Abstract:
A computer-implemented method enables global throttling of processing nodes in a rack-configured information handling system (RIHS). A rack-level management controller receives power-usage data and operating parameters associated with processing nodes within separately-controlled blocks of the RIHS. A power subsystem of the RIHS regulates an amount of power supplied to the processing nodes of the RIHS based on the power-usage data and operating parameters for the processing nodes and a total amount of available power for distribution within the RIHS. In response to detecting a condition that reduces the total amount of available power for distribution within the IHS, the management controller autonomously initiates global throttling of the processing nodes within the IHS to reduce power consumption by at least one of the processing nodes. The global throttling is completed via a signal transfer over a select Ethernet cable wire to connected block controllers that control the processing nodes.
Abstract:
A rack-based information handling system (RIHS) includes: a rack chassis having a plurality of interconnected panels forming a volumetric space having a front section and a rear section, both with opposing side panels forming a front access space and a rear access space, respectively, between corresponding opposing side panels; one or more IT gear sleds that are inserted into the front section of the rack chassis; and a pair of front expansion panels that are added to the rack chassis and which extend past an end of the opposing side panels at the front section of the rack chassis to provide a deeper IT bay within the front section and enable insertion of longer-than-standard depth IT gear within the rack chassis. The front expansion panels are cable management panels that include at least one strap that is utilized to secure one or more cables extending from one or more IT gear inserted into the rack chassis.
Abstract:
A modular, scalable and expandable (MSE) rack-based information handling system (RIHS) includes: a rack assembly having a frame that defines: a front bay chassis with height, depth and width dimensions that enable insertion of a plurality of different sizes of IT gear; and a rear bay that accommodates power and cooling components to support operation of the different sizes of IT gear. The power and cooling for the IT gear are provided from the rear bay and are separate from and independent of the IT gear installed within the front bay chassis. The rack assembly further includes a power and management chassis in which is inserted a power and management module having power and management components located thereon to provide rack-level power and management. A modular configuration of fan modules are inserted within fan receptacles within the rear bay to provide block level cooling of adjacent blocks of IT gear.
Abstract:
A modular, scalable and expandable (MSE) rack-based information handling system (RIHS) includes: a rack assembly having a frame that defines: a front bay chassis with height, depth and width dimensions that enable insertion of a plurality of different sizes of IT gear; and a rear bay that accommodates power and cooling components to support operation of the different sizes of IT gear. The power and cooling for the IT gear are provided from the rear bay and are separate from and independent of the IT gear installed within the front bay chassis. The rack assembly further includes a power and management chassis in which is inserted a power and management module having power and management components located thereon to provide rack-level power and management. A modular configuration of fan modules are inserted within fan receptacles within the rear bay to provide block level cooling of adjacent blocks of IT gear.
Abstract:
A rack apparatus includes a frame having (i) a power and cooling area and (ii) a block chassis forming one or more information technology (IT) bays that enable insertion of IT components. A plurality of IT components are contained within a component cabinet inserted in the block chassis. When operational, enable the rack apparatus to function as one of an information handling system (IHS) and an extension of a modular, scalable/expandable rack-based IHS. A busbar physically located at a back of the block chassis within the power and cooling area and enables direct coupling to one of another busbar and a power source to supply power to the plurality of IT components from a power interface board. A block controller is contained in the block chassis and communicatively coupled to the other IT components. The block controller performs all localized, block level control for the rack apparatus.
Abstract:
A computer-implemented method enables global throttling of processing nodes in a rack-configured information handling system (RIHS). A rack-level management controller receives power-usage data and operating parameters associated with processing nodes within separately-controlled blocks of the RIHS. A power subsystem of the RIHS regulates an amount of power supplied to the processing nodes of the RIHS based on the power-usage data and operating parameters for the processing nodes and a total amount of available power for distribution within the RIHS. In response to detecting a condition that reduces the total amount of available power for distribution within the IHS, the management controller autonomously initiates global throttling of the processing nodes within the IHS to reduce power consumption by at least one of the processing nodes. The global throttling is completed via a signal transfer over a select Ethernet cable wire to connected block controllers that control the processing nodes.
Abstract:
Systems and methods for automatic failover in modular chassis systems. In some embodiments, a modular chassis includes a chassis management controller and a plurality of server blades. A first of the plurality of server blades may be configured to detect an internal fault to and to transmit a corresponding alert message to the chassis management controller via a midplane connection. Moreover, the chassis management controller may be configured to initiate a migration procedure to transfer one or more workloads from the first server blade to a second of the plurality of server blades.
Abstract:
Modular dense storage arrays are disclosed. In some embodiments, a modular storage array may include a chassis configured to receive a plurality of drive bay modules, a first of the plurality of drive bay modules configured to receive a first plurality of storage drives in the absence of a drive adaptor, each of the first plurality of storage drives having a first form factor, and a second of the plurality of drive bay modules configured to receive a second plurality of storage drives in the absence of the drive adaptor, each of the second plurality of storage drives having a second form factor different from the first form factor.
Abstract:
A power switching system, a method, and an information handling system (IHS) enables selective activation and de-activation of respective alternating current (AC) outlets of a plurality of AC outlets within an AC switch (ACS). The AC switch includes a decoder circuit that is couple via a control interface to a management controller (MC) and receives control commands from the control interface. In response to receipt of the control command, the decoder circuit decodes the command in order to provide control signals to one or more of a number of serial voltage relays, which are each respectively coupled to the AC outlets. The AC switch utilizes the decoder circuit to respectively configure the serial voltage relays using the control signals. By configuring the serial voltage relays, the MC provides and/or removes respective connections between AC inputs and AC outlets, which selectively activates and/or de-activates respective AC outlets.
Abstract:
A computer-implemented method enables rack-level predictive power capping and power budget allocation to processing nodes in a rack-based IHS. A rack-level management controller receives node-level power-usage data and settings from several block controllers, including current power consumption and an initial power budget for each node. A power consumption profile is generated based on the power-usage data for each node. A total available system power of the IHS is identified. A system power cap is determined based on the power consumption profiles and the total available system power. A current power budget is determined for each node based on an analysis of at least one of the power consumption profile, the initial power budget, the current power consumption, the system power cap, and the total available system power. A power subsystem regulates power budgeted and supplied to each node based on the power consumption profiles and the system power cap.