Abstract: An arbitration control circuit in a pseudo-static random access memory (PSRAM) device includes a first arbiter circuit and a second arbiter circuit. The first arbiter circuit receives a normal access request signal and a refresh access request signal and generates a first output signal in response to a logical operation to arbitrate between the normal access reqeuest signal and the refresh access request signal. The second arbiter circuit configured to receive the first output signal and a delayed signal of the first output signal, and to generate a second output signal in response to a logical operation of the first output signal and the delayed signal. The second output signal has a first logical state indicative of granting the read or write access request and a second logical state indicative of granting the refresh access request to the memory cells of the PSRAM device.

Abstract: A network comprising interconnected first and second processors, each processor comprising one or more of: multiple processing units arranged on a chip configured to execute program code; an on-chip interconnect comprising groups of exchange paths connected to receive data from corresponding groups of the processing units; external interfaces configured to communicate data off-chip as packets, each having a destination address, external interfaces of the first and second processors being connected by an external link; multiple exchange blocks, each connected to groups of the exchange paths; a routing bus configured to route packets between the exchange blocks and the external interfaces. Processing units of the first processor generate off-chip packets such that the group of processing units serviced by the first exchange block on the first processor address off-chip packets to the group of processing units on the second processor serviced by the corresponding first exchange block of the second processor.

Abstract: A method includes receiving a chip select signal at an SPI client device. The method also includes, responsive to receiving the chip select signal, transmitting a first bit of an SPI transmission to an SPI host device, where the first bit of the SPI transmission is transmitted with a delay based at least in part on a loop propagation delay of an SPI channel. The method includes receiving a clock signal at the SPI client device. The method also includes, responsive to receiving the clock signal, transmitting a second bit of the SPI transmission to the SPI host device.

Abstract: Systems and methods enable data collection and analytics consumption with a generalized assurance framework using a message bus that supports a publish-subscribe model. A producer network element subscribes to a request topic on the message bus and posts, to the message bus, an announcement indicating a data topic is available from the producer network element. The producer network element receives via the message bus, the request topic including a request for the data topic and posts, to the message bus, records for the data topic in response to the request.

Abstract: Bandwidth control can be provided for input/output channels according to some aspects described herein. In one example, a system can detect an input/output (I/O) request transmitted by a software application. In response to detecting the I/O request, the system can determine a bandwidth group that corresponds to an I/O channel associated with the I/O request. The system can then determine whether bandwidth consumption of the bandwidth group exceeds a predefined bandwidth limit. If so, the system can execute a predefined policy assigned to the I/O channel for handling the I/O request.

Abstract: Various implementations described herein are directed to a device having a multi-layered logic structure with a first logic layer and a second logic layer arranged vertically in a stacked configuration. The device may have a memory array that provides data, and also, the device may have an inter-layer data bus that vertically couples the memory array to the multi-layered logic structure. The inter-layer data bus may provide multiple data paths to the first logic layer and the second logic layer for reuse of the data provided by the memory array.

Abstract: Aspects of the invention include computer-implemented methods, systems, and computer program products that assign a centralized event tag to each communication interface of a plurality of communication interfaces of a chip interconnected in a hierarchy through the communication interfaces to a plurality of chips in a multiprocessing system. A determination is performed of whether to accept or drop a message associated with an event received at one of the communication interfaces of the chip based on comparing a local centralized event tag with a received centralized event tag. The local centralized event tag is updated based on one or more advancing rules to maintain event synchronization between the chip and the plurality of chips.

Abstract: A device comprising: a control bus; a plurality of requesting circuits each accessible on the control bus, wherein each of the plurality of requesting circuits is operable to dispatch read or write requests to the control bus for delivery to at least one of a plurality of receiving circuits, and the plurality of receiving circuits each accessible on the control bus, and each of which is operable to receive requests from the at least one control bus and service the requests by providing at least one of read or write access to storage associated with the respective receiving circuit, wherein the control bus provides a ring path configured to support, the requests in circulation in the ring path, wherein the control bus is configured to propagate each of at least some of the requests at least until those requests have been serviced by at least one of the receiving circuits.

Abstract: Techniques for transmitting data include identifying data to be transmitted, adding the data to a queue, and in response to a data session window being open: extracting the data from the queue; transmitting the extracted data to a transceiver via a transmitter; monitoring an amount of data in the queue and determining that the transmitter has transmitted the extracted data to the transceiver; and in response, instructing the transceiver to end the data session window early and transition to a lower power state.

Abstract: Compact timestamps and related methods, systems and devices are described. An encoder is configured to generate compact timestamps of the disclosure by sampling states of linear feedback shift registers (LFSRs). A decoder may be configured to determine timing information responsive to the compact timestamps.

Abstract: Example aspects include techniques for syncing configuration settings between incompatible operating systems. These techniques may include determining, via a first application, system-wide configuration information associated with a host system configuration parameter and a first configuration value of the host operating system, and transmitting a synchronization notification to a second application executing on a guest operating system, wherein the synchronization notification corresponding to the system-wide configuration information. In addition, the techniques may include configuring a guest system configuration parameter to a second configuration value based on the synchronization notification, and executing a third application on the guest operating system based on the second configuration value.

Abstract: A method for supporting TCM communication by a BIOS of an ARM server, including: setting an access mode of a LPC bus device to a 4-byte mode by means of a BIOS of an ARM server; causing the BIOS to perform data communication with a TCM chip of the LPC bus device in the 4-byte mode; in response to the BIOS reading a register by means of the LPC bus device, determining a type of the register; in response to determining that the type of the register is a specific FIFO register, changing a control register from the 4-byte mode to a single-byte mode, and performing single-byte read-write on the specific FIFO register; and in response to completion of read-write of the specific FIFO register, changing the control register to the 4-byte mode by means of the BIOS, and performing a read-write operation on other FIFO registers.

Abstract: Disclosed is an Avalon-to-Axi4 bus conversion method, including: in case that an Avalon bus is an Avalon_st bus, receiving Avalon_st bus data, performing a logical process on the received Avalon_st bus data, and then outputting corresponding Axi4_st bus data; and in case that the Avalon bus is an Avalon_mm bus, receiving a signal transmitted by each channel of the Avalon_mm bus, framing and storing the signal in asynchronous First Input First Output (FIFO), and in case that a device corresponding to an Axi4 bus is ready, reading the signal from the asynchronous FIFO, and outputting the signal to a corresponding channel of the Axi4 bus according to a timing relationship of the Axi4 bus.

Abstract: A bus arbitration circuit includes a first bus port, a second bus port, a first output circuit connected to the first bus port, a second output circuit connected to the second bus port, a control circuit, and a switch circuit. The control circuit includes a first input port, a second input port, a control signal output port, and an output port. The first input port receives data of the first bus port, the second input port receives data of the second bus port, and data is outputted from the output port to an input port of the first output circuit. The switch circuit has an input port connected to the first bus port, a control port connected to the control signal output port of the control circuit, and an output port from which data of a host bus is outputted to an input port of the second output circuit.

Abstract: Systems and methods provide for optimizing utilization of an Address Translation Cache (ATC). A network interface controller (NIC) can write information reserving one or more cache lines in a first level of the ATC to a second level of the ATC. The NIC can receive a request for a direct memory access (DMA) to an untranslated address in memory of a host computing system. The NIC can determine that the untranslated address is not cached in the first level of the ATC. The NIC can identify a selected cache line in the first level of the ATC to evict using the request and the second level of the ATC. The NIC can receive a translated address for the untranslated address. The NIC can cache the untranslated address in the selected cache line. The NIC can perform the DMA using the translated address.

Abstract: A method for a low voltage drive circuit (LVDC) begins by receiving data from one or more other low voltage drive circuits (LVDCs) using a bus with varying loading at one or more frequencies and continues by sampling one or more data values of the data to produce a sampled digital data value, converting the sampled digital data value to a binary string and writing the binary string to a buffer. The method continues by writing one or more additional binary strings to the buffer to form a digital word, outputting the digital word to a digital converter circuit and formatting the digital word to create a formatted digital word. The method continues by writing the formatted digital word to a second buffer, writing additional formatted digital words to the second buffer to form a data packet and finally, outputting the data packet to a host device.

Abstract: It is intended to achieve excellent supply of power to connection destination equipment. Electronic equipment includes a receptacle having a plurality of electric terminal sets. The electric terminal sets each include a first electric terminal for power, a second electric terminal for detection, and a third electric terminal for grounding. A configuration of an interface cable connected to the receptacle is identified on the basis of signals acquired from the second electric terminals of the plurality of electric terminal sets. Power is supplied to external equipment through the first electric terminals of some or all of the plurality of electric terminal sets in accordance with the identified cable configuration.

Abstract: An autonomous driving controller includes a plurality of parallel processors operating on common input data. Each of the plurality of parallel processors includes a general processor, a security processor subsystem (SCS), and a safety subsystem (SMS). The general processors, the SCSs, and the SMSs of the plurality of parallel processors are configured to first, boot the plurality of SCSs from ROM second, boot the plurality of SMSs of the plurality of parallel processors from RAM or ROM, and, third, boot the plurality of general processors of the plurality of parallel processors from RAM. Between booting of the SCSs and the SMSs, at least one of the plurality of SCSs may load SMS boot code into the RAM that is dedicated to the plurality of SMSs.

Abstract: Adjusting wireless docking resource usage, including identifying, at a client information handling system (IHS), a configuration policy, the client IHS wirelessly connected to a docking station, the docking station providing wireless connections to peripheral computing components, respectively; processing, at the client IHS, the configuration policy, including identifying configuration rules of the configuration policy for performing computer-implemented actions of throttling resource utilization between the client IHS and the docking station; identifying, at the client IHS, when the client IHS is wirelessly connected to the docking station, a first presence state of a user with respect to the client IHS; and determining, at the client IHS, that the first presence state indicates that the user of the client IHS is not actively engaged with the client IHS, and in response, applying the configuration rules to perform computer-implemented actions of throttling resource utilization between the client IHS and the

Abstract: An integrated circuit includes a primary initiator domain (ID) circuit including having a processor core, a responder domain (RD) control circuit, and a reset controller. Secondary ID circuits, each include a processor core and a reset controller. RD circuitry is coupled to communicate with the primary ID circuit and the secondary ID circuits and includes RD resource circuits. The RD control circuit is configured to allocate each of the RD resource circuits to a first initiator domain consisting of the primary ID circuit or one of the secondary ID circuits, and when one of the secondary ID circuits enters a reset mode of operation, the RD resource circuit allocated to the one of the secondary ID circuits enters a reset while the remaining RD resource circuits are not affected by the reset.