and current configuration data. A MCPE is selected in response to the configuration control signal to control the MCPE. Each MCPE in the networked array has an assigned physical and virtual identification. Data comprising control data, configuration data, an address mask, and a destination identification is transmitted to a MCPE. The transmitted address mask is applied to either a physical or a virtual identification, and to a destination identification. The masked physical or virtual identification is compared to the masked destination identification.

Abstract: A multiprocessor, parallel computer is made tolerant to hardware failures by providing extra groups of redundant standby processors and by designing the system so that these extra groups of processors can be swapped with any group which experiences a hardware failure. This swapping can be under software control, thereby permitting the entire computer to sustain a hardware failure but, after swapping in the standby processors, to still appear to software as a pristine, fully functioning system.

Abstract: A method of run-time reconfiguration of a programmable unit is provided, the programmable unit including a plurality of reconfigurable function cells in a multidimensional arrangement. An event is detected. The source of the detected event is determined, and an address of an entry in a jump table is calculated as a function of the source of the event, the entry storing a memory address of a configuration for a reconfigurable function cell. The entry is retrieved and a state of a corresponding reconfigurable cell is determined. If the reconfigurable cell is in a reconfiguration state, the reconfigurable cell is reconfigured as a function of the configuration data. If the reconfigurable cell in not in reconfiguration state, the configuration data is stored in a FIFO.

Abstract: A re-configurable, streaming vector processor (100) is provided which includes a number of function units (102), each having one or more inputs for receiving data values and an output for providing a data value, a re-configurable interconnection switch (104) and a micro-sequencer (118). The re-configurable interconnection switch (104) includes one or more links, each link operable to couple an output of a function unit (102) to an input of a function unit (102) as directed by the micro-sequencer (118). The vector processor may also include one or more input-stream units (122) for retrieving data from memory. Each input-stream unit is directed by a host processor and has a defined interface (116) to the host processor. The vector processor also includes one or more output-stream units (124) for writing data to memory or to the host processor. The defined interface of the input-stream and output-stream units forms a first part of the programming model.

Abstract: Methods for configuring a test setup that support reuse of previously defined sub-configuration parameter values without reference to individually-named sub-configuration files are provided. In these methods, each sub-configuration parameter value is automatically associated with a test case name within the test, and this association is represented in context data structures. During test configuration, for each set of sub-configuration parameter values, the user may reuse previously-defined values simply by specifying the name of the test associated with the previously-defined values. A system and a user interface for configuring a test setup are also described.

Abstract: A reconfigurable processor module comprising hybrid stacked integrated circuit (“IC”) die elements. In a particular embodiment disclosed herein, a processor module with reconfigurable capability may be constructed by stacking one or more thinned microprocessor, memory and/or field programmable gate array (“FPGA”) die elements and interconnecting the same utilizing contacts that traverse the thickness of the die. The processor module disclosed allows for a significant acceleration in the sharing of data between the microprocessor and the FPGA element while advantageously increasing final assembly yield and concomitantly reducing final assembly cost.

Abstract: Disclosed is a computer processor (300) comprising a plurality of processing units (FU_n) and communication means (302) by which the plurality of processing units are interconnected. The communication means is dynamically configurable based on a computer program to be processed such that the processing units can selectively be arranged in at least first and second distinct configurations. The first distinct configuration (eg. FIG. 5) has a larger number of the processing units arranged in parallel than the second distinct configuration (eg. FIG. 6), and the second distinct configuration has a deeper pipeline depth than the first distinct configuration.

Abstract: In networks of interconnected router nodes for forwarding data traffic along a predetermined path of the network, a method of and system for imperceptibly upgrading router node software and the like without traffic interruption through a novel preparation of upgraded software in a router while that router continues to forward data under the control of its original software, and then swapping the upgraded software for the original software without disruption.

Abstract: An integrated circuit (203) for use in processing streams of data generally and streams of packets in particular. The integrated circuit (203) includes a number of packet processors (307, 313, 303), a table look up engine (301), a queue management engine (305) and a buffer management engine (315). The packet processors (307, 313, 303) include a receive processor (421), a transmit processor (427) and a risc core processor (401), all of which are programmable. The receive processor (421) and the core processor (401) cooperate to receive and route packets being received and the core processor (401) and the transmit processor (427) cooperate to transmit packets. Routing is done by using information from the table look up engine (301) to determine a queue (215) in the queue management engine (305) which is to receive a descriptor (217) describing the received packet's payload.

Abstract: A method and structure for an integrated circuit is disclosed. The invention includes a plurality of logic cores, a plurality of local hubs connected to said logic cores, and a plurality of global hubs connected to said local hubs. The local hubs and the global hubs transfer data between the logic cores.

Abstract: Irregularities are provided in at least one dimension of a torus or mesh network for lower average path length and lower maximum channel load while increasing tolerance for omitted end-around connections. In preferred embodiments, all nodes supported on each backplane are connected in a single cycle which includes nodes on opposite sides of lower dimension tori. The cycles in adjacent backplanes hop different numbers of nodes.

Abstract: A system and method for executing previously created run time executables in a configurable processing element array is disclosed. In one embodiment, this system and method begins by identifying at least one subset of program code. The method may then generate at least one set of configuration memory contexts that replaces each of the at least one subsets of program code, the at least one set of configuration memory contexts emulating the at least one subset of program code. The method may then manipulate the at least one set of multiple context processing elements using the at least one set of configuration memory contexts. The method may then execute the plurality of threads of program code using the at least one set of multiple context processing elements.

Abstract: The multi-processor system comprises a plurality of cell processors for performing data processing, a BCMC for broadcasting broadcast data including data used in data processing to the plurality of cell processors, each of the plurality of cell processors sorts out only data necessary for data processing that is performed by each cell processor from broadcast data broadcasted by BCMC to as to perform data processing. BCMC obtains results of data processing of all cell processors so that they can be supplied to all cell processors as broadcast data, thus making it possible to transmit and receive the results of data processing between the cell processors and perform high-speed data processing as an entire system.

Abstract: A scalable computer architecture capable of performing fully scalable simulations includes a plurality of processing elements (PEs) and a plurality of interconnections between the PEs. In this regard, the interconnections can interconnect each processing element to each neighboring processing element located adjacent the respective processing element, and further interconnect at least one processing element to at least one other processing element located remote from the respective at least one processing element. For example, the interconnections can interconnect the plurality of processing elements according to a fractal-type method or a quenched random method. Further, the plurality of interconnections can include at least one interconnection at each length scale of the plurality of processing elements.

Abstract: The present invention concerns configuration of a new category of integrated circuitry for adaptive or reconfigurable computing. The various embodiments provide an executable information module for an adaptive computing engine (ACE) integrated circuit to provide an operating mode. The preferred executable information modules include configuration information interleaved with operand data, and may also include routing and power control information. The preferred ACE IC includes a plurality of heterogeneous computational elements coupled to an interconnection network. The plurality of heterogeneous computational elements include corresponding computational elements having fixed and differing architectures, such as fixed architectures for different functions such as memory, addition, multiplication, complex multiplication, subtraction, configuration, reconfiguration, control, input, output, and field programmability.

Abstract: A system and method for interconnecting a plurality of processing element nodes within a scalable multiprocessor system is provided. Each processing element node includes at least one processor and memory. A scalable interconnect network includes physical communication links interconnecting the processing element nodes in a cluster. A first set of routers in the scalable interconnect network route messages between the plurality of processing element nodes. One or more metarouters in the scalable interconnect network route messages between the first set of routers so that each one of the routers in a first cluster is connected to all other clusters through one or more metarouters.

Abstract: A method for controlling a processor array by a host computer involves creating a graph of a plurality of nodes using a data connection component, configuring a broadcast tree from a spanning tree of the graph, propagating a first command from the host computer to a member of the processor array using the broadcast tree, configuring a reply tree from a spanning tree of the graph, transmitting a response from the member of the processor array to the host computer using the reply tree, and configuring the data connection component to send at least one message selected from the first command and the response on at least one run mode communication path.

Abstract: The present invention includes a method of computing a function array in reconfigurable hardware that includes forming in the reconfigurable hardware a first delay queue and a second delay queue, inputting from a source array outside the reconfigurable hardware a first value into the first delay queue and a second value into the second delay queue, defining in the reconfigurable hardware a window array comprising a first cell and a second cell, inputting the first value from the first delay queue into the first cell and the second value from the second delay queue into the second cell, and calculating an output value for the function array based on the window array. The present invention also includes a method of loop stripmining and a method of calculating output values in a fused producer/consumer loop structure.

Abstract: Removing building blocks from partitions to which they have been bound is disclosed. A building block of a platform is removed from a partition of the platform by first halting activity by the partition on the building block. A first partition identifier of the building block indicates the partition of the building block. The building block joined the partition in a masterless manner. The resources of the building block are withdrawn from the partition, and the building block is deauthorized from the platform.

Abstract: A reconfigurable processor architecture. A reconfigurable processor is an array of a multiplicity of various functional elements, between which the interconnections may be programmably configured. The inventive processor is implemented on a single substrate as a network of clusters of elements. Each cluster includes a crossbar switching node to which a plurality of elements is connected via ports. Additional ports on the crossbar switching node connect to the switching nodes of nearest neighbor clusters. The crossbar switching nodes allow pathways to be programmably set between any of the ports, and any pathway may be set to be either registered or unregistered. The use of clusters of processing elements allows complete freedom of local connectivity for effective configuration of many different processing functions. Wide area interconnection is more restricted, but, since it is less used, does not significantly restrict configurability.

Abstract: A reconfigurable data path processor comprises a plurality of independent processing elements. Each of the processing elements advantageously comprising an identical architecture. Each processing element comprises a plurality of data processing means for generating a potential output. Each processor is also capable of through-putting an input as a potential output with little or no processing. Each processing element comprises a conditional multiplexer having a first conditional multiplexer input, a second conditional multiplexer input and a conditional multiplexer output. A first potential output value is transmitted to the first conditional multiplexer input, and a second potential output value is transmitted to the second conditional multiplexer output. The conditional multiplexer couples either the first conditional multiplexer input or the second conditional multiplexer input to the conditional multiplexer output, according to an output control command.

Abstract: Aspects of a method and system for digital signal processing within an adaptive computing engine are described. These aspects include a mini-matrix, the mini-matrix comprising a set of composite blocks, each composite block capable of executing a predetermined set of instructions. A sequencer is included for controlling the set of composite blocks and directing instructions among the set of composite blocks based on a data-flow graph. Further, a data network is included and transmits data to and from the set of composite blocks and to the sequencer, while a status network routes status word data resulting from instruction execution in the set of composite blocks. With the present invention, an effective combination of hardware resources is provided in a manner that provides multi-bit digital signal processing capabilities for an embedded system environment, particularly in an implementation of an adaptive computing engine.

Abstract: The ManArray core indirect VLIW processor consists of an array controller sequence processor (SP) merged with a processing element (PE0) closely coupling the SP with the PE array and providing the capability to share execution units between the SP and PE0. Consequently, in the merged SP/PE0 a single set of execution units are coupled with two independent register files. To make efficient use of the SP and PE resources, the ManArray architecture specifies a bit in the instruction format, the S/P-bit, to differentiate SP instructions from PE instructions. Multiple register contexts are obtained in the ManArray processor by controlling how the array S/P-bit in the ManArray instruction format is used in conjunction with a context switch bit (CSB) for the context selection of the PE register file or the SP register file.

Abstract: A reconfigurable single instruction multiple data array includes a plurality of processing cells; a serial data bus with at least one line dedicated to each cell; each cell including an identification number for uniquely identifying each cell and its dedicated line and a communication port including at least one parallel to serial transmitter circuit in each cell for broadcasting its cell's output data over its dedicated line; at least one serial to parallel receiver circuit in each cell; each cell responsive to the identification number and a common command word to generate a local configuration command designating a pre-selected broadcasting cell and a configuration register associated with each receiver circuit and responsive to the local configuration command to condition its receiver's circuit to receive serial input data broadcast from the pre-selected cell's dedicated line.

Abstract: Described are methods for accurately measuring the skew of clock distribution networks on programmable logic devices. Clock distribution networks are modeled using a sequence of oscillators formed on the device using configurable logic. Each oscillator includes a portion of the network, and consequently oscillates at a frequency that depends on the signal propagation delay associated with the included portion of the network. The various oscillator configurations are defined mathematically as the sum of a series of delays, with the period of each oscillator representing the sum. The respective equations of the oscillators are combined to solve for the delay contribution of the included portion of the clock network. The delay associated with the included portion of the clock network can be combined with similar measurements for other portions of the clock network to more completely describe the network.

Abstract: A data processing system, wherein a data flow processor (DFP) integrated circuit chip is provided which comprises a plurality of orthogonally arranged homogeneously structured cells, each cell having a plurality of logically same and structurally identically arranged modules. The cells are combined and facultatively grouped using lines and columns and connected to the input/output ports of the DFP. A compiler programs and configures the cells, each by itself and facultatively-grouped, such that random logic functions and/or linkages among the cells can be realized. The manipulation of the DFP configuration is performed during DFP operation such that modification of function parts (MACROs) of the DFP can take place without requiring other function parts to be deactivated or being impaired.

Abstract: A media processing system is provided including a DRAM that includes a plurality of storage locations for storing digital data being processed by said media processing system, said digital data including video data that is compressed in a standardized format, a system for processing said digital data that includes said standardized format compressed video data to produce compressed video images and image data, a system for decoding said standardized format compressed video images to generate full motion video pixel data, a system for sharing said DRAM between said processing means and said decoding means, and a system for producing a full motion video signal from said full motion video pixel data. The media processing system may also have a system for multiplying or combining a first pixel by a second pixel in a single clock cycle.

Abstract: The present invention concerns a new category of integrated circuitry and a new methodology for adaptive or reconfigurable computing. The preferred IC embodiment includes a plurality of heterogeneous computational elements coupled to an interconnection network. The plurality of heterogeneous computational elements include corresponding computational elements having fixed and differing architectures, such as fixed architectures for different functions such as memory, addition, multiplication, complex multiplication, subtraction, configuration, reconfiguration, control, input, output, and field programmability. In response to configuration information, the interconnection network is operative in real-time to configure and reconfigure the plurality of heterogeneous computational elements for a plurality of different functional modes, including linear algorithmic operations, non-linear algorithmic operations, finite state machine operations, memory operations, and bit-level manipulations.

Abstract: A method for managing system firmware in a data processing system having a plurality of logical partitions is provided. Responsive to a request to update the system firmware from a first logical partition within the plurality of logical partitions in the data processing system, a determination is made whether the first logical partition within the plurality of logical partitions is present in the data processing system. Responsive to the determination that the first logical partition within the plurality of logical partitions is present in the data processing system, the system firmware is updated from the first logical partition in the data processing system. Then starting of additional partitions within the plurality of logical partitions in the data processing system is inhibited until the firmware update from the first logical partition is complete.

Abstract: An integrated circuit architecture for multimedia processing. A single integrated circuit (IC) operates as a system or subsystem, and is adaptable to processing a variety of multimedia algorithms, whether proprietary or open. Hard macros, either analog or digital, can be incorporated. The IC can also contain audio/video CODECs to suit different standards, as well as other peripheral devices which may be required for multimedia applications. An electronic component (e.g., integrated circuit) incorporating the technique is suitably included in a system or subsystem having electrical functionality, such as general purpose computers, telecommunications devices, and the like.

Abstract: A method and apparatus for providing local control of processing elements in a network of multiple context processing elements (MCPEs). A MCPE stores configuration memory contexts and maintains data of a current configuration. State information is received from at least one other MCPE. A configuration control signal is generated in response to the state information and current configuration data. A MCPE is selected in response to the configuration control signal to control the MCPE. Each MCPE in the networked array has an assigned physical and virtual identification. Data comprising control data, configuration data, an address mask, and a destination identification is transmitted to a MCPE. The transmitted address mask is applied to either a physical or a virtual identification, and to a destination identification. The masked physical or virtual identification is compared to the masked destination identification.

Abstract: Processing element to processing element switch connection control is described using a receive model that precludes communication hazards from occurring in a synchronous MIMD mode of operation. Such control allows different communication topologies and various processing effects such as an array transpose, hypercomplement or the like to be efficiently achieved utilizing architectures, such as the manifold array processing architecture. An encoded instruction method reduces the amount of state information and setup burden on the programmer taking advantage of the recognition that the majority of algorithms will use only a small fraction of all possible mux settings available. Thus, by means of transforming the PE identification based upon a communication path specified by a PE communication instruction an efficient switch control mechanism can be used.

Abstract: An array processor includes processing elements (00, 01, 02, 03, 10, 11, 12, 13, 20, 21, 22, 23, 30, 31, 32, 33) arranged in clusters (e.g., 44, 46, 48, 50) to form a rectangular array (40). Inter-cluster communication paths (88) are mutually exclusive. Due to the mutual exclusivity of the data paths, communications between the processing elements of each cluster may be combined in a single inter-cluster path, thus eliminating half the wiring required for the path. The length of the longest communication path is not directly determined by the overall dimension of the array, as in conventional torus arrays. Rather, the longest communications path is limited by the inter-cluster spacing. Transpose elements of an N×N torus may be combined in clusters and communicate with one another through intra-cluster communications paths. Transpose operation latency is eliminated in this approach. Each PE may have a single transmit port (35) and a single receive port (37).

Abstract: A reconfigurable processor module comprising hybrid stacked integrated circuit (“IC”) die elements. In a particular embodiment disclosed herein, a processor module with reconfigurable capability may be constructed by stacking one or more thinned microprocessor, memory and/or field programmable gate array (“FPGA”) die elements and interconnecting the same utilizing contacts that traverse the thickness of the die. The processor module disclosed allows for a significant acceleration in the sharing of data between the microprocessor and the FPGA element while advantageously increasing final assembly yield and concomitantly reducing final assembly cost.

Abstract: A highly parallel data processing system includes an array of n processing elements (PEs) and a controller sequence processor (SP) wherein at least one PE is combined with the controller SP to create a Dynamic Merged Processor (DP) which supports two modes of operation. In its first mode of operation, the DP acts as one of the PEs in the array and participates in the execution of single-instruction-multiple-data (SIMD) instructions. In the second mode of operation, the DP acts as the controlling element for the array of PEs and executes non-array instructions. To support these two modes of operation, the DP includes a plurality of execution units and two general-purpose register files. The execution units are “shared” in that they can execute instructions in either mode of operation. With very long instruction word (VLIW) capability, both modes of operation can be in effect on a cycle by cycle basis for every VLIW executed.

Abstract: A manifold array topology includes processing elements, nodes, memories or the like arranged in clusters. Clusters are connected by cluster switch arrangements which advantageously allow changes of organization without physical rearrangement of processing elements. A significant reduction in the typical number of interconnections for preexisting arrays is also achieved. Fast, efficient and cost effective processing and communication result with the added benefit of ready scalability.

Abstract: A method and system provides for changing processor configuration during operation of the processor system. The method and system include a control logic circuit where the control logic circuit sets a control bit to change the size of a processor array that allows disabling (defeaturing) of at least a portion of the array and enabling of a different performance operating mode for the processor system.

Abstract: An adaptive, or reconfigurable, processor-based clustered computing system and methods utilizing a scalable interconnection of adaptive processor nodes comprises at least first and second processing nodes, and a cluster interconnect coupling the first and second processing nodes wherein at least the first processing node comprises an adaptable, or reconfigurable, processing element. In particular implementations, the second processing node of clustered computer may comprise a microprocessor, a reconfigurable processing element or a shared memory block and the cluster interconnect may be furnished as an Ethernet, Myrinet, cross bar switch or the like.

Abstract: An improved mechanism for performing different types of digital signal processing functions, including correlation, sorting, and filtering operations. The mechanism includes a plurality of computational cells which can be dynamically configured (and reconfigured) in parallel to perform the different types of digital signal processing functions. Preferably, the computation cells carry out such digital signal processing operations in parallel without the need for extensive iteration. Such parallel configuration and subsequent parallel processing operations provide improved computational performance.

Abstract: A single chip active memory includes a plurality of memory stripes, each coupled to a full word interface and one of a plurality of processing element (PE) sub-arrays. The large number of couplings between a PE sub-array and its associated memory stripe are managed by placing the PE sub-arrays so that their data paths run at right angle to the data paths of the plurality of memory stripes. The data lines exiting the memory stripes are run across the PE sub-arrays on one metal layer. At the appropriate locations, the data lines are coupled to another orthogonally oriented metal layer to complete the coupling between the memory stripe and its associated PE sub-array. The plurality of PE sub-arrays are mapped to form a large logical array, in which each PE is coupled to four other PEs. Physically distant PEs are coupled using current mode differential logical couplings an drivers to insure good signal integrity at high operational speeds. Each PE contains a small DRAM register array.

Abstract: A method and apparatus for providing local control of processing elements in a network of multiple context processing elements (MCPEs). A MCPE stores configuration memory contexts and maintains data of a current configuration. State information is received from at least one other MCPE. A configuration control signal is generated in response to the state information and current configuration data. A MCPE is selected in response to the configuration control signal to control the MCPE. Each MCPE in the networked array has an assigned physical and virtual identification. Data comprising control data, configuration data, an address mask, and a destination identification is transmitted to a MCPE. The transmitted address mask is applied to either a physical or a virtual identification, and to a destination identification. The masked physical or virtual identification is compared to the masked destination identification.

Abstract: A set of S-machines, a T-machine corresponding to each S-machine, a General Purpose Interconnect Matrix (GPIM), a set of I/O T-machines, a set of I/O devices, and a master time-base unit form a system for scalable, parallel, dynamically reconfigurable computing. Each S-machine is a dynamically reconfigurable computer having a memory, a first local time-base unit, and a Dynamically Reconfigurable Processing Unit (DRPU). The DRPU is implemented using a reprogrammable logic device configured as an Instruction Fetch Unit (IFU), a Data Operate Unit (DOU), and an Address Operate Unit (AOU), each of which are selectively reconfigured during program execution in response to a reconfiguration interrupt or the selection of a reconfiguration directive embedded within a set of program instructions. Each reconfiguration interrupt and each reconfiguration directive references a configuration data set specifying a DRPU hardware organization optimized for the implementation of a particular Instruction Set Architecture (ISA).

Abstract: A method, apparatus, article of manufacture, and a memory structure for configuring a massively parallel processing system is disclosed. The method comprises the steps of selecting one of the interconnected nodes as a coordinator node, and the remaining nodes a non-coordinator nodes, the coordinator node for controlling the configuration of the parallel processing system; defining, in the coordinator node, a parallel processing system configuration having member nodes; and multicasting the parallel processing system configuration to the nodes. The apparatus comprises a means for performing the steps described above, and the article of manufacture comprises a program storage device tangibly embodying computer instructions for performing the above method steps.

Abstract: A reconfigurable integrated circuit is provided wherein the available hardware resources can be optimised for a particular application. Dynamically reconfiguring (in both real-time and non real-time) the available resources and sharing a plurality of processing elements with a plurality of controller elements achieve this. In a preferred embodiment the integrated circuit includes a plurality of processing blocks, which interface to a reconfigurable interconnection means. A processing block has two forms, namely a shared resource block and a dedicated resource block. Each processing block consists of one or a plurality of controller elements and a plurality of processing elements. The controller element and processing element generally comprise diverse rigid coarse and fine grained circuits and are interconnected through dedicated and reconfigurable interconnect. The processing blocks can be configured as a hierarchy of blocks and or fractal architecture.