Abstract: A method for a slave bus and a master bus includes receiving a first frame via a first data channel, wherein the first frame includes at least first header data, first payload data and first checksum. The method further includes implementing a function depending on the header data contained in the received first frame, and generating a second frame including second header data, second payload data, which are determined by the implemented function, and a second checksum. The second checksum is ascertained at least on the basis of the second payload data and the first header data contained in the received first frame. The method also includes transmitting the second frame via a second data channel simultaneously with receiving the first frame via the first data channel.

Abstract: A modular keyboard video and mouse (KVM) switching system comprises a core KVM switch module, one or more console peripheral interface modules (CPIM) and one or more host computer interface modules (HIM). The CPIM interfaces console peripheral devices to the core KVM switch module and the HIM interfaces host computer to the core KVM switch module Changing of console peripheral devices or host computer involves adapting a corresponding CPIM or HIM without changing the core KVM switch module.

Abstract: Systems, devices and methods for high-speed I/O margin testing can screen high volumes of pre-production and production parts and identify cases where the electrical characteristics have changed enough to impact operation. The margin tester disclosed is lower cost, easier to use and faster than traditional BERT and scopes and can operate on the full multi-lane I/O links in their standard operating states with full loading and cross-talk. The margin tester assesses the electrical receiver margin of an operation multi-lane high speed I/O link of a device under test simultaneously in either or both directions. In a technology-specific form, an embodiment of the margin tester can be implemented as an add-in card margin tester to test motherboard slots of a mother board under test, or as a as a motherboard with slots to test add-in cards.

Abstract: Systems, devices and methods for high-speed I/O margin testing can screen high volumes of pre-production and production parts and identify cases where the electrical characteristics have changed enough to impact operation. The margin tester disclosed is lower cost, easier to use and faster than traditional BERT and scopes and can operate on the full multi-lane I/O links in their standard operating states with full loading and cross-talk. The margin tester assesses the electrical receiver margin of an operation multi-lane high speed I/O link with a device under test simultaneously in either or both directions. In a technology-specific form, an embodiment of the margin tester can be implemented as an add-in card margin tester to test motherboard slots of a mother board under test, or as a as a motherboard with slots to test add-in cards.

Abstract: Data may be communicated from a sender device to a receiver device over enabled or selected byte positions or other data bit groups of a data bus. The sender device may determine data values to be sent over the data bus and may determine which byte positions are enabled or selected and which are not selected. The sender device may also determine a code. The code may be a value that is not included in the data values to be sent over the data bus. The sender device may then send the selected data values in selected byte positions of the data bus and send the code in non-selected byte positions of the data bus. The sender device may also send the code to the receiver device separately from the data bit lanes of the data bus.

Abstract: An information handling system includes a memory and a baseboard management controller. The memory stores one or more device update packages, and each of the first device update packages includes an inter-integrated circuit payload. The baseboard management controller receives a first device update package, and stores the first device update package in the memory. In response to the first device update package being stored in the memory, the baseboard management controller launches a handler. The baseboard management controller retrieves a bus number and an address for a target device identified in the first device update package. The baseboard management controller parses data in a body of the inter-integrated circuit payload of the first device update package, and executes inter-integrated circuit commands in the body to provide a firmware image update to the target device.

Abstract: A bus system is provided. A plurality of slave devices are electrically connected to a master device through an enhanced serial peripheral interface (eSPI) bus. Each slave device has an alert handshake pin. The alert handshake pins of the slave devices are electrically connected together via an alert handshake control line. In a first phase of a plurality of phases in each assignment period of an assignment stage after a synchronization stage, the first slave device is configured to control the alert handshake control line to a second voltage level via the alert handshake pin. In the phases of each of the assignment periods except for the first phase, a first slave device of the slave devices is configured to control the alert handshake control line to communicate with the slave devices via the alert handshake pin. The first phase corresponds to a first slave device.

Abstract: A mother board topology including a processor operable to be coupled to one or more communication channels for communicating commands. The topology includes a first communication channel electrically coupling a first set of two or more dual in-line memory modules (DIMMs) and a first primary data buffer on a mother board. The topology includes a second communication channel electrically coupling a second set of two or more DIMMs and a second primary data buffer on the mother board. The topology includes a third channel electrically coupling the first primary data buffer, the primary second data buffer, and the processor.

Abstract: Systems involving distributed control functions are described herein. Each member or device within the system has responsibility for controlling part of the system's behavior, and includes logic to determine what action, if any, will follow as a response to determining information or receiving information from other members or devices within the system. A change of status of one member of a system may provide a basis for action by another member of the system. Status may be the result of sensing a condition of the environment, sensing the condition of a component, receiving the output of a conventional sensor, and/or sensing the condition of a link between components. In some embodiments, action taken by a member of the system may include collecting data during law enforcement activities.

Abstract: A display includes a keyboard, video mouse (KVM) switch that interfaces plural peripheral communication ports and plural information handling system ports. The KVM switch in a first configuration accepts video from one of the information handling system ports for presentation as visual images at a display panel and interfaces all of the plural peripheral communication ports with the one of the information handling system ports. When an end user commands a change to a different information handling system port and the KVM switch detects that a predetermined information transfer is taking place at the one of the information handling system ports, such as a bulk isochronous transfer or greater than a predetermined bandwidth utilization, the KVM switch changes the interface of peripheral devices and video to the second information handling system port while maintaining the transfer of the predetermined type of information with the first information handling system port.

Abstract: Disclosed are systems, computer-readable mediums, and methods for managing client performance in a storage system. In one example, the storage system receives a request from a client to write data to the storage system. The storage system estimates, based on a system metric associated with the storage system reflecting usage of the storage system, a requested write QoS parameter for storing the data by the storage system during a first time period. The storage system further determines a target write QoS parameter for the client based on the estimated requested write QoS parameter and an allocated write QoS parameter for the client. Then, the storage system independently regulates read performance and write performance of the client using a controller to adjust the write performance toward the determined target write QoS parameter within the first time period based on feedback regarding the estimated requested write QoS parameter.

Abstract: One embodiment of the present invention sets forth a data pipeline, which includes a first mousetrap element and a second mousetrap element in a first pipeline stage. Each mousetrap element includes a request latch that, when enabled, allows a request signal to pass from the first pipeline stage to a second pipeline stage following the first pipeline stage in the data pipeline. Each mousetrap element also includes a data latch that, when enabled, allows a data element to pass from the first pipeline stage to the second pipeline stage. Each mousetrap element further includes a latch controller that enables and disables the request and data latches based on a phase signal that alternates between a first value that configures the first mousetrap element to transmit data to the second pipeline stage and a second value that configures the second mousetrap element to transmit data to the second pipeline stage.

Abstract: An apparatus coupled to a single-wire serial bus through a line driver is configured to determine that a first sequence start condition (SSC) has been initiated when the single-wire serial bus transitions from first to second signaling states. The line driver drives the single-wire serial bus to the first signaling state after a first duration to complete the first SSC, and an arbitration window with plural timeslots is provided when the line driver presents a high impedance to the single-wire serial bus after the first SSC. The line driver drives the single-wire serial bus to the first signaling state in each timeslot of the plural timeslots in which the single-wire serial bus is driven to the second signaling state. After the arbitration window has expired, the apparatus transmits a second SSC and a Manchester encoded command addressed to at least one slave device.

Abstract: The present disclosure provides a data transmission method and device. The data transmission method is used for transmitting data between an advanced reduced instruction set computing machine (ARM) and a field programmable logic gate array (FPGA) via an Inter-Integrated Circuit (IIC) bus, comprising the following steps: receiving, by the FPGA, communication data transmitted by the ARM via the IIC bus, wherein the communication data comprises first address data, first content data and N second content data, N being an integer greater than 0, the first content data and the N second content data being arranged in sequence, and the first address data being address data corresponding to the first content data; and generating, by the FPGA, second address data corresponding to each of the second content data according to the sequence of the N second content data and the first address data.

Abstract: A system containing a host and a device having a field-programmable gate array (“FPGA”) is disclosed. The system includes a set of configurable logic blocks (“LBs”), a bus, and a Universal Serial Bus (“USB”) interface. The configurable LBs, in one aspect, are able to be selectively programmed to perform one or more logic functions. The bus contains a P-channel and an N-channel operable to transmit signals in accordance with a high-speed USB protocol. The USB interface is configured to include a first differential comparator operable to identify a logic zero state at the P-channel and a second differential comparator operable to identify a logic zero state at the N-channel.

Abstract: A primary check system includes: a control unit configured to output data for primary check to a plurality of primary check circuits as a serial signal via a serial communication line; and a serial and parallel conversion circuit configured to convert the data for primary check, that is received as the serial signal, into a parallel signal and transmit the parallel signal to the plurality of primary check circuits, and the control unit is configured to set the serial and parallel conversion circuit into an active state before a primary check is started, and set the serial and parallel conversion circuit into an inactive state when the primary check is completed.

Abstract: A method for managing data exchange via at least three interfaces of a ventilator, at least one interface being configured for a data exchange with at least one counterpart station that is spatially separate from the ventilator. The data exchange comprises a data input and a data output, a data input via one of the interfaces blocking the data input via at least one other interface.

Abstract: A computing system includes a processing unit and a network device. The processing unit includes a first baseboard management controller (BMC), an external network interface coupled to the first BMC, and a first internal network interface coupled to the first BMC. The network device includes a second BMC and a second internal network interface coupled to the second BMC. The second internal network interface of the network device is connected to the first internal network interface of the processing unit. The first BMC is configured to transfer data between an external network and the second BMC via (i) the external network interface, (ii) the first internal network interface, and (iii) the second internal network interface.

Abstract: An information handling system includes a secondary baseboard management controller that may transmit a first set of data via an external interface, and transmit a second set of data via an internal interface. A primary baseboard management controller includes a data traffic manager that may transmit a first signal for the current data to be transmitted if the current data is of the first set of data, or transmit a second signal if the current data is of the second set of data.

Abstract: Apparatuses, methods, and computer-readable media are provided for operating a port manager to detect a first link condition or a second link condition of a circuitry. Under the first link condition, a first link between a downstream port of the circuitry and an upstream port of a switch is compatible to a first protocol, and a second link between a downstream port of the switch and an upstream port of a device is compatible to the second protocol. Under the second link condition, the first link exists and is compatible to the first protocol, while there is no second link being compatible to the second protocol. The port manager is to operate the downstream port of the circuitry according to the second protocol on detection of the first link condition, or according to the first protocol on detection of the second link condition. Other embodiments may be described and/or claimed.