Abstract: A method for data transmission and a data-processing circuit are provided. The data-processing circuit includes a memory that implements a buffer and a controller for controlling an operation of the data-processing circuit. When the data-processing circuit receives input data, data-hot-bits are used to address multiple data blocks of the input data. After analyzing the data-hot-bits, a starting address and a data length of each of the data blocks can be obtained. The input data is written to the buffer according to information analyzed from the data-hot-bits, and the data-hot-bits achieve an effect of masking the dummy data address. Further, data dependency among the data blocks can be confirmed by comparing the data-hot-bits with respect to each of the data blocks before the data blocks are written to the buffer.

Abstract: A compute device includes one or more processors, one or more resources capable of being utilized by the one or more processors, and a platform interconnect to facilitate communication of messages between the one or more processors and the one or more resources. The compute device is to obtain class of service data for one or more workloads to be executed by the compute device. The class of service data is indicative of a capacity of one or more of the resources to be utilized in the execution of each corresponding workload. The compute device is also to execute the one or more workloads and manage the amount of traffic transmitted through the platform interconnect for each corresponding workload as a function of the class of service data as the one or more workloads are executed.

Abstract: A wireless device may include: a radio frequency (RF) front end circuit to receive and process an RF signal; a mixer to downconvert the RF signal to a second frequency signal; a digitizer to digitize the second frequency signal; a channel filter to channel filter the digitized signal; a selection circuit having a first input coupled to the channel filter and a plurality of outputs each to couple to one of a plurality of demodulators; and the plurality of demodulators coupled to the selection circuit. The selection circuit may route the channel filtered digitized signal to a first demodulator of the plurality of demodulators based on a first configuration setting. The wireless device may also include a non-volatile storage with a configuration file including the first configuration setting. The configuration file may be automatically generated by a hardware configurator in response to a plurality of user input parameters.

Abstract: This disclosure generally relates to repeaters, and, in particular, repeaters for open-drain systems. In one embodiment, an apparatus comprises a first port, a second port, a current detector, a transistor, and a control logic circuit. A current detector input of the current detector is coupled to the first port. A transistor channel electrode of the transistor is coupled to the second port. A control logic circuit input of the control logic circuit is coupled to the current detector output, and a control logic circuit output of the control logic circuit is coupled to a transistor control electrode of the transistor.

Abstract: A microcomputer includes a central processing unit (CPU) and a data transfer controller (DTC). The data transfer controller (DTC) reads out data transfer information including transfer mode information from a storage device (RAM) or the like. The data transfer controller (DTC) analyzes the transfer mode information to change at least one of a transfer source address, a transfer destination address, the number of transfer operations, and data transfer information that is used next.

Abstract: A system includes a CPU including a primary address decode logic module (PADLM) and a plurality of diagnostic registers, wherein the PADLM includes address bus inputs, and an enable input port. The system further includes a data flip-flop having a data input coupled to a master enable signal line, a set input coupled to an interrupt signal line, an output coupled to the enable input port of the PADLM, and a clock input. Still further, the system includes an address decode logic module having a memory address input and an output indicating whether the memory address is within a predetermined address range of the diagnostic registers, wherein the output of the address decode logic module is coupled to the clock input. Memory mapping is enabled in response to receiving an interrupt signal and determining that the memory address is within a predetermined range of memory addresses for diagnostic registers.

Abstract: A system-on-check integrated circuit 2 includes interconnect circuitry 4 connecting a plurality of transaction sources to a plurality of transaction destinations. The interconnect circuitry 4 includes a reorder buffer for buffering access transactions and hazard checking circuitry 46, 48, 50, 52 for performing hazard checks, such as point-of-serialization checks and identifier reuse checks. Check suppression circuitry 62, 64, 66, 68 serves to suppress one or more hazard checks depending upon one or more state variables that themselves depend upon access transactions other than the access transaction for which the hazard checking is or is not to be suppressed. As an example, hazard checking may be suppressed if it is known that there are no other access transactions currently buffered within the reorder buffer 26 or alternatively no other access transactions from the same transaction source buffered within the reorder buffer 26.

Abstract: This disclosure describes different ways to improve the operation of a device's 1149.1 TAP to where the TAP can perform at-speed Update & Capture, Shift & Capture and Back to Back Capture & Shift operations. In a first embodiment of the disclosure the at-speed operations are achieved by time division multiplexing CMD signals onto the TMS input to the TAP. The CMD signals are input to a CMD circuit that operates in conjunction with a Dual Port Router to execute the at-speed operations of a circuit. In a second embodiment of the disclosure the at-speed operations are achieved by detecting the TAP's Exit1DR state as a CMD signal that is input to the CMD circuit that operates in conjunction with a Dual Port Router to execute the at-speed operations of a circuit.

Abstract: The present disclosure describes systems and techniques relating to processing of network communications. According to an aspect of the described systems and techniques, a network device includes a content addressable memory (CAM); and processing circuitry configured to receive records to be stored in the CAM, compare the records to identify similar bit values at respective bit positions of at least a portion of the records, store in the CAM the similar bit values in a single sample record corresponding to the portion of the records, store in the CAM remaining non-similar bit values of the portion of the records, thereby compressing the portion of the records stored in the CAM, store in the CAM one or more remaining records of the received records not included in the portion of the records, and search the CAM including the compressed portion of the records and the one or more remaining records.

Abstract: An executable program compiled according to a source instruction set architecture (source ISA) is loaded for execution by a target instruction set architecture (target ISA)-based hardware execution unit, wherein the source and target ISA's are different. The loading includes mapping a compiler built-in helper function in the executable program to a target ISA machine instruction. The loaded program is then executed. As part of the execution, the helper function is replaced with the target ISA machine instruction to which the helper function was mapped, and the target ISA machine instruction is executed rather than the helper function.

Abstract: The present invention includes an adaptable high-performance node (RXN) with several features that enable it to provide high performance along with adaptability. A preferred embodiment of the RXN includes a run-time configurable data path and control path. The RXN supports multi-precision arithmetic including 8, 16, 24, and 32 bit codes. Data flow can be reconfigured to minimize register accesses for different operations. For example, multiply-accumulate operations can be performed with minimal, or no, register stores by reconfiguration of the data path. Predetermined kernels can be configured during a setup phase so that the RXN can efficiently execute, e.g., Discrete Cosine Transform (DCT), Fast-Fourier Transform (FFT) and other operations. Other features are provided.

Abstract: A processor may include a conditional arithmetic logic unit and a main arithmetic logic unit. The conditional arithmetic logic unit may perform a first arithmetic logic operation to generate a first result, and output the result. The main arithmetic logic unit may select input buses among a plurality of data buses that carry the first result from the conditional arithmetic logic unit, perform a second arithmetic logic operation on data provided by the selected input buses to generate a second result, and write the second result in a storage component.

Abstract: Disclosed are a processor and processing method that provide non-hierarchical computer security enhancements for context states. The processor can comprise a context control unit that uses context identifier tags associated with corresponding contexts to control access by the contexts to context information (i.e., context states) contained in the processor's non-stackable and/or stackable registers. For example, in response to an access request, the context control unit can grant a specific context access to a register only when that register is tagged with a specific context identifier tag. If the register is tagged with another context identifier tag, the contents of the specific register are saved in a context save area of memory and the previous context states of the specific context are restored to the specific register before access can be granted.

Abstract: In one embodiment, the present invention includes a method for communicating an assertion signal from a first instruction sequencer to a plurality of accelerators coupled to the first instruction sequencer, detecting the assertion signal in the accelerators and communicating a request for a lock, and registering an accelerator that achieves the lock by communication of a registration message for the accelerator to the first instruction sequencer. Other embodiments are described and claimed.

Abstract: Fetch Less Instruction Processing (FLIP) Computer Architecture for Central Processing Units (CPU). This embodiment relates to computing systems, and more particularly to central processing units in computing systems. The principal object of this embodiment is to provide a Fetch Less Instruction Processing (FLIP) computer architecture using FLIP elements as building blocks for computer program processing. Another object of the embodiment is to use a protocol to interconnect FLIP elements, which makes the current operating systems, program execution models, compilers, libraries and so on to be easily transitioned to the FLIP computer architecture with minimal changes.

Abstract: The present invention includes an adaptable high-performance node (RXN) with several features that enable it to provide high performance along with adaptability. A preferred embodiment of the RXN includes a run-time configurable data path and control path. The RXN supports multi-precision arithmetic including 8, 16, 24, and 32 bit codes. Data flow can be reconfigured to minimize register accesses for different operations. For example, multiply-accumulate operations can be performed with minimal, or no, register stores by reconfiguration of the data path. Predetermined kernels can be configured during a setup phase so that the RXN can efficiently execute, e.g., Discrete Cosine Transform (DCT), Fast-Fourier Transform (FFT) and other operations. Other features are provided.

Abstract: A latency tolerant system for executing video processing operations. The system includes a host interface for implementing communication between the video processor and a host CPU, a scalar execution unit coupled to the host interface and configured to execute scalar video processing operations, and a vector execution unit coupled to the host interface and configured to execute vector video processing operations. A command FIFO is included for enabling the vector execution unit to operate on a demand driven basis by accessing the memory command FIFO. A memory interface is included for implementing communication between the video processor and a frame buffer memory. A DMA engine is built into the memory interface for implementing DMA transfers between a plurality of different memory locations and for loading the command FIFO with data and instructions for the vector execution unit.

Abstract: A device for managing multiple instructions to access multiple wide registers may include logic to receive the multiple instructions to access one of the multiple wide registers, associate each received instruction with a corresponding one of multiple buffer memories, and allow simultaneous processing of the multiple instructions associated with each of the multiple buffer memories, where the multiple instructions are processed such that data is transferred between the multiple buffer memories and the multiple wide registers in one operation.

Abstract: In one embodiment, a network device is disclosed. For example, in one embodiment of the present invention, the device comprises a processor and a core memory having a receive buffer and a transmit buffer. The device comprises a bus coupled to the processor and the core memory. The device comprises at least one co-processor coupled to the core memory via a direct link, wherein the at least one co-processor is capable of accessing at least one of: the receive buffer, or the transmit buffer, without assistance from the processor.

Abstract: The invention relates to a multi-core processor memory system, wherein it is provided that the system comprises memory channels between the multi-core processor and the system memory, and that the system comprises at least as many memory channels as processor cores, each memory channel being dedicated to a processor core, and that the memory system relates at run-time dynamically memory blocks dedicatedly to the accessing core, the accessing core having dedicated access to the memory bank via the memory channel.

Abstract: An apparatus including a microprocessor and an external crystal. The microprocessor executes non-secure application programs and a secure application program, where the secure application program comprises instructions from a host architecture instruction set, and where the non-secure application programs are accessed from a system memory via a system bus and the secure application program is accessed from a secure non-volatile memory via a private bus coupled to the microprocessor. The microprocessor has a secure real time clock that provides a persistent time, where the secure real time clock is only visible and accessible by the secure application program when the microprocessor is executing in a secure mode. The external crystal is coupled to the secure real time clock within the microprocessor and is configured to cause an oscillator within the secure real time clock to generate an oscillating output voltage that is proportional to the frequency of the external crystal.

Abstract: A transactional file system wherein multiple file system operations may be performed as a transaction. An application specifies that file system-related operations are to be handled as a transaction, and the application is given a file handle associated with a transaction context. For file system requests associated with a transaction context, a file system component manages operations consistent with transactional behavior. Logging and recovery are also facilitated by logging page data separate from the main log with a unique signature that enables the log to determine whether a page was fully flushed to disk prior to a system crash.

Abstract: The present invention includes an adaptable high-performance node (RXN) with several features that enable it to provide high performance along with adaptability. A preferred embodiment of the RXN includes a run-time configurable data path and control path. The RXN supports multi-precision arithmetic including 8, 16, 24, and 32 bit codes. Data flow can be reconfigured to minimize register accesses for different operations. For example, multiply-accumulate operations can be performed with minimal, or no, register stores by reconfiguration of the data path. Predetermined kernels can be configured during a setup phase so that the RXN can efficiently execute, e.g., Discrete Cosine Transform (DCT), Fast-Fourier Transform (FFT) and other operations. Other features are provided.

Abstract: An integrated processor design includes physical interface macros supporting heterogeneous electrical properties. The processor design comprises a plurality of processing cores and a plurality of physical interfaces to connect to a memory interface, a peripheral component interconnect express (PCI Express or PCIe) interface for input/output, an Ethernet interface for network communication, and/or a serial attached SCSI (SAS) interface for storage. Each physical interface may be programmatically connected to a selected interface controller, such as a memory controller, a PCI Express controller, or an Ethernet controller, for example. A plurality of such controllers may be connected to a switch within the processor design, with the switch also being connected to each physical interface macro. Thus, the physical interface macros may be programmatically connected to a subset of the plurality of controllers.

Abstract: An apparatus including a microprocessor and a secure non-volatile memory. The microprocessor is a single integrated circuit disposed on a single die, and executes non-secure application programs and a secure application program. The secure application program is executed in a secure execution mode. The non-secure application programs are accessed from a system memory via a system bus. The microprocessor has a non-volatile enabled indicator register that is configured indicate whether the microprocessor is within the secure execution mode or a non-secure execution mode, where contents of the non-volatile enabled indicator register persist through power removal and reapplication to the microprocessor.

Abstract: A processor may include several processor cores, each including a respective higher-level cache; a lower-level cache including several tag units each including several controllers, where each controller corresponds to a respective cache bank configured to store data, and where the controllers are concurrently operable to access their respective cache banks; and an interconnect network configured to convey data between the cores and the lower-level cache. The controllers may share access to an interconnect egress port coupled to the interconnect network, and may generate multiple concurrent requests to convey data via the shared port, where each of the requests is destined for a corresponding core, and where a datapath width of the port is less than a combined width of the multiple requests. The given tag unit may arbitrate among the controllers for access to the shared port, such that the requests are transmitted to corresponding cores serially rather than concurrently.

Abstract: There is disclosed an interface device for interfacing between a main processor and one or more processing engines. The interface device is configurable, so that it may be used with a wide range of processing engines without being redesigned.

Abstract: A logic cell array having a number of logic cells and a segmented bus system for logic cell communication, the bus system including different segment lines having shorter and longer segments for connecting two points in order to be able to minimize the number of bus elements traversed between separate communication start and end points.

Abstract: A data processing circuit comprises a register file (14) having read ports and write ports. A plurality of functional units (21a-c), is coupled to receive operand data from a same combination of read ports. Each functional unit is coupled to a respective one of the write ports for writing a respective result. An instruction issue slot has outputs (11) for supplying register selection information to said combination read ports and to the respective ones of the write ports. The output of the issue slot also supplies an operation code. The functional units (21a-c) in the plurality are arranged to respond to at least to one value of the operation code by each executing a respective operation using the same operands from said same combination and each functional unit producing a respective result at a respective ones of the write ports.

Abstract: A multi-mode parallel 3-D graphics system having multiple graphics processing pipelines with multiple GPUs supporting a parallel graphics rendering process having time, frame and object division modes of operation, wherein each GPU comprises video memory, a geometry processing subsystem and a pixel processing subsystem, and wherein 3D scene profiling is performed in real-time, and the parallelization state/modes of the system are dynamically controlled to meet graphics application requirements. The multiple modes of parallel graphics rendering use real-time graphics application profiling, and dynamic control over time-division, frame-division, and object-division modes of parallel operation, within the same parallel graphics platform, which can be realized on PC-based computing system architectures.

Abstract: A hardware engine control apparatus includes: a plurality of hardware engines (HWEs) connected by a control bus, each of the hardware engines executing a series of different kinds of processing; a host control device that outputs control commands for controlling operation of the HWEs to a subordinate control device; and the subordinate control device that has a register, in which the control commands from the host control device is sequentially set, and outputs the control commands set in the register to the control bus at timing based on a clock signal. The HWEs operate according to the control commands output from the subordinate control device.

Abstract: This electronic chip includes functional modules each including a single processing unit and a single routing unit (110E) connected to one another, and connections, called routing connections, each of which has at least one end connected to the routing unit of a functional module, where the routing connections connect between themselves the routing units of the functional modules so as to allow routing of data between the processing units of the functional modules. The routing unit (110E) of at least one functional module, called a split routing unit, includes two routers (112E, 114E), called respectively a first-level router and a second-level router, which are connected to one another, where the first-level router is moreover connected to at least two routing connections, and where the second-level router is moreover connected to the processing unit of this functional module and connected to at least one other routing connection.

Abstract: Methods and apparatus are provided for efficiently implementing signal processing cores as application specific processors. A signal processing core, such as a Fast Fourier Transform (FFT) core or a Finite Impulse Response (FIR) core includes a data path and a control path. A control path is implemented using processor components to increase resource efficiency. Both the data path and the control path can be implemented using function units that are selected, parameterized, and interconnected. A variety of signal processing algorithms can be implemented on the same application specific processor.

Abstract: A single chip protocol converter integrated circuit (IC) capable of receiving packets generating according to a first protocol type and processing said packets to implement protocol conversion and generating converted packets of a second protocol type for output thereof, the process of protocol conversion being performed entirely within the single integrated circuit chip. The single chip protocol converter can be further implemented as a macro core in a system-on-chip (SoC) implementation, wherein the process of protocol conversion is contained within a SoC protocol conversion macro core without requiring the processing resources of a host system. Packet conversion may additionally entail converting packets generated according to a first protocol version level and processing the said packets to implement protocol conversion for generating converted packets according to a second protocol version level, but within the same protocol family type.

Abstract: A method of operation within an integrated-circuit processing device having a plurality of execution lanes. Upon receiving an instruction to exchange data between the execution lanes, respective requests from the execution lanes are examined to determine a set of the execution lanes that may send data to one or more others of the execution lanes during a first interval. Each execution lane within the set of the execution lanes is signaled to indicate that the execution lane may send data to the one or others of the execution lanes.

Abstract: A transactional file system wherein multiple file system operations may be performed as a transaction. An application specifies that file system-related operations are to be handled as a transaction, and the application is given a file handle associated with a transaction context. For file system requests associated with a transaction context, a file system component manages operations consistent with transactional behavior. Transactions over a network are facilitated. Remote files may be accessed within a transaction via a redirector protocol. A redirector on a client computer system communicates with an agent on a server computer system to relay and maintain transactional information on both systems.

Abstract: A multi-chip processor apparatus includes multiple processor chips on a substrate. At least one of the multiple processor chips includes a die with a primary interconnect trunk that communicates information between multiple compute elements situated along the primary interconnect trunk. That multiple processor chip includes a secondary interconnected trunk that may be oriented perpendicular with respect to the primary interconnect trunk. The secondary interconnect trunk communicates information off-chip via a number of I/O interfaces at the perimeter of that multiple processor chip. The secondary interconnect trunk intersects the primary interconnect trunk at an intersection at which a bus control element is located. The bus control element includes a primary trunk interface that couples to the primary interconnect trunk at the intersection to enable the bus control element to control on-chip communication among the compute elements via coherency signals on the primary interconnect trunk.

Abstract: A System-on-Chip (SoC) component comprising a single independent multiprocessor subsystem core including a plurality of multiple processors, each multiple processor having a local memory associated therewith forming a processor cluster; and a switch fabric means connecting each processor cluster within an SoC integrated circuit (IC). The single SoC independent multiprocessor subsystem core is capable of performing multi-threading operation processing for SoC devices when configured as a DSP, coprocessor, Hybrid ASIC, or network processing arrangements. The switch fabric means additionally interconnects a SoC local system bus device with SoC processor components with the independent multiprocessor subsystem core.

Abstract: A system and method for single hop, processor-to-processor communication in a multiprocessing system over a plurality of crossbars are disclosed. Briefly described, one embodiment is a multiprocessing system comprising a plurality of processors having a plurality of high-bandwidth point-to-point links; a plurality of processor clusters, each processor cluster having a predefined number of the processors residing therein; and a plurality of crossbars, one of the crossbars coupling each of the processors of one of the plurality of processor clusters to each of the processors of another of the plurality of processor clusters, such that all processors are coupled to each of the other processors, and such that the number of crossbars is equal to [X*(X?1)/2], wherein X equals the number of processor clusters.

Abstract: The present invention includes an adaptable high-performance node (RXN) with several features that enable it to provide high performance along with adaptability. A preferred embodiment of the RXN includes a run-time configurable data path and control path. The RXN supports multi-precision arithmetic including 8, 16, 24, and 32 bit codes. Data flow can be reconfigured to minimize register accesses for different operations. For example, multiply-accumulate operations can be performed with minimal, or no, register stores by reconfiguration of the data path. Predetermined kernels can be configured during a setup phase so that the RXN can efficiently execute, e.g., Discrete Cosine Transform (DCT), Fast-Fourier Transform (FFT) and other operations. Other features are provided.

Abstract: An integrated circuit includes a core-logic providing a core-logic output, a latch in communication with the core-logic to store a state of the core-logic output, and an isolation circuit for selectively interconnecting the core-logic output to an input of the latch. The circuit also includes and a power consumption controller in communication with the core-logic, the latch and the isolation circuit, for controlling the latch to store a state of the core-logic output, and output a corresponding signal. The controller is further operable to signal the isolation circuit to isolate the core-logic output from the latch by providing an output corresponding to predetermined value and transition the core-logic from a high power state and a low power state. This prevents transient signals from propagating to interconnected circuit blocks and external devices.

Abstract: This invention describes an apparatus, architecture, method, operating system, data network, and application program products for a hybrid digital system with multiple heterogeneous components. This invention is applied to a multiple generic microprocessor architecture s with a set (e.g., one or more cores) of controlling components and a set of groups of sub-processing components. Under this arrangement, different technology cores and functional components, such as memory, are organized in a way that different technologies can collaborate as a system.

Abstract: The subject matter disclosed herein provides methods and apparatus, including computer program products, for state alignment and transaction coupling to enable reliable communication between an application, such as a backend system, and a correlation engine (or rules engine). In one aspect there is provided a method. The method may provide a first interface to receive information from an adapter for an application separate from a state correlation engine and provide a second interface to receive information from the state correlation engine to the adapter. The first and second interfaces may provide state alignment between the application and the state correlation engine. Related systems, apparatus, methods, and/or articles are also described.

Abstract: A system for limiting the size of a local storage of a processor is provided. A facility is provided in association with a processor for setting a local storage size limit. This facility is a privileged facility and can only be accessed by the operating system running on a control processor in the multiprocessor system or the associated processor itself. The operating system sets the value stored in the local storage limit register when the operating system initializes a context switch in the processor. When the processor accesses the local storage using a request address, the local storage address corresponding to the request address is compared against the local storage limit size value in order to determine if the local storage address, or a modulo of the local storage address, is used to access the local storage.

Abstract: A method for reducing electromagnetic emissions in an electronic device having a multiple micro-controllers includes identifying the number of micro-controllers installed in the electronic device. An operating frequency range of the electronic device is determined based on the operating frequency range of each micro-controller. A frequency spacing for each micro-controller within the operating frequency range of the electronic device is then calculated, and an operating frequency is assigned to each micro-controller. The operating frequency of each micro-controller is separated from the operating frequency of each other micro-controller by at least the frequency spacing. Then, the operating frequency of each micro-controller is set at the assigned operating frequency.

Abstract: A computer implemented method, apparatus, and computer program product for managing symmetric multiprocessor interconnects. The process identifies functional communication connections between each processor in a plurality of processors on a multiprocessor to form identified functional communication connections. The process maps every functional communication connection between any two processors in the plurality of processors, based on the identified functional communication connections, to form an interconnect matrix. The process creates a path map using the interconnect matrix. The path map comprises a sequence of communication connections between the plurality of processors. The process initializes the plurality of processors using the path map.

Abstract: Methods and apparatus are provided for efficiently implementing signal processing cores as application specific processors. A signal processing core, such as a Fast Fourier Transform (FFT) core or a Finite Impulse Response (FIR) core includes a data path and a control path. A control path is implemented using processor components to increase resource efficiency. Both the data path and the control path can be implemented using function units that are selected, parameterized, and interconnected. A variety of signal processing algorithms can be implemented on the same application specific processor.

Abstract: The present invention includes a adaptable high-performance node (RXN) with several features that enable it to provide high performance along with adaptability. A preferred embodiment of the RXN includes a run-time configurable data path and control path. The RXN supports multi-precision arithmetic including 8, 16, 24, and 32 bit codes. Data flow can be reconfigured to minimize register accesses for different operations. For example, multiply-accumulate operations can be performed with minimal, or no, register stores by reconfiguration of the data path. Predetermined kernels can be configured during a setup phase so that the RXN can efficiently execute, e.g., discrete cosine transform (DCT), fast-Fourier transform (FFT) and other operations. Other features are provided.

Abstract: Certain aspects of a method and system for a system-on-a-chip (SoC) device with integrated support for Ethernet, TCP, iSCSI, RDMA, and network application acceleration are provided. Aspects of the method may include storing on a multifunction host bus adapter (MHBA) chip that handles a plurality of protocols, at least a portion of received data for at least one of a plurality of network connections. The MHBA chip may be configured for handling the received data based on one of the plurality of protocols that is associated with the received data. The received data for the at least one of the plurality of network connections may be processed within the MHBA chip. The one of the plurality of protocols may include an Ethernet protocol, a transmission control protocol (TCP), an Internet protocol (IP), an Internet small computer system interface (iSCSI) protocol, and/or a remote direct memory access (RDMA) protocol.

Abstract: An integrated data processing platform for processing a digital signal that includes a general purpose processor and a digital signal processor (DSP) module. The DSP module recovers digital data from a digital signal utilizing a sequence of DSP operations selected by the general purpose processor. The general purpose processor processes the digital data recovered by the DSP module, but is also available to perform general purpose tasks. A shared internal memory array selectively provides information to the DSP module and to the general purpose processor. The information stored in the internal memory array includes operands utilized in the execution of the DSP algorithm and selected instructions and data utilized by the general purpose CPU either for controlling the execution of the DSP algorithm or for executing its own general purpose tasks.