Abstract: In an aspect of the disclosure, a method, a computer-readable medium, and a computer system are provided. A first device of the computer system emulates one or more sensors monitoring one or more operating characteristics of a host of a BMC of the computer system. The first device generates first data of a first sensor of the one or more emulated sensors. The first sensor monitors a first operating characteristic of the one or more operating characteristics. The first device sends, to the BMC, the first data and an indication indicating that the first data is associated with the first sensor.

Abstract: In an aspect of the disclosure, a method, a computer-readable medium, and an apparatus are provided. The apparatus may be an embedded-system device. The embedded-system device receives a first message including first command or data from a client. The embedded-system device triggers a BIOS of a host of the embedded-system device to communicate with the embedded-system device. The embedded-system device receives a request from the BIOS. The embedded-system device sends the first command or data to the BIOS in response to the request.

Abstract: Aspects of the disclosure relate to management node failover systems and methods. The system includes two management devices and a detection and reversal device. Each of the two management devices has a processor and a non-volatile memory storing computer executable code. The two management devices function respectively as an active node and a passive node. The detection and reversal device monitors status of the active node. When the active node fails, the detection and reversal device sends an activation signal to the passive node. The passive node, in response to receiving the active signal, switches from the passive node to the active node.

Abstract: A system includes a management controller for managing a plurality of computing platforms. The management controller includes a processor, a physical network interface controller (NIC), a volatile memory, and a non-volatile memory storing computer executable code. The computer executable code, when executed at the processor, is configured to: provide a plurality of firmware instances, each corresponding to a respective one of the computing platforms; configure a plurality of virtual NICs (VNICs), each of the VNICs corresponding to a respective one of the firmware instances, wherein the VNICs share network resource provided by the physical NIC; and for each of the firmware instances, in response to a communication command to transmit data through the corresponding VNIC, transmit the data through the physical NIC.

Abstract: Systems and methods for providing and supporting multiple Intelligent Platform Management Interface (IPMI) serial over local area network (SOL) sessions in a management controller. The system includes a management controller used to manage multiple nodes, and at least one remote computing device connected to the management controller via a local area network (LAN). In operation, the management controller configures multiple serial ports for the nodes, so the management controller is communicatively connectable to each of the nodes respectively via one of the serial ports. When the management controller receives a SOL request from the remote computing device to establish a SOL session to access a specific node, the management controller may accordingly establish the SOL session between the specific node and the remote computing device sending the SOL request. Thus, the management controller may support multiple SOL sessions, and may store information of each of the SOL sessions independently.

Abstract: A system includes a baseboard management controller (BMC), capable of online update of the BMC without shutting down any services. The BMC includes a processor, a volatile memory configured to perform multiple service instances, and a non-volatile memory storing a computer executable code and a root file system. The root file system includes multiple service modules as origin of the service instances. The computer executable code, when executed at the processor, is configured to: receive an update command and perform an update process based on the update command. The update process includes: copying the root file system from the non-volatile memory to the volatile memory; switching the origin of the service instances to the copy of the root file system; receiving an update root file system code; and writing the update root file system code to the non-volatile memory to obtain an updated root file system.

Abstract: In an aspect of the disclosure, a method, a computer-readable medium, and an apparatus are provided. The apparatus may be an embedded-system device. The embedded-system device receives a first message including first command or data from a client. The embedded-system device triggers a BIOS of a host of the embedded-system device to communicate with the embedded-system device. The embedded-system device receives a request from the BIOS. The embedded-system device sends the first command or data to the BIOS in response to the request.

Abstract: In an aspect of the disclosure, a method, a computer-readable medium, and a computer system are provided. A first device of the computer system emulates one or more sensors monitoring one or more operating characteristics of a host of a BMC of the computer system. The first device generates first data of a first sensor of the one or more emulated sensors. The first sensor monitors a first operating characteristic of the one or more operating characteristics. The first device sends, to the BMC, the first data and an indication indicating that the first data is associated with the first sensor.

Abstract: In an aspect of the disclosure, a method, a computer-readable medium, and an apparatus are provided. The apparatus may be an embedded-system device. The apparatus may be an embedded-system device. The embedded-system device emulates a first serial port. The embedded-system device exposes the first serial port to a host of the embedded-system device through a USB connection. The embedded-system device receives first USB packets containing first command or data from the host through the USB connection. The embedded-system device inputs the first command or data to the first serial port.

Abstract: In an aspect of the disclosure, a method, a computer-readable medium, and an apparatus are provided. The apparatus may be an embedded-system device. The embedded-system device emulates a USB device. The embedded-system device exposes the emulated USB device to a host of the embedded-system device through a USB connection. The embedded-system device receives data from BIOS of the host through the emulated USB device.

Abstract: In an aspect of the disclosure, a method, a computer-readable medium, and an apparatus are provided. The apparatus may be a management device. The management device obtains an organizational file of an executable program. The management device determines a list of libraries that are depended to execute the executable program. The management device obtains the list of libraries from one or more library collections. The library collections include at least one library that is not in the list of libraries. The management device constructs an embedded-system device with the executable program and the list of libraries without the at least one library.

Abstract: Certain aspects direct to systems and methods for network switch management via a management controller using a management information base (MIB) to JavaScript Object Notation (JSON) parser. At a computing device, an administrator provides a MIB file corresponding to a network switch to be managed. Then the administrator utilizes a parser application to parse the MIB file at the computing device to retrieve Object Identifiers (OIDs) from the MIB file, and then converts the OIDs to JSON objects, in order to generate parsed information of the MIB file including the JSON objects. Thus, the administrator may use a browser to access a web user interface at a management controller to upload the parsed information of the MIB file to the management controller. The management controller may then manage and configure the network switch through a Simple Network Management Protocol (SNMP) interface based on the parsed information of the MIB file.

Abstract: Certain aspects direct to systems and methods for device or vendor independent network switch management on a management controller. The management controller is communicatively connected to a network switch through a Simple Network Management Protocol (SNMP) interface. The management controller receives parsed information of a management information base (MIB) file corresponding to the network switch, and establishes a communication between the management controller and the network switch through the SNMP interface based on the parsed information of the MIB file, in which the management controller functions as a client and the network switch functions as a server of the communication. Then the management controller receives an input to manage and configure the network switch, and manages and configures the network switch via the communication through the SNMP interface based on the input and the parsed information of the MIB file.

Abstract: Certain aspects direct to systems and methods for providing an intuitive user interface (UI) for device or vendor independent network switch management via a management controller. The management controller is communicatively connected to a network switch through a Simple Network Management Protocol (SNMP) interface. The management controller provides a web UI. When a remote computing device request the web UI, the management controller sends the web UI to the remote computing device. Thus, a user at the remote computing device may upload the parsed information of the MIB file to the management controller through the UI. The management controller then processes the parsed information of the MIB file, and displays the processed parsed information in a hierarchical organization through the UI. Then the management controller establishes a communication between the management controller and the network switch through the SNMP interface based on the parsed information of the MIB file.

Abstract: Certain aspects direct a distributed Intelligent Platform Management Interface (D-IPMI) system. The system includes a computing device and a distributed management device. The distributed management device includes a first management device and at least one second management device physically separated from each other. A stack interface connects the first management device and the second management device to perform an internal communication between the first management device and the second management device. The first management device may be used to perform time critical functions related to the computing device, and the second management device may be used to perform non-critical functions. For example, the first management device may perform system power control of the computing device, monitor system components and obtaining system information of the computing device, and perform system communication with the computing device.

Abstract: Certain aspects direct to systems and methods for providing internal system interface-based bridging support in a server management device. The system includes a server management device and a satellite controller. The server management device has an Intelligent Platform Management Interface (IPMI) stack and a management service module. The management service module, when executed, provides a corresponding management service. Further, a satellite communication is established between the IPMI stack and the satellite controller through a satellite control interface, such as an IPMB interface. In operation, the server management device defines an internal system interface, and configures the internal system interface to establish an inter-process communication (IPC) channel between the IPMI stack and the management service using the internal system interface.

Abstract: Aspects of the disclosure relate to systems and methods for performing communications between a management device and a host computer through a device independent universal serial bus (USB) interface. The system includes a management device communicatively connected to a computing device through a first communication link. In operation, the management device emulates a mass storage device to the computing device through the first communication link, and then identifies the emulated mass storage device as an unsupported mass storage device to the computing device, such that the emulated mass storage device is accessible by the computing device as a bulk-only device. Thus, Intelligent Platform Management Interface (IPMI) communications between the management device and the computing device may be performed using the bulk-only device mechanism.

Abstract: Aspects of the disclosure relate to systems and methods for performing a universal Intelligent Platform Management Interface (IPMI) host-to-baseboard management controller (BMC) communication. The system includes a management device communicatively connected to a computing device through a communication link, such as a universal serial bus (USB) interface. In operation, the management device identifies itself to the computing device as a generic human interface device (HID) pipe device. Thus, a HID channel is established between the management device and the computing device through the USB interface. When the management device receives a first message from the computing device directed toward the generic HID pipe device through the HID channel, the management device may determine whether the message is an IPMI message intended for communicating with the management device. When the message is the IPMI message, the management device processes the IPMI message.

Abstract: A system includes a baseboard management controller (BMC) and a remote computing device communicatively connected to the BMC via a network. The BMC includes a processor, a volatile memory, and a non-volatile memory storing a firmware. The remote computing device includes first and second computer executable code. The firmware, when executed at the processor, is configured to: in response to a debug command, request, receive, and execute the first computer executable code. The first computer executable code, when executed at the processor, is configured to mount a remote file system to the BMC corresponding to the second computer executable code, such that the second computer executable code is accessible to the BMC, retrieve the second computer executable code, and execute the second computer executable code at the BMC to perform an on-site debug process without interrupting operation of the firmware.

Abstract: Aspects of the disclosure relate to systems and methods for performing a universal Intelligent Platform Management Interface (IPMI) host-to-baseboard management controller (BMC) communication. The system includes a management device communicatively connected to a computing device through a communication link, such as a universal serial bus (USB) interface. In operation, the management device identifies itself to the computing device as a generic human interface device (HID) pipe device. Thus, a HID channel is established between the management device and the computing device through the USB interface. When the management device receives a first message from the computing device directed toward the generic HID pipe device through the HID channel, the management device may determine whether the message is an IPMI message intended for communicating with the management device. When the message is the IPMI message, the management device processes the IPMI message.