Abstract: A computing device includes a top cover, a heater apparatus, a plurality of temperature sensors, and a heating control component. The heater apparatus includes a heater component and a connector, and the heater component is affixed to the top cover. The plurality of temperature sensors are operatively connected to the heating control component. The heating control component configured to manage the heater apparatus using the plurality of temperature sensors.

Abstract: A computing device includes a heat dissipation component, a heating or cooling apparatus, and a printed circuit board. The heating or cooling apparatus includes a heating or cooling component and a wire, and the heating or cooling component is affixed to a surface of the heat dissipation component. The printed circuit board includes a printed circuit board component, and the heat dissipation component is affixed to the printed circuit board component and configured to heat or cool the printed circuit board component.

Abstract: An improved method and system for controlling the powering-on of an electronic device when initially the internal temperature is below a safe threshold. The method and system can preheat the electronic device until it is at a safe temperature in which to safely power-on the electronic device. Alternatively or in addition, the method and system can alert a user if the temperature is below a threshold and proceed to power-on when the temperature is above the threshold.

Abstract: An information handling system includes a plurality of computing devices, and at least one environmental management unit external to the plurality of the computing devices and configured to manage an internal environment of the information handling system.

Abstract: A computing device includes a heat dissipation component, a heating or cooling apparatus, and a printed circuit board. The heating or cooling apparatus includes a heating or cooling component and a wire, and the heating or cooling component is affixed to a surface of the heat dissipation component. The printed circuit board includes a printed circuit board component, and the heat dissipation component is affixed to the printed circuit board component and configured to heat or cool the printed circuit board component.

Abstract: Embodiments of the invention may provide an improved method for pre-heating an electronic device such as an information handling system, when internal temperatures are below safe operating ranges. To do so, the system selectively heats the entire device or select zones of the electronic device for a predetermined amount of time when the system is restarted after a period of time sufficient to bring the system to ambient temperatures. The predetermined amount of time is determined based on measured ambient temperatures. Using a table that corresponds the ambient temperatures to a time that a component needs to heat up to a nominal temperature in a zone, the predetermined time can be calculated.

Abstract: An improved method and system for heating and cooling an electronic device, when internal temperatures are below safe operating ranges. To do so, the system selectively heats or cools each zone of the electronic device. This may be done by individual heaters and/or cooling system for each separate zones. Alternatively, or in addition too, the system can selectively open and close baffles, causing fresh ambient air to enter and/or recirculate heated air in a device’s enclosure. This keeps sensitive components of the computing device, such as processors and memory from suffering damage, by operating them at temperatures that are either too cold or too warm.

Abstract: A computing device includes a top cover, a heater apparatus, a plurality of temperature sensors, and a heating control component. The heater apparatus includes a heater component and a connector, and the heater component is affixed to the top cover. The plurality of temperature sensors are operatively connected to the heating control component. The heating control component configured to manage the heater apparatus using the plurality of temperature sensors.

Abstract: An information handling system includes a plurality of computing devices, and at least one environmental management unit external to the plurality of the computing devices and configured to manage an internal environment of the information handling system.

Abstract: An apparatus for coupling an information handling system server to an electrical infrastructure of an information handling system rack may include a mechanical housing, a server-facing interface on a first side of the mechanical housing and comprising one or more server-facing electrical connectors each configured to electrically couple to a respective electrically-conductive feature of the server, a rack-facing interface on a second side of the mechanical housing comprising one or more rack-facing electrical connectors each configured to electrically couple to a respective electrically-conductive feature of the electrical infrastructure, and an intermediate electrical interface comprising one or more electrically-conductive conduits, each electrically-conductive conduit configured to electrically couple a server-facing electrical connector to a corresponding rack-facing electrical connector in order to electrically couple electrically-conductive features of the electrical infrastructure to respective electri

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: DCMI functionality is extended to platforms of a datacenter by integrating a management controller in each of plural platforms and interfacing the management controllers with a management server through a network. End users interface with platforms of the datacenter using DCMI protocol communications. The management server supports communication with management controllers by receiving DCMI messages and translating the DCMI messages to a text-based protocol for communications with the management controllers. In one embodiment, the management controllers push sensor information for their associated platforms to a sensor cache of the management server so that the management sensor references the cache to respond to DCMI requests for sensor information.

Abstract: A scalable power and management module (PMM) includes a chassis configured to be slideably inserted into a power and management bay within a rack. The PMM provides scalable power distribution and rack-level management functions that are shared by several information technology (IT) gear. Several power supply units (PSUs) are mounted in the chassis. The number of PSUs is scalable based on the number of IT gear. A management controller is mounted in the chassis to provide rack-level management of the IT gear and at least one associated block controller within the rack. A power controller is mounted in the chassis and is communicatively coupled to the PSUs and the management controller. The power controller controls power functions of the PMM.

Abstract: A rack-based information handling system (IHS) includes a rack containing at least one chassis having a plurality of bays open to laterally receive sleds that contain a plurality of information technology (IT) components that, when operational, enable the rack to function as an IHS. A storage sled including a stationary tray received in the chassis and a moveable trace received in the stationary tray. One or more hot swap bays that are horizontally arrayed in the storage sled in less than one (1) Server System Infrastructure (SSI) rack unit of height, wherein the moveable tray is extendable from the rack to a service position to expose all of its hot swap bays. Storage devices are insertable into a respective one of the hot swap bays of the storage sled. Each storage device may include a latching handle to lift and downward position the storage device in the corresponding hot swap bay.

Abstract: A scalable power and management module (PMM) includes a chassis configured to be slideably inserted into a power and management bay within a rack. The PMM provides scalable power distribution and rack-level management functions that are shared by several information technology (IT) gear. Several power supply units (PSUs) are mounted in the chassis. The number of PSUs is scalable based on the number of IT gear. A management controller is mounted in the chassis to provide rack-level management of the IT gear and at least one associated block controller within the rack. A power controller is mounted in the chassis and is communicatively coupled to the PSUs and the management controller. The power controller controls power functions of the PMM.

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 rack-based information handling system (IHS) includes a rack containing at least one chassis having a plurality of bays open to laterally receive sleds that contain a plurality of information technology (IT) components that, when operational, enable the rack to function as an IHS. A storage sled including a stationary tray received in the chassis and a moveable trace received in the stationary tray. One or more hot swap bays that are horizontally arrayed in the storage sled in less than one (1) Server System Infrastructure (SSI) rack unit of height, wherein the moveable tray is extendable from the rack to a service position to expose all of its hot swap bays. Storage devices are insertable into a respective one of the hot swap bays of the storage sled. Each storage device may include a latching handle to lift and downward position the storage device in the corresponding hot swap bay.

Abstract: DCMI functionality is extended to platforms of a datacenter by integrating a management controller in each of plural platforms and interfacing the management controllers with a management server through a network. End users interface with platforms of the datacenter using DCMI protocol communications. The management server supports communication with management controllers by receiving DCMI messages and translating the DCMI messages to a text-based protocol for communications with the management controllers. In one embodiment, the management controllers push sensor information for their associated platforms to a sensor cache of the management server so that the management sensor references the cache to respond to DCMI requests for sensor information.

Abstract: A power supply system for detecting an operating configuration of a device, such as a processor, and for providing a corresponding operating voltage to the device. The power supply system includes a configurable power supply receiving configuration signals and for providing an operating voltage having a level corresponding to the configuration signals. A frequency determination circuit, such as a speed jumper block, is provided for asserting a signal indicative of the operating frequency of the device. Also, a device configuration circuit receives a signal indicative of the operating frequency and also receives a signal indicative of a plane configuration of the device, and correspondingly asserts the configuration signals to correspond to one of a matrix or plurality of predetermined operating voltage levels.