A serial bus signal conditioner circuit includes receiver circuitry, a mode identification circuit, and an edge-rate booster circuit. The receiver circuitry is configured to receive signals transmitted on a serial bus. The mode identification circuit is coupled to the receiver circuitry, and is configured to identify initiation of or return to high-speed signaling on the serial bus based on sequences of the signals transmitted on the serial bus. The edge-rate booster circuit is coupled to the mode identification circuit, and is configured to identify edges of a differential signal transmitted on the serial bus, and to supply a differential current to the serial bus based on identification of an edge of the differential signal.

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 docking station.

An automation system includes a first control facility with a first fieldbus connection, a second control facility with a second fieldbus connection, a fieldbus, a peripheral board with at least one I/O peripheral module, wherein the peripheral board has an interface module with a third fieldbus connection, where the interface module has at least one I/O module which stores interconnection information featuring an assignment of input/outputs of the I/O peripheral module(s) to the control facilities, where the interface module additionally has a virtual I/O module, in which an output region is assigned to the first control facility, and furthermore an input region is assigned to the second controller, and where the virtual I/O module is configured such that the output data is copied from the output region of the first control facility into the input region as input data for the second control facility.

An information handling system includes multiple data ports, a memory, and a processor. Each of the data ports enables a separate communication link of a plurality of communication links for the information handling system. The memory stores data to indicate whether the information handling system supports bridge assurance on each of the communication links. In response to the bridge assurance being supported in the information handling system, the processor provides a message across a first link of the communication links. The message indicates that bridge assurance is supported in the information handling system. The processor also determines whether an acknowledgement message has been received. In response to the acknowledgement message being received, the processor enables the bridge assurance on the first link.

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.

Disclosed herein is a computing device. The computing device may include a central processing unit (CPU) for controlling operation of a system, a Compute Express Link (CXL) storage device connected with the CPU, a flexible bus for connecting the CPU with the CXL storage device, and a TCP/IP Offload Engine (TOE) provided between the flexible bus and the CXL storage device.

Systems and method are provided. An illustrative system includes a first compute node having a first processing unit, a first compute node port, and a first peripheral component interconnect bus configured to carry data between the first processing unit and the first compute node port. The system may further include a multi-host network interface controller having a first multi-host port, where the first multi-host port is configured to connect with the first compute node port via a first peripheral component interconnect cable, a network port, where the network port is configured to receive a network interface of a networking cable, and processing circuitry configured to translate and carry data between the first multi-host port and the network port.

This application provides a CAN bus circuit and a CAN bus communications method. The CAN bus circuit used for CAN bus communication includes: at least one CAN unit and one bus, where a first CAN unit includes an input port and an output port, the first CAN unit is any one of the at least one CAN unit, the output port is connected to the bus by using a first circuit, the input port is connected to the bus by using a second circuit, a first diode is disposed on the first circuit, and a second diode is disposed on the second circuit.

A host system includes a connector having a structure connected to the device irrespective of a direction. The connector includes a plurality of pins disposed thereon. A connection direction detector is configured to detect a direction in which the device is connected to the host system by detecting a signal from at least one first pin of the plurality of pins. A setting controller is configured to receive, from the device, setting information related to a configuration supported by the device and control a configuration operation on the device based on direction information from the connection direction detection. The host system is configured to perform control such that a function module having a unique function included in the device is selectively enabled based on the setting information and the direction information.

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.