Abstract: A semiconductor device including a first processor having a first register, the first processor configured to perform region of interest (ROI) calculations using the first register; and a second processor having a second register, the second processor configured to perform arithmetic calculations using the second register. The first register is shared with the second processor, and the second register is shared with the first processor.

Abstract: Provided are integrated circuits and methods for transposing a tensor using processing element array operations. In some cases, it may be necessary to transpose elements of a tensor to perform a matrix operation. The tensor may be decomposed into blocks of data elements having dimensions consistent with the dimensions of a systolic array. An identity multiplication may be performed on each block of data elements loaded into a systolic array and the multiplication products summed in column partitions of a results buffer. The data elements in the column partitions of results buffer can then be mapped to row partitions of a buffer memory for further processing.

Abstract: Aspects of the disclosure provide for mechanisms for networking optimization using quantum computing. A method of the disclosure includes: receiving profile information of software defined network, wherein the profile information comprises information about a current configuration of the software defined network; generating, in view of the profile information, an optimization algorithm for optimizing the software defined network; and generating, by a processing device, a plurality of quantum instructions for implementing the optimization algorithm.

Abstract: An execution unit to execute instructions using a time-lag sliced architecture (TLSA). The execution unit includes a first computation unit and a second computation unit, where each of the first computation unit and the second computation unit includes a plurality of logic slices arranged in order, where each of the plurality of logic slices except a lattermost logic slice is coupled to an immediately following logic slice to provide an output of that logic slice to the immediately following logic slice, where the immediately following logic slice is to execute with a time lag with respect to its immediately previous logic slice. Further, each of the plurality of logic slices of the second computation unit is coupled to a corresponding logic slice of the first computation unit to receive an output of the corresponding logic slice of the first computation unit.

Abstract: Embodiments as disclosed herein provide for methods and systems that give firmware in a given node the ability to control the hardware configuration and activity of every endpoint in every remote node within the array. The standard, inter-node, message passing interconnect and protocol are utilized for this purpose.

Abstract: A method for storing a sequence of data records in a database comprises the following steps: creation of a database for storing data records in a creation step, insertion of at least two data records in the database in an insertion step, execution of at least one sorting step, with the data records each comprising an integer position number with at least one digit. In each sorting step, the position numbers of two data records are compared in order to specify and/or determine the sequence of the two data records. Comparison is then performed by processing the digits of the two position numbers individually from left to right and comparing them. One position number is greater than the corresponding other position number as soon as one of its digits is greater than the corresponding digit of the other position number, or if all its digits are identical to the corresponding digits of the second position number and the second position number still has further digits.

Abstract: An execution circuit inputs a plurality of data units, performs unit operations on the data units, and registers results of the unit operations in response to oscillations of a clock signal. A control circuit controls activation of the unit operations, and outputs a start signal to the execution circuit to activate each unit operation and/or a completion signal to indicate completion of each unit operation. A debug circuit stores breakpoint flags associated with the unit operations. Each breakpoint flag has a state that specifies whether to stop oscillations of the clock signal. The debug circuit further receives the start and/or completion signal and evaluates, while the clock signal oscillates to the execution circuit, a state of the start and/or completion signal and a state of the breakpoint flag associated with the unit operation. Oscillations of the clock signal are stopped in response to the evaluation of the signals.

Abstract: A memory device including a plurality of memory units; at least one geometric mean operator coupled to at least two of the plurality of memory units; and a memory state reader coupled to the at least one geometric mean operator to read a memory state of the plurality of memory units.

Abstract: A semiconductor device including a first processor having a first register, the first processor configured to perform region of interest (ROI) calculations using the first register; and a second processor having a second register, the second processor configured to perform arithmetic calculations using the second register. The first register is shared with the second processor, and the second register is shared with the first processor.

Abstract: A video processing system includes a video encoder that encodes a video stream into an independent video layer stream and a first dependent video layer stream based on a motion vector data or grayscale and color data.

Abstract: A parallel processing system includes a plurality of computers accessibly connected through a network, and distributedly executing a plurality of processes. Each of the plurality of computers is composed of an operation processing unit configured to execute an allocated process, a local memory group having a first area and a second area and an I/O control circuit. The operation processing unit executes the allocated process by using the first area as an access destination in a first period and, and executes the allocated process by using the second area as the access destination in a second period subsequent to the first period. The I/O control circuit is composed of an updating section configured to update data stored in the local memory group to the latest data by carrying out communication among the computers. The updating section updates the data stored in the first area in the second period.

Abstract: Approaches for generating and operating an electronic system. High-level language (HLL) source code is compiled into equivalent intermediate language program code. The compilation determines a plurality of caches for storing data referenced by the HLL source. Flush instructions are inserted in the intermediate language program. Each flush instruction references one of caches and is inserted in the intermediate language program immediately following an instruction that is last to write to that cache. The intermediate language program is translated into a hardware description that specifies the plurality of caches, circuits for processing data in the caches, and for each of the caches a flush interface that initiates writing data from the cache to a main memory in response to a flush signal. The timing of the respective flush signal is determined based on placement of one of the one or more flush instructions in the intermediate language program.

Abstract: The present disclosure relate to techniques for establishing an inverted indexing system and related data processing. The techniques may include writing, by a computing device, inverted indexes of a massive amount of data records into at least one inverted file. The computing device may then write description information of the written inverted file into a description file associated with the inverted file, and establish the inverted indexing system based on the inverted file and the description file of the inverted file. The techniques enhance efficiency in establishing the inverted indexing system and in processing data using the systems.

Abstract: A method for generating an interrupt signal in a memory controller and supporting a multi-processor is provided. Whether an access for a determined memory region occurs is determined. When the access for the determined memory region occurs, whether the access for the determined memory region has a right is determined. When the access for the determined memory region has the right, a core that will generate an interrupt signal is determined. The determined core is requested to generate the interrupt signal.

Abstract: A safety controller controls an automated installation on the basis of project data representing an individual application running. The safety controller has a plurality of controller hardware components. At least some controller hardware components have a respective project data memory. The project data memories each are designed to store project data supplied to them. The safety controller includes a connecting unit, such as a communication network, which connects the controller hardware components to one another. The safety controller also has a distribution unit for distributing at least some of the project data via the connecting unit to at least some of the project data memories.

Abstract: A processor determines whether a first program is under execution when a second program is executed, and changes a setting of a memory management unit based on access prohibition information so that a fault occurs when the second program makes an access to a memory when the first program is under execution. Then, the processor determines whether an access from the second program to a memory area used by the first program is permitted based on memory restriction information when the fault occurs while the first program and the second program are under execution, and changes the setting of the memory management unit so that the fault does not occur when the access to the memory area is permitted.

Abstract: The present invention includes a network telephone having a microphone coupled to provide voice data to a network, a speaker coupled to facilitate listening to voice data from the network, a dialing device coupled to facilitate routing of voice data upon the network, a first port configured to facilitate communication with a first network device, a second port configured to facilitate communication with a second network device and a prioritization circuit coupled to apply prioritization to voice data provided by the microphone.

Abstract: The illustrative embodiments provide for a system and recordable type medium for representing actions in a data processing system. A table is generated. The table comprises a plurality of rows and columns. Ones of the columns represent corresponding ones of computer applications that can start or stop in parallel with each other in a data processing system. Ones of the rows represent corresponding ones of sequences of actions within a corresponding column. Additionally, the table represents a definition of relationships among memory address spaces, wherein the table represents when each particular address space is started or stopped during one of a start-up process, a recovery process, and a shut-down process. The resulting table is stored.

Abstract: A multiprocessor has a plurality of arithmetic units, each having two input registers and one output register, and a plurality of RAM units each having RAM memory and a pointer associated with the RAM memory such as a program pointer, an address pointer, a stack pointer or a subroutine claim pointer.

Abstract: In one aspect, the invention comprises a system comprising: (a) a plurality of parallel processors on a single chip; and (b) computer memory located on the chip and accessible by each of the processors; wherein each of the processors is operable to process a de minimis instruction set, and wherein each of the processors comprises local caches dedicated to each of at least three specific registers in the processor. In another aspect, the invention comprises a system comprising: (a) a plurality of parallel processors on a single chip; and (b) computer memory located on the chip and accessible by each of the processors, wherein each of the processors is operable to process an instruction set optimized for thread-level parallel processing and wherein each processor accesses the internal data bus of the computer memory on the chip and the internal data bus is the width of one row of the memory.

Abstract: Provided is a multi-port cache memory apparatus and a method of the multi-port cache memory apparatus. The multi-port memory apparatus may divide an address space into address regions and allocate the divided memory regions to cache banks, thereby preventing the concentration of access to a particular cache.

Abstract: In one aspect, the invention comprises a system comprising: (a) a plurality of parallel processors on a single chip; and (b) computer memory located on the chip and accessible by each of the processors; wherein each of the processors is operable to process a de minimis instruction set, and wherein each of the processors comprises local caches dedicated to each of at least three specific registers in the processor. In another aspect, the invention comprises a system comprising: (a) a plurality of parallel processors on a single chip; and (b) computer memory located on the chip and accessible by each of the processors, wherein each of the processors is operable to process an instruction set optimized for thread-level parallel processing.

Abstract: A method and system for storing and retrieving data using flash memory devices. One example system includes an apparatus within a flash memory configuration. The flash memory configuration includes a plurality of memory cells, where each memory cell has a charge storage capacity for use in implementing digital storage. The apparatus includes a processing arrangement configured to access each of the memory cells in a write operation and a read operation. The apparatus also includes an instruction set for instructing the processor to impose target charge levels for defining a plurality of data values for each of the memory cells. The target charge levels are programmably movable with respect to the charge storage capacity.

Abstract: A data processing apparatus comprises a primary processor, a secondary processor configured to perform secure data processing operations and non-secure data processing operations and a memory configured to store secure data used by the secondary processor when performing the secure data processing operations and configured to store non-secure data used by the secondary processor when performing the non-secure data processing operations, wherein the secure data cannot be accessed by the non-secure data processing operations, wherein the secondary processor comprises a memory management unit configured to administer accesses to the memory from the secondary processor, the memory management unit configured to perform translations between virtual memory addresses used by the secondary processor and physical memory addresses used by the memory, wherein the translations are configured in dependence on a page table base address, the page table base address identifying a storage location in the memory of a set of des

Abstract: A multiprocessor system can directly transmit storage-state information in a multilink architecture. The multiprocessor system includes a first processor; a multiport semiconductor memory device coupled to the first processor; a nonvolatile semiconductor memory device; and a second processor coupled with the multiport semiconductor memory device and the nonvolatile semiconductor memory device in a multilink architecture, storing data, having been written in a shared memory area of the multiport semiconductor memory device by the first processor, in the nonvolatile semiconductor memory device, and directly transmitting storage-state information on whether the storing of the data in the nonvolatile semiconductor memory device has been completed, in response to a request of the first processor, without passing it through the multiport semiconductor memory device.

Abstract: In a system including a plurality of CPU units having a cache memory of different capacity each other and a system controller that connects to the plurality of CPUs and controls cache synchronization, the system controller includes a cache synchronization unit which monitors an address contention between a preceding request and a subsequent request and a setting unit which sets different monitoring range of the contention between the preceding request and the subsequent request for each capacity of the cache memory in each of the CPU units.

Abstract: This present invention provides a fast data transfer for a concurrent transfer of multiple ROI areas between an internal memory array and a single memory where each PE can specify the parameter set for the area to be transferred independently from the other PE. For example, for a read transfer, the requests are generated in a way that first the first element of each ROI area is requested from the single memory for each PE before the following elements of each ROI area are requested. After the first element from each ROI area has been received from the single memory in a control processor and has been transferred from the control processor over a bus system to the internal memory array, all elements are in parallel stored to the internal memory array. Then, the second element of each ROI area is requested from the single memory for each PE. The transfer finishes after all elements of each ROI area are transferred to their assigned PEs.

Abstract: There are provided methods and apparatus for multi-bit cell and SMT thread groups. An apparatus for a register file includes a plurality of multi-bit storage cells for storing a plurality of bits respectively corresponding to a plurality of threads. The apparatus further includes a plurality of port groups, operatively coupled to the plurality of multi-bit storage cells, responsive to physical register identifiers. The plurality of port groups is responsive to respective ones of a plurality of thread identifiers. Each of the plurality of thread identifiers are for uniquely identifying a particular thread from among a plurality of threads.

Abstract: An integrated circuit includes a plurality of tiles. Each tile includes a pipelined processor configured to process multiple streams of instructions for the processor; and a switch including switching circuitry to forward data over data paths from other tiles to one or more pipeline stages of the processor and to switches of other tiles. At least some of the data is forwarded based on one or more streams of instructions for the switch.

Abstract: Described embodiments provide for restructuring a scheduling hierarchy of a network processor having a plurality of processing modules and a shared memory. The scheduling hierarchy schedules packets for transmission. The network processor generates tasks corresponding to each received packet associated with a data flow. A traffic manager receives tasks provided by one of the processing modules and determines a queue of the scheduling hierarchy corresponding to the task. The queue has a parent scheduler at each of one or more next levels of the scheduling hierarchy up to a root scheduler, forming a branch of the hierarchy. The traffic manager determines if the queue and one or more of the parent schedulers of the branch should be restructured. If so, the traffic manager drops subsequently received tasks for the branch, drains all tasks of the branch, and removes the corresponding nodes of the branch from the scheduling hierarchy.

Abstract: Techniques for providing improved data distribution to and collection from multiple memories are described. Such memories are often associated with and local to processing elements (PEs) within an array processor. Improved data transfer control within a data processing system provides support for radix 2, 4 and 8 fast Fourier transform (FFT) algorithms through data reordering or bit-reversed addressing across multiple PEs, carried out concurrently with FFT computation on a digital signal processor (DSP) array by a DMA unit. Parallel data distribution and collection through forms of multicast and packet-gather operations are also supported.

Abstract: Mechanisms for performing all-to-all comparisons on architectures having limited storage space are provided. The mechanisms determine a number of data elements to be included in each set of data elements to be sent to each processing element of a data processing system, and perform a comparison operation on at least one set of data elements. The comparison operation comprises sending a first request to main memory for transfer of a first set of data elements into a local memory associated with the processing element and sending a second request to main memory for transfer of a second set of data elements into the local memory. A pair wise comparison computation of the all-to-all comparison of data elements operation is performed at approximately a same time as the second set of data elements is being transferred from main memory to the local memory.

Abstract: A cryptographic engine for modulo N multiplication, which is structured as a plurality of almost identical, serially connected Processing Elements, is controlled so as to accept input in blocks that are smaller than the maximum capability of the engine in terms of bits multiplied at one time. The serially connected hardware is thus partitioned on the fly to process a variety of cryptographic key sizes while still maintaining all of the hardware in an active processing state.

Abstract: A signal processing apparatus able to raise a processing capability in processing accompanying access to a storing means is provided. Stream control units (SCU) 203—0 to 203—3 access data at an external memory system or local memories 204—0 to 204—3 according to a thread under control from a host processor. Processor units (PU) arrays 202—0 to 202—3 perform image processing by a different thread from the thread of the SCUs 203—0 to 203—3.

Abstract: A data processing system 2 is provided with multiple processor cores 4, 6, 8, 10 each incorporating a data cache memory 12, 14, 16, 18. A snoop control unit 20 manages coherency between the data values stored within the data caches 12, 14, 16, 18. The snoop control unit 20 incorporates a TAG memory 22. If an error is detected within an entry of the TAG memory 22, then a hit operation is forced to the corresponding storage location one or more of the data caches 12, 14, 16, 18.

Abstract: A novel coprocessor interface providing memory access without traversing the main processor, and methods of operating the same. A system includes a bus, a processor circuit, a memory circuit, a multi-channel memory controller, and at least one coprocessor. The processor circuit is coupled to the bus, the multi-channel memory controller is coupled between the bus and the memory circuit, and the coprocessors are coupled to both the processor circuit and the multi-channel memory controller. This circuit arrangement provides dedicated high speed channels for data access between the coprocessors and the memory circuit, without traversing the processor circuit or the bus. Thus, non-standard (e.g., non-sequential) data transfer protocols can be supported. In some embodiments, the system is implemented in a programmable logic device (PLD). The processor circuit can be, for example, a microprocessor included as hard-coded logic in the PLD, or can be implemented using programmable logic elements of the PLD.

Abstract: A mechanism for broadcasting instructions/data to a plurality of processors in a multiprocessor device via aliasing is provided. In order to broadcast data to a plurality of processors, a control processor writes to the registers that store the identifiers of the processors and sets two or more of these registers to a same value. The control processor may write the desired data/instructions to be broadcast to a portion of memory corresponding to the starting address associated with the processor identifier of the two or more processors. When the two or more processors look for a starting address of their local store from which to read, the two or more processors will identify the same starting address, essentially aliasing the memory region. The two or more processors will read the instructions/data from the same aliased memory region starting at the identified starting address and process the same instructions/data.

Abstract: Techniques for providing improved data distribution to and collection from multiple memories are described. Such memories are often associated with and local to processing elements (PEs) within an array processor. Improved data transfer control within a data processing system provides support for radix 2, 4 and 8 fast Fourier transform (FFT) algorithms through data reordering or bit-reversed addressing across multiple PEs, carried out concurrently with FFT computation on a digital signal processor (DSP) array by a DMA unit. Parallel data distribution and collection through forms of multicast and packet-gather operations are also supported.

Abstract: A memory management method and apparatus based on an access time in a multi-core system. In the memory management method of the multi-core system, it is easy to estimate the execution time of a task to be performed by a processing core and it is possible to secure the same memory access time when a task is migrated between processing cores by setting a memory allocation order according to distances from the processing cores to the memories in correspondence with the processing cores, translating a logical address to be processed by one of the processing cores according to the set memory allocation order into a physical address of one of the memories, and allocating a memory corresponding to the translated physical address to the processing core.

Abstract: An integrated circuit comprises a plurality of tiles. Each tile comprises a processor, and a switch including switching circuitry to forward data received over data paths from other tiles to the processor and to switches of other tiles, and to forward data received from the processor to switches of other tiles. The integrated circuit further comprises one or more interface modules including circuitry to transfer data to and from a device external to the tiles; and a sub-port routing network including circuitry to route data between a port of a switch and a plurality of sub-ports coupled to one or more interface modules.

Abstract: An integrated circuit comprises a plurality of tiles. Each tile comprises a processor including a storage module, wherein the processor is configured to process multiple streams of instructions, a switch including switching circuitry to forward data received over data paths from other tiles to the processor and to switches of other tiles, and to forward data received from the processor to switches of other tiles, and coupling circuitry configured to couple data resulting from processing an instruction from at least one of the streams of instructions to the storage module and to the switch.

Abstract: A processing system comprising processors and the dynamically configurable communication elements coupled together in an interspersed arrangement. The processors each comprise at least one arithmetic logic unit, an instruction processing unit, and a plurality of processor ports. The dynamically configurable communication elements each comprise a plurality of communication ports, a first memory, and a routing engine. For each of the processors, the plurality of processor ports is configured for coupling to a first subset of the plurality of dynamically configurable communication elements. For each of the dynamically configurable communication elements, the plurality of communication ports comprises a first subset of communication ports configured for coupling to a subset of the plurality of processors and a second subset of communication ports configured for coupling to a second subset of the plurality of dynamically configurable communication elements.

Abstract: Techniques for providing improved data distribution to and collection from multiple memories are described. Such memories are often associated with and local to processing elements (PEs) within an array processor. Improved data transfer control within a data processing system provides support for radix 2, 4 and 8 fast Fourier transform (FFT) algorithms through data reordering or bit-reversed addressing across multiple PEs, carried out concurrently with FFT computation on a digital signal processor (DSP) array by a DMA unit. Parallel data distribution and collection through forms of multicast and packet-gather operations are also supported.

Abstract: A method, information processing node, and a computer program storage product are provided for performing synchronization operations between participants of a program. Each participant includes at least one of a set of processes and a set of threads. Each participant in a first subset of participants of a program updates a portion of a first local vector that is local to the respective participant. Each participant in a second subset of participants of the program updates a portion of a second local vector that is local to the respective participant. The participants in the second subset exit the synchronization barrier in response to determining that all of the participants in the first subset have reached the synchronization barrier.

Abstract: Techniques for providing improved data distribution to and collection from multiple memories are described. Such memories are often associated with and local to processing elements (PEs) within an array processor. Improved data transfer control within a data processing system provides support for radix 2, 4 and 8 fast Fourier transform (FFT) algorithms through data reordering or bit-reversed addressing across multiple PEs, carried out concurrently with FFT computation on a digital signal processor (DSP) array by a DMA unit. Parallel data distribution and collection through forms of multicast and packet-gather operations are also supported.

Abstract: An architecture for control systems including multiple control devices. The control devices include standardized software objects having functions, application programs for engaging these functions and thereby defining the operation of the control devices, and an engine for executing the application programs. The standardized software objects implement different types of internal functions for the control devices and feature reference numbering and function calls shared in common with the other software objects of the same type that may be on different control devices across said system. The software application programs include standardized instructions reflecting the reference numbering and function calls shared across the system by the said software objects whose functions are used in building the functionality of the control devices in the application programs.

Abstract: The disclosure describes a computing system having one or more processing elements, one of which is a floating point processor, a memory, and a multitask controller. The multitask controller includes a scheduler unit, a data flow unit, an executive unit, and a resource manager unit. The memory has two interfaces. One interface connects to a host processor and the other interface connects to the data flow unit of the controller so that the memory appears intelligent. The resource manager in the controller finds a processing element, such as a floating point element, that is available to perform a function for a task and assigns it to a task. The scheduler unit selects a task and an assigned processing element to carry out the function of the cuffent task, the results of which are placed back in the memory.

Abstract: A memory management mechanism a nodal having multiple processors in a massively parallel computer system dynamically configures nodal memory on demand. A respective variable-sized subdivision of nodal memory is associated with each processor in the node. A processor may request additional memory, and the other processor(s) may grant or veto the request. If granted, the requested memory is added to the subdivision of the requesting processor. A processor can only access memory within its own subdivision. Preferably, each subdivision contains a daemon which monitors memory usage and generates requests for additional memory.

Abstract: A programmable processing engine processes transient data within an intermediate network station of a computer network. The engine comprises an array of processing elements symmetrically arrayed as rows and columns, and embedded between input and output buffer units with a plurality of interfaces from the array to an external memory. The external memory stores non-transient data organized within data structures, such as forwarding and routing tables, for use in processing the transient data. Each processing element contains an instruction memory that allows programming of the array to process the transient data as processing element stages of baseline or extended pipelines operating in parallel.

Abstract: In one embodiment, link logic of a multi-chip processor (MCP) formed using multiple processors may interface with a first point-to-point (PtP) link coupled between the MCP and an off-package agent and another PtP link coupled between first and second processors of the MCP, where the on-package PtP link operates at a greater bandwidth than the first PtP link. Other embodiments are described and claimed.