Abstract: The present disclosure describes several embodiments, e.g., a method, a baseboard management controller (BMC) system, a computer-readable non-transitory medium, for managing boot images for a computer system. These embodiments may include obtaining, by a BMC of the BMC system, a first boot image for the processor-based system, storing, by the BMC of the BMC system, the first boot image at a first location in a memory element of BMC system, and informing, by the BMC of the BMC system to a bus-to-memory bridge, first location information indicating a first location at which the first boot image is stored. The present disclosure also describes the bus-to-memory bridge which interfaces between a bus of the processor-based system and the memory element of the BMC system to allow one or more processors of the processor-based system to access the memory element of the BMC system to obtain boot image(s).

Abstract: The present disclosure describes several embodiments, e.g., a method, a baseboard management controller (BMC) system, a computer-readable non-transitory medium, for managing boot images for a computer system. These embodiments may include obtaining, by a BMC of the BMC system, a first boot image for the processor-based system, storing, by the BMC of the BMC system, the first boot image at a first location in a memory element of BMC system, and informing, by the BMC of the BMC system to a bus-to-memory bridge, first location information indicating a first location at which the first boot image is stored. The present disclosure also describes the bus-to-memory bridge which interfaces between a bus of the processor-based system and the memory element of the BMC system to allow one or more processors of the processor-based system to access the memory element of the BMC system to obtain boot image(s).

Abstract: The present disclosure describes several embodiments, e.g., a method, a baseboard management controller (BMC) system, a computer-readable non-transitory medium, for managing boot images for a computer system. These embodiments may include obtaining, by a BMC of the BMC system, a first boot image for the processor-based system, storing, by the BMC of the BMC system, the first boot image at a first location in a memory element of BMC system, and informing, by the BMC of the BMC system to a bus-to-memory bridge, first location information indicating a first location at which the first boot image is stored. The present disclosure also describes the bus-to-memory bridge which interfaces between a bus of the processor-based system and the memory element of the BMC system to allow one or more processors of the processor-based system to access the memory element of the BMC system to obtain boot image(s).

Abstract: The present disclosure describes several embodiments, e.g., a method, a baseboard management controller (BMC) system, a computer-readable non-transitory medium, for managing boot images for a computer system. These embodiments may include obtaining, by a BMC of the BMC system, a first boot image for the processor-based system, storing, by the BMC of the BMC system, the first boot image at a first location in a memory element of BMC system, and informing, by the BMC of the BMC system to a bus-to-memory bridge, first location information indicating a first location at which the first boot image is stored. The present disclosure also describes the bus-to-memory bridge which interfaces between a bus of the processor-based system and the memory element of the BMC system to allow one or more processors of the processor-based system to access the memory element of the BMC system to obtain boot image(s).

Abstract: A Cost-Reduced Enterprise Server (CRES) system includes a flexible resource-efficient server having a plurality of Processor Memory Boards (PMBs) coupled to an Input/Output Module (IOM). The IOM provides all networking and storage interfaces for the server. The IOM is implemented as a field-replaceable pluggable module, and thus all Input/Output (I/O) capabilities or resources of a CRES system may be upgraded via replacement of the IOM. Each PMB is dividable into a pair of Symmetric MultiProcessor (SMP) complexes, and each complex is coupled to a respective portion of the I/O resources provided by the IOM. Each portion of the IOM provides a pair of I/O daughter-module connectors compatible with standard I/O interfaces, such as Peripheral Component Interconnect (PCI)-X and PCI-Express. One or more CRES systems may be coupled to one or more Enterprise Server (ES) systems to form a multi-chassis server managed collectively as one or more provisioned servers.

Abstract: A Cost-Reduced Enterprise Server (CRES) system includes a flexible resource-efficient server having a plurality of Processor Memory Boards (PMBs) coupled to an Input/Output Module (IOM). The IOM provides all networking and storage interfaces for the server. The IOM is implemented as a field-replaceable pluggable module, and thus all Input/Output (I/O) capabilities or resources of a CRES system may be upgraded via replacement of the IOM. Each PMB is dividable into a pair of Symmetric MultiProcessor (SMP) complexes, and each complex is coupled to a respective portion of the I/O resources provided by the IOM. Each portion of the IOM provides a pair of I/O daughter-module connectors compatible with standard I/O interfaces, such as Peripheral Component Interconnect (PCI)-X and PCI-Express. One or more CRES systems may be coupled to one or more Enterprise Server (ES) systems to form a multi-chassis server managed collectively as one or more provisioned servers.