Abstract: Managing power consumption in a computing system that includes a plurality of integrated technology elements (‘ITEs’) that receive power from a plurality of common form factor power supplies, including: determining the maximum amount of power that can be delivered by each of the common form factor power supplies; determining whether the maximum amount of power that can be delivered by a first common form factor power supply is different than the maximum amount of power that can be delivered by a second common form factor power supply; and responsive to determining that the maximum amount of power that can be delivered by the first common form factor power supply is different than the maximum amount of power that can be delivered by the second common form factor power supply, throttling one or more of the ITEs.

Abstract: Preventing oversubscription to power resources in a computing system that includes a plurality of power supplies configured to deliver power to a plurality of integrated technology elements (‘ITEs’), including: detecting, by a power management module, that power delivery capabilities of the power supplies have changed; determining, by the power management module in dependence upon a power redundancy policy and the power delivery capabilities of the power supplies, power settings for the plurality of ITEs; and updating, by the power management module, power settings for the plurality of ITEs.

Abstract: Preventing oversubscription to power resources in a computing system that includes a plurality of power supplies configured to deliver power to a plurality of integrated technology elements (‘ITEs’), including: detecting, by a power management module, that power delivery capabilities of the power supplies have changed; determining, by the power management module in dependence upon a power redundancy policy and the power delivery capabilities of the power supplies, power settings for the plurality of ITEs; and updating, by the power management module, power settings for the plurality of ITEs.

Abstract: Managing power consumption in a computing system that includes a plurality of integrated technology elements (‘ITEs’) that receive power from a plurality of common form factor power supplies, including: determining the maximum amount of power that can be delivered by each of the common form factor power supplies; determining whether the maximum amount of power that can be delivered by a first common form factor power supply is different than the maximum amount of power that can be delivered by a second common form factor power supply; and responsive to determining that the maximum amount of power that can be delivered by the first common form factor power supply is different than the maximum amount of power that can be delivered by the second common form factor power supply, throttling one or more of the ITEs.

Abstract: A method, system, and/or computer program product establishes a communication session between two entities on a shared network. A request to locate a desired entity on a shared network, which hosts one or more entities that are unknown to a requesting entity, is received from the requesting entity. A desired environment with which the desired entity is associated is selected by the requesting entity. An inquiry packet is broadcast to all entities on the shared network. The inquiry packet, which does not specify a data link layer by which any particular entity communicates with the shared network, includes a request for an identity of any entity on the shared network that is assigned to the desired environment. A response to the inquiry packet provides an identity and data link layer address of the desired entity, thus enabling the establishment of a communication session between the requesting and desired entities.

Abstract: A method, system, and/or computer program product establishes a communication session between two entities on a shared network. A request to locate a desired entity on a shared network, which hosts one or more entities that are unknown to a requesting entity, is received from the requesting entity. A desired environment with which the desired entity is associated is selected by the requesting entity. An inquiry packet is broadcast to all entities on the shared network. The inquiry packet, which does not specify a data link layer by which any particular entity communicates with the shared network, includes a request for an identity of any entity on the shared network that is assigned to the desired environment. A response to the inquiry packet provides an identity and data link layer address of the desired entity, thus enabling the establishment of a communication session between the requesting and desired entities.

Abstract: Remotely administering a server, the server including non-volatile memory upon which is disposed one or more digital images representing the server, the server also including one or more components each of which includes non-volatile memory in which is disposed one or more digital images representing the component, where the server is connected for data communications to a management module, and remotely administering the server includes: retrieving, by the management module from the server, the digital images representing the server and the digital images representing the installed components; generating, by the management module with the digital images representing the server and the digital images representing the installed components, a graphical representation of the server with the installed components; and presenting, by the management module to a user through a GUI, the graphical representation of the server with the installed components.

Abstract: A method and circuit for implementing an enhanced availability personality card for a chassis computer system, and a design structure on which the subject circuit resides are provided. The personality card includes a first erasable programmable read only memory (EPROM) and a second EPROM, each EPROM storing Vital Product Data (VPD) and a first temperature sensor and a second temperature sensor sensing temperature. A primary bidirectional bus and a redundant bidirectional bus are respectively connected between the first EPROM and the first temperature sensor and the second EPROM and the second temperature sensor, and a pair of chassis management modules. Each chassis management module includes a switch connected to both the primary bidirectional bus and the redundant bidirectional bus providing redundant paths, enabling continued function with failure of any critical personality card component.

Abstract: A system and method are directed towards a pseudo multi-master operation on a serial bus. The pseudo multi-master operation allows multiple devices without standard multi-master functionality to operate on the serial bus as masters. In a disclosed example, the serial bus is an Inter-Integrated Circuit (I2C) bus, which is isolated when an adapter card requires access to the I2C bus, such as to update vital product data (VPD) to a memory device, and to cache the updated VPD to a chassis management module.

Abstract: A method and circuit for implementing an enhanced availability personality card for a chassis computer system, and a design structure on which the subject circuit resides are provided. The personality card includes a first erasable programmable read only memory (EPROM) and a second EPROM, each EPROM storing Vital Product Data (VPD) and a first temperature sensor and a second temperature sensor sensing temperature. A primary bidirectional bus and a redundant bidirectional bus are respectively connected between the first EPROM and the first temperature sensor and the second EPROM and the second temperature sensor, and a pair of chassis management modules. Each chassis management module includes a switch connected to both the primary bidirectional bus and the redundant bidirectional bus providing redundant paths, enabling continued function with failure of any critical personality card component.

Abstract: A system and method are directed towards a pseudo multi-master operation on a serial bus. The pseudo multi-master operation allows multiple devices without standard multi-master functionality to operate on the serial bus as masters. In a disclosed example, the serial bus is an Inter-Integrated Circuit (I2C) bus, which is isolated when an adapter card requires access to the I2C bus, such as to update vital product data (VPD) to a memory device, and to cache the updated VPD to a chassis management module.

Abstract: Remotely administering a server, the server including non-volatile memory upon which is disposed one or more digital images representing the server, the server also including one or more components each of which includes non-volatile memory in which is disposed one or more digital images representing the component, where the server is connected for data communications to a management module, and remotely administering the server includes: retrieving, by the management module from the server, the digital images representing the server and the digital images representing the installed components; generating, by the management module with the digital images representing the server and the digital images representing the installed components, a graphical representation of the server with the installed components; and presenting, by the management module to a user through a GUI, the graphical representation of the server with the installed components.

Abstract: Remotely administering a server, the server including non-volatile memory upon which is disposed one or more digital images representing the server, the server also including one or more components each of which includes non-volatile memory in which is disposed one or more digital images representing the component, where the server is connected for data communications to a management module, and remotely administering the server includes: retrieving, by the management module from the server, the digital images representing the server and the digital images representing the installed components; generating, by the management module with the digital images representing the server and the digital images representing the installed components, a graphical representation of the server with the installed components; and presenting, by the management module to a user through a GUI, the graphical representation of the server with the installed components.

Abstract: Autoconfiguration of an IPv6 component in a segmented network including receiving an IPv6 packet; determining whether the received IPv6 packet is a router advertisement or a router solicitation; if the received IPv6 packet is a router advertisement, then retrieving through an out-of-band link a MAC address for the IPv6 component, removing a MAC address of a sending router, inserting in the packet instead an internal MAC address for forwarding packets to the IPv6 component, removing a multicast destination MAC address, inserting in the packet the destination MAC address of the IPv6 component, and forwarding the packet to the IPv6 component as a unicast message; if the received IPv6 packet is a router solicitation, then removing the MAC address of the sending IPv6 component, inserting in the packet instead an external MAC address for forwarding packets to the router, and forwarding the packet to the router as a multicast message.

Abstract: Methods, apparatus, and products for managing virtual addresses of blade servers in a data center are disclosed that include storing by a blade server management module (‘BSMM’), in non-volatile memory of a blade server, a parameter block, the parameter block including one or more virtual addresses for communications adapters of the blade server and one or more action identifiers, each action identifier representing a type of address modification; detecting, by a basic input-output system (‘BIOS’) module of the blade server upon powering on the blade server, the parameter block; and modifying, by the BIOS module of the blade server in dependence upon the one or more action identifiers of the parameter block, an address of at least one communications adapter of the blade server.

Abstract: Power restoration to blade servers including maintaining a list of blade server identifications and a value of power saving for each capped blade server; identifying losing power to the capped blade servers; restoring power to the previously capped blade servers in order of the values of power savings.

Abstract: Autoconfiguration of an IPv6 component in a segmented network including receiving an IPv6 packet; determining whether the received IPv6 packet is a router advertisement or a router solicitation; if the received IPv6 packet is a router advertisement, then retrieving through an out-of-band link a MAC address for the IPv6 component, removing a MAC address of a sending router, inserting in the packet instead an internal MAC address for forwarding packets to the IPv6 component, removing a multicast destination MAC address, inserting in the packet the destination MAC address of the IPv6 component, and forwarding the packet to the IPv6 component as a unicast message; if the received IPv6 packet is a router solicitation, then removing the MAC address of the sending IPv6 component, inserting in the packet instead an external MAC address for forwarding packets to the router, and forwarding the packet to the router as a multicast message.

Abstract: Power restoration to blade servers including maintaining a list of blade server identifications and a value of power saving for each capped blade server; identifying losing power to the capped blade servers; restoring power to the previously capped blade servers in order of the values of power savings.

Abstract: Methods and arrangements for activating Internet Protocol (IP) configurations are discussed. Embodiments include transformations, code, state machines or other logic for activating in an end node an IP configuration suitable for IP communications between the end node and another end node upon the detection of a direct IP connection of the end node to another end node. In some embodiments, the other end node may have a direct IP connect only to the end node. In some embodiments, the suitable IP configuration may involve a static IP address which has been published. In some embodiments, detecting a direct IP connection with another node may be accomplished by detecting a crossed-over Ethernet connection. In some embodiments, an operating system device driver may activate the suitable IP configuration. In other embodiments, an embedded system may activate the suitable IP configuration.

Abstract: Remotely administering a server, the server including non-volatile memory upon which is disposed one or more digital images representing the server, the server also including one or more components each of which includes non-volatile memory in which is disposed one or more digital images representing the component, where the server is connected for data communications to a management module, and remotely administering the server includes: retrieving, by the management module from the server, the digital images representing the server and the digital images representing the installed components; generating, by the management module with the digital images representing the server and the digital images representing the installed components, a graphical representation of the server with the installed components; and presenting, by the management module to a user through a GUI, the graphical representation of the server with the installed components.