Abstract:
A controller according to an exemplary aspect of the present disclosure includes, among other things, a cold plate and at least one electronic component mounted to the cold plate by an intermediate thermoelectric cooler.
Abstract:
A power supply system for a data center includes a cooling circuit, an electrochemical power generator, a sensor, and a processor. The cooling circuit includes a fluid configured to receive heat energy generated by a server located in the data center. The electrochemical power generator is configured to receive and/or generate the fluid of the cooling circuit and to generate electrical energy for the server using the fluid. The sensor is configured to obtain data regarding the server. The processor is configured to control an amount of heat energy transferred from the server to the fluid based on the data.
Abstract:
A mounting structure adapted for mounting an expansion card within a computer enclosure and configured to directly absorb and conduct heat from a heat source (such as an IC chip) on the card to the ambient atmosphere surrounding the enclosure. The mounting structure includes a mounting bracket, a heat sink adapted to contact a surface of the heat source on the expansion card, an extension interconnecting the heat sink and the mounting bracket, one or more features for conducting heat from the heat sink to the mounting bracket, and one or more features associated with the mounting bracket for dissipating heat from the mounting structure to the ambient atmosphere surrounding the enclosure.
Abstract:
An apparatus for managing heat generated by at least one electronic component of a mobile device, the apparatus comprising: a housing for containing the electronic component of the mobile device; and a vapor chamber arranged in the housing, the vapor chamber having a cavity defined by a front wall and a rear wall opposite the rear wall, the front wall for receiving heat generated by the electronic component of the mobile device to evaporate fluid in the cavity into a vapor, the rear wall for receiving the vapor to allow the vapor to condense to liquid thereby cooling the rear wall of the vapor chamber; wherein an outer surface of the housing comprises at least a portion of the rear wall of the vapor chamber.
Abstract:
A rotatable-type liquid-cooled heat sink and a disposition method for the same are provided. The liquid-cooled heat sink is disposed in a three-dimensional space and includes a pump, a liquid storage tank, a liquid-cooled head, a cooling module, and plural pipes. The pipes communicate the pump, the liquid storage tank, the liquid-cooled head, and the cooling module. Any of the liquid storage tank, the liquid-cooled head, the cooling module, and the pipes exceeds the pump in any of an X axis, a Y axis, a Z axis of a three-dimensional space.
Abstract:
A system includes a support rack and a component housing. The support rack includes a pair of vertically-extending panels, and each panel of the pair of vertically-extending panels has one or more first mating members of a water coupler pair extending outwardly from the support rack. The component housing is slidably disposed between the pair of vertically-extending panels and has a front panel, a pair of sidewalls extending rearwardly from the front panel, a component water line, and two second mating members of the water coupler pair connected to each other by the component water line.
Abstract:
According to an example, a cooling system includes a cooling fluid reservoir, a cooling apparatus in fluid communication with the cooling fluid reservoir, a chamber having a side in thermal contact with a portion of the heat generating component, in which cooling fluid delivered by the cooling apparatus is to be heated through receipt of heat from the heat generating component, a cooling plate positioned at a distance and separated from the chamber, and a cooling fluid tube connecting the chamber and the cooling plate, in which the heated cooling fluid is to flow through the cooling fluid tube to the cooling plate. The cooling plate is also to be in thermal contact with a heat exchanger that that is to remove heat from the cooling fluid.
Abstract:
According to one embodiment, an electronic apparatus includes a heating component, a housing, and a heat pipe. The housing accommodates the heating component and includes a wall. The wall includes a first region configured to receive heat from the component and a second region configured to have a lower temperature than a temperature of the first region. At least a portion of the heat pipe is buried in the wall from the first region to the second region.
Abstract:
A system for providing cooling of a memory device comprises a cooling system arranged to store a coolant, a valve system connected to the output of the cooling system, and a control system connected to the valve system and arranged to open the valve system when power is lost to the control system. The system further comprises a delivery system connected to the output of the valve system and arranged to deliver the coolant to the memory device and the cooling system comprises a canister of low boiling point fluid.
Abstract:
An assembly for cooling a heat dissipating device reducing the thermal contact/interface resistance between a heatsink and a heat dissipating device includes: a heat dissipating device having a heat releasing surface; a heatsink having a heat absorbing surface; a gasket extending between the heat releasing surface and the heat absorbing surface to provide a sealed interstitial cavity; and a working fluid provided within the cavity. The working fluid has specific thermal properties that cause the fluid to (i) absorb latent heat and evaporate from a liquid to a vapor at the liquid surface in contact with the heat releasing surface during operation of the heat dissipating device and (ii) condense from the vapor back to the liquid when the vapor contacts the heat absorbing surface of the heatsink, thus releasing the latent heat from the vapor to the heatsink.