Abstract: Systems, apparatuses, methods, and computer-readable media, for a computing platform including a controller to manage an amount of power supplied to a processor core. The processor core operates in a first operation mode consuming a first power level, and in a second operation mode consuming a second power level higher than the first power level. The controller is to reduce or cause to be reduced an amount of power supplied to a component of a thermal energy management solution for a time period from a third power level to a fourth power level lower than the third power level, while increasing or causing to be increased an amount of power supplied to the processor core for the processor core to operate in the second operation mode at the second power level during but not exceed the time period. Other embodiments may be described and/or claimed.

Abstract: Apparatuses and systems associated with anti-recirculation devices for fan-implemented coolant systems are disclosed herein. In embodiments, an apparatus for server computing may include a housing to be affixed adjacent to a fan associated with providing a flow of air to a compute, storage or network node. The housing may be in line with the flow of air, and may have an arrangement of apertures formed in a side of the housing. The apparatus may further include a gate rotatably coupled to the housing. The gate may include a door to rotate to cover the arrangement of apertures based on a lack of air being blown by the fan to prevent a back flow of air through the fan. Other embodiments may be described and/or claimed.

Abstract: In some embodiments a processor is adapted to store a relationship of power as a function of temperature and voltage, wherein the stored relationship data is to be used for managing power in a system including the processor. Other embodiments are described and claimed.

Abstract: In some embodiments a processor is adapted to store a relationship of power as a function of temperature and voltage, wherein the stored relationship data is to be used for managing power in a system including the processor. Other embodiments are described and claimed.

Abstract: A device is presented having an optical emitter/receiver device. The device has a light pipe connected with the optical emitter/receiver device. Also a rotating shaft having at least one opening. The light pipe is situated within the rotating shaft. At least one bearing having a reflective marker is connected to the shaft.

Abstract: A device is presented having a multiplicity of motors connected to a shaft. A multiplicity of motor control devices are connected to the motors. A multiplicity of bearings are connected to the motors and the shaft. The multiplicity of motors, the multiplicity of motor control devices and the multiplicity of bearings continue to control the shaft rotation speed upon failure of either one of the multiplicity of motors, the multiplicity of motor control devices, or the multiplicity of bearings. Also presented is a device having at least one motor connected to a shaft. At least one bearing is connected to the at least one motor and the shaft. The at least one bearing has a multiplicity of rotating sleeves.

Abstract: A heat dissipation device having an integral load centering mechanism adapted to provide a location for contact between a spring clip and the heat dissipation device. The load centering mechanism is located in an area on the heat dissipation device which will provide a centered loading to a microelectronic die and constitutes substantially the only place where the spring clip contacts the heat dissipation device when the spring clip is providing a force against the heat dissipation device.

Abstract: A heat dissipation device having an integral load centering mechanism adapted to provide a location for contact between a spring clip and the heat dissipation device. The load centering mechanism is located in an area on the heat dissipation device which will provide a centered loading to a microelectronic die and constitutes substantially the only place where the spring clip contacts the heat dissipation device when the spring clip is providing a force against the heat dissipation device.

Abstract: A device is presented having at least one power supply. The power supply is connected to a power supply fan. A first power source terminal is connected to the at least one power supply. A second power source terminal is connected to the at least one power supply. The power supply fan is powered from a source external to the at least one power supply.

Abstract: A device is presented having an optical emitter/receiver device. The device has a light pipe connected with the optical emitter/receiver device. Also a rotating shaft having at least one opening. The light pipe is situated within the rotating shaft. At least one bearing having a reflective marker is connected to the shaft.

Abstract: A bearing is presented having a multiplicity of rotating sleeves. A bushing is connected to one of the multiplicity of rotating sleeves. At least one bearing set is connected to the multiplicity of rotating sleeves. Also, a bearing is presented having a multiplicity of rotating sleeves. At least two bearing sets are connected to the multiplicity of rotating sleeves. Another bearing is presented having a multiplicity of rotating sleeves. At least two bearing sets are connected to the multiplicity of rotating sleeves. A bushing is connected with one of the rotating sleeves.

Abstract: A device is presented having an optical emitter/receiver device. The device has a light pipe connected with the optical emitter/receiver device. Also a rotating shaft having at least one opening. The light pipe is situated within the rotating shaft. At least one bearing having a reflective marker is connected to the shaft.

Abstract: A device is presented having a first and a second motor control device. The first and the second motor control devices control rotation speed of a motor. The first or the second motor control devices continue to control rotation speed of the motor upon failure of either the first or the second motor control device. Also presented is a device having at least one motor. The at least one motor having at least one pair of bifilar windings. A further device is presented having at least one motor. The at least one motor having at least eight magnetic lobes. Another device is presented having a first motor connected to a shaft. A second motor is connected to the shaft. A fan hub is connected to the shaft. A fan blade is connected to the fan hub.

Abstract: A device is presented having a first and a second motor control device. The first and the second motor control devices control rotation speed of a motor. The first or the second motor control devices continue to control rotation speed of the motor upon failure of either the first or the second motor control device. Also presented is a device having at least one motor. The at least one motor having at least one pair of bifilar windings. A further device is presented having at least one motor. The at least one motor having at least eight magnetic lobes. Another device is presented having a first motor connected to a shaft. A second motor is connected to the shaft. A fan hub is connected to the shaft. A fan blade is connected to the fan hub.

Abstract: A device is presented having at least one power supply. The power supply is connected to a power supply fan. A first power source terminal is connected to the at least one power supply. A second power source terminal is connected to the at least one power supply. The power supply fan is powered from a source external to the at least one power supply.

Abstract: A device is presented having a multiplicity of motors connected to a shaft. A multiplicity of motor control devices are connected to the motors. A multiplicity of bearings are connected to the motors and the shaft. The multiplicity of motors, the multiplicity of motor control devices and the multiplicity of bearings continue to control the shaft rotation speed upon failure of either one of the multiplicity of motors, the multiplicity of motor control devices, or the multiplicity of bearings. Also presented is a device having at least one motor connected to a shaft. At least one bearing is connected to the at least one motor and the shaft. The at least one bearing has a multiplicity of rotating sleeves.

Abstract: A device is presented having an optical emitter/receiver device. The device has a light pipe connected with the optical emitter/receiver device. Also a rotating shaft having at least one opening. The light pipe is situated within the rotating shaft. At least one bearing having a reflective marker is connected to the shaft.

Abstract: A bearing is presented having a multiplicity of rotating sleeves. A bushing is connected to one of the multiplicity of rotating sleeves. At least one bearing set is connected to the multiplicity of rotating sleeves. Also, a bearing is presented having a multiplicity of rotating sleeves. At least two bearing sets are connected to the multiplicity of rotating sleeves. Another bearing is presented having a multiplicity of rotating sleeves. At least two bearing sets are connected to the multiplicity of rotating sleeves. A bushing is connected with one of the rotating sleeves.

Abstract: A method and apparatus for safely and quickly mounting a heat sink in heat conducting relation with an electronic component on a supporting member such as a printed circuit board, allow sequential assembly of the heat sink and a wire clip for mounting the heat sink on the supporting member in a manner which reduces the possibility of damaging the electronic component or components on the supporting member. A load centering part is arranged between an elongated central portion of the wire clip and the heat sink to help locate the clip force on the heat sink generally opposite the electronic component without retaining the central portion of the mounting device on the heat sink.

Abstract: A method and assembly for mounting printed circuit boards (PCBs) to a chassis. In one embodiment, a plurality of internally-threaded mounting posts are secured (e.g., press-fit) to the chassis and the PCB includes a plurality of holes into which the mounting posts extend. Each hole includes a pair of keepout pads to isolate internal PCB circuitry (other than ground planes) from electric contact with the assembly components. A threaded faster is used to secure the assembly. In another embodiment, a collar is added to the assembly and the extending portion of the post is elongated such that it extends into the collar, providing additional thread engagement for thinner PCBs. In a third embodiment, hat-section components are secured (e.g., via wave soldering) over respective holes in the PCB. The hat-section component includes a counterbore through which the threaded fastener passes and is sized to receive a portion of a threaded standoff.