Abstract:
A computing system includes one or more rack rows comprising one or more racks. The racks includes one or more tanks that hold liquid coolant for at least one of the one or more servers, and a liquid coolant to remove heat from at least one of the one or more servers. An aisle is provided next to a rack row or between two of the rack rows. The aisle includes a floor. The floor can be walked on by service personnel to access at least one of the one or more racks in at least one of the rows. Cooling components at least partially below the aisle move a liquid to remove heat from at least one of the servers in at least one of the racks. The racks, floor and cooling components may be fire-resistant.
Abstract:
One variation of a system for cooling an electrical component within a computing device - including a digital display - includes: an internal heatsink thermally coupled to the integrated circuit and defining a fluid passage including a first end and a second end; a heat exchange layer arranged across a viewing surface of the digital display, including a transparent material, and defining a fluid channel extending across a portion of the digital display, the fluid channel including a fluid inlet coupled to the first end of the fluid passage and a fluid outlet coupled to the second end of the fluid passage; a transparent fluid; and a displacement device configured to circulate the transparent fluid between the internal heatsink and the fluid channel.
Abstract:
[Problem] To provide an electronic device rack and an information processing apparatus capable of efficiently cooling electronic devices even when the amount of heat generated per rack reaches 30 kW or larger. [Solving Means] An electronic device rack 10 includes a plurality of panels 10a, 10b, 10c, ... surrounding a first space. Moreover, the electronic device rack 10 includes: an electronic-device housing unit 11 disposed in the first space and configured to house electronic devices 15; a heat exchanger 12 disposed in the first space at a position away from the electronic-device housing unit 11; a second space 21 provided between the electronic-device housing unit 11 and the heat exchanger 12 and isolated from the rest of the first space; and an air blower 13 configured to circulate air inside the first space through the electronic-device housing unit 11, the second space 21, and the heat exchanger 12 in the described order.
Abstract:
A high performance computing system includes one or more blade enclosures having a cooling manifold and configured to hold a plurality of computing blades, and a plurality of computing blades in each blade enclosure with at least one computing blade including two computing boards. The system further includes two or more cooling plates with each cooling plate between two corresponding computing boards within the computing blade, and a fluid connection coupled to the cooling plate(s) and in fluid communication with the fluid cooling manifold.
Abstract:
An electronic module cooling apparatus and method for cooling a plurality of electronic modules each including a circuit board to which one or more electronic components are mounted, in particular memory modules, disposed on a substrate in spaced-apart parallel relationship. The apparatus and method provide for effective cooling of the electronic modules while still allowing for insertion and removal of the electronic modules from a common substrate and/or providing for biased contact with electrical components of the electronic modules. In a particular embodiment, the apparatus provides for liquid cooling memory boards, allowing heat to be removed from the electronic components that are contained in densely populated enclosures without the need for air flow.
Abstract:
A cooling system comprising: an evaporator for evaporating a refrigerant by performing heat exchange with outside air; a condenser for condensing a gas refrigerant into a liquid refrigerant by making a refrigerant and a cooling medium perform heat exchange with each other; a gas refrigerant pipe and a liquid refrigerant pipe connecting the evaporator and the condenser; and the evaporator including: an upper part header provided in a highest position of the evaporator, and connected with the condenser by the gas refrigerant pipe, through the gas refrigerant pipe a gas refrigerant flowing; a lower part header provided in a lowest position of the evaporator, and connected with the condenser by the liquid refrigerant pipe, through the liquid refrigerant pipe a liquid refrigerant flowing; a middle header provided in an intermediate position between the upper part header and the lower part header, and connected with the condenser by the liquid refrigerant pipe, through the liquid refrigerant pipe the liquid refrigerant flowing; an upper part evaporator, arranged between the upper part header and the middle header, including an upper part steam generating tube having a first flow path for leading a refrigerant of the middle header to the upper part header while making the refrigerant of the middle header perform heat exchange with outside air and having a second flow path for leading a refrigerant of the lower part header to the upper part header while making the refrigerant of the lower part header perform heat exchange with outside air; and a lower part evaporator, arranged between the lower part header and the middle header, including a lower part steam generating tube having a third flow path inserted into the middle header while making a refrigerant of the lower part header perform heat exchange with outside air, the lower part steam generating tube communicated with the second flow path of the upper part steam generating tube.
Abstract:
In accordance with the present disclosure, a system and method for a modular fluid handling system with modes in a modular data center is presented. According to the present application, a modular data center may include a modular primary structure. The modular primary structure may include a plurality of information handling systems arranged in racks within it. The modular data center may also include a modular fluid handling system that circulates fluid through the modular primary structure according, at least in part, to a plurality of modes. The modular fluid handling system may be designed to accommodate environmental conditions in which the modular data center will operate as well as the usage requirements of the modular primary structure.
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.