Abstract:
A heat pipe (11) includes an inlet (25) through which a working fluid (C) is injected. The inlet (25) includes a non-sealed portion (31) and a sealed portion (32) connected to the non-sealed portion (31). The non-sealed portion (31) and the sealed portion (32) each include two outermost metal layers (61, 66) and a plurality of intermediate metal layers (62-65) stacked between the outermost layers (61, 66). The heat pipe (11) further includes a porous body (50) arranged in the inlet (25).
Abstract:
A hybrid cooled blade server enclosure having a liquid-cooled insert having a chilled surface for contacting a heat exchange block on the blade server and an electric fan for removing heated air from the enclosure is provided.
Abstract:
A device comprising heat producing electronic components (2), such as server memory boards, processors and/or switches, said device comprising a container (1) wherein said heat producing components are mounted, a liquid in said container in which liquid said components are submerged for extracting heat from said components, at least one heat exchanger (7) having a surface which is in contact with said liquid and arranged to extract heat from said liquid, wherein between said heat exchanger and said components a vertical wall (6) is present for guiding and separating a vertical circulation of said liquid in said container which is caused by a temperature difference in said liquid.
Abstract:
An apparatus and method thermally manage a high performance computing system having a plurality of nodes with microprocessors. To that end, the apparatus and method monitor the temperature of at least one of a) the environment of the high performance computing system and b) at least a portion of the high performance computing system. In response, the apparatus and method control the processing speed of at least one of the microprocessors on at least one of the plurality of nodes as a function of at least one of the monitored temperatures.
Abstract:
There is provided a heat sink in which the thermal resistance from a portion where the heat sink directly or indirectly makes contact with a heat-generating device to a portion where the heat sink makes contact with a coolant is set to be a value that is different from the thermal resistance at a different position in the flowing direction of the coolant, so that it is made possible to suppress the temperature difference between the upstream end and the downstream end of the heat-generating device.
Abstract:
In one implementation, a system for valve failure prediction includes a temperature engine to determine a temperature of a liquid exiting a cooling device, a flowrate engine to compare an actual flow rate of the liquid exiting the cooling device to a flow rate threshold, a prediction engine to determine when a valve of the cooling device is malfunctioning based on the comparison of the actual flow rate and the flow rate threshold, and a notification engine to notify a user when the valve of the cooling device is malfunctioning.
Abstract:
An apparatus and method thermally manage a high performance computing system having a plurality of nodes with microprocessors. To that end, the apparatus and method monitor the temperature of at least one of a) the environment of the high performance computing system and b) at least a portion of the high performance computing system. In response, the apparatus and method control the processing speed of at least one of the microprocessors on at least one of the plurality of nodes as a function of at least one of the monitored temperatures.
Abstract:
Provided is an apparatus for operating a cooling system in an abnormal state, and the cooling system includes plurality of evaporators that suck warm air exhausted from a plurality of electronic equipments installed in an equipment room with fans, cool the warm air through heat exchange with a refrigerant flowing in each cooling coil, and supply cool air into the equipment room; and a condenser disposed at a position higher than the plurality of evaporators, so as to cool the refrigerant circulated naturally between the condenser and each evaporator. The cooling system adjusts a supplied air temperature of air supplied from each evaporator by adjusting an opening degree of each flow regulating valve that adjusts a flow rate of the refrigerant flowing in each cooling coil. The apparatus includes deviation information detecting means for sequentially detecting deviation information between an maximum cooling capacity and a current cooling capacity in operation for each of the plurality of evaporators; and fan controlling means for reducing or stopping a rotational frequency of a fan for an evaporator which has deviation information exceeding a predefined abnormal determining threshold value among the plurality of evaporators.
Abstract:
Example implementations relate to an integrated liquid cooling of a server system. For example, a method for integrated liquid cooling of a server system can include creating a liquid cooling component that includes creating a three dimensional (3D) design based on a server system, where the 3D design includes customized angle geometry. Further, the method for integrated liquid cooling of a server system can include forming the liquid cooling component based on the 3D design, where the liquid cooling component includes a plurality of liquid flow passages for delivering cooling resources to the server system, and delivering the cooling resources to the server system via the liquid cooling component.
Abstract:
The disclosure discloses a device for terminal heat dissipation and a mobile terminal, including: a heat source chip, a heat pipe, and a shield, wherein the shield is located between the heat source chip and the heat pipe, and is connected with the heat source chip and with the heat pipe via the same type of flexible thermal conductive solid; and a microporous array is arranged at a connection position between the flexible thermal conductive solids, which are in contact with the shield. By means of the disclosure, the problem in the related art that heat cannot be quickly conducted to the heat pipe due to the back-and-forth conversion of the conductive medium in the thermal conductive path is solved, and heat can therefore be quickly conducted to the heat pipe, speeding up an effect of heat dissipation.