Abstract:
Example implementations relate to liquid cooling with a cooling chamber. For example, a system for liquid cooling with a cooling chamber can include a liquid cooling chamber in contact with a heat generating device within a computing device, the liquid cooling chamber to contain a liquid coolant and transfer heat from the heat generating device into a liquid circulation loop extending around a perimeter of the liquid cooling chamber. The system for liquid cooling with a cooling chamber can further include a comb structure adjacent to the liquid cooling chamber to transfer heat into the liquid circulation loop, and a liquid exit pipe coupled to the liquid circulation loop to direct a flow of the liquid coolant.
Abstract:
Example implementations relate to liquid cooling with a cooling chamber. For example, a system for liquid cooling with a cooling chamber can include a liquid cooling chamber in contact with a heat generating device within a computing device, the liquid cooling chamber to contain a liquid coolant and transfer heat from the heat generating device into a liquid circulation loop extending around a perimeter of the liquid cooling chamber. The system for liquid cooling with a cooling chamber can further include a comb structure adjacent to the liquid cooling chamber to transfer heat into the liquid circulation loop, and a liquid exit pipe coupled to the liquid circulation loop to direct a flow of the liquid coolant.
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.
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 heat sink uses a pump assembly to generate a radial magnetic field. Pipes arranged to house a portion of a first channel and a portion of a second channel are formed in the heat sink. The direction of fluid flow in the first channel and the direction of fluid flow in the second channel is dependent on the radial magnetic field. The radial magnetic field causes fluid in the first channel to flow toward a heat source and fluid in the second channel to flow away from the heat source, thereby resulting in heat transfer between the first and second channels and between the heat sink and the respective first and second channels. The heat sink may also use a heat exchanger assembly that is connected to the heat source, where the heat exchanger assembly is formed of a plurality of channels that each propagate fluid in one of the directions of the first channel and the second channel.
Abstract:
A water based closed loop cooling system employed to cool waterborne data center facility generally comprise a plurality of filtered water intake pipes, a plurality of filtered water exhaust pipes, a plurality of heat exchangers, a plurality of closed loop cooling systems or closed loop coolant distribution units that may use freshwater as a coolant, and a plurality of piping systems. The energy efficient water based closed loop cooling system and method described may use naturally occurring cold water as a heat sink in a plurality of heat exchange systems. The systems and methods described in this document may be employed to provide an energy efficient water-based closed-loop cooling system to maintain interior ambient conditions suitable for proper operation of the plurality of computer systems therein.
Abstract:
A modular super-calculation architecture comprises a plurality of electronic calculation modules communicating with each other in a network and liquid cooled. Each electronic calculation module includes a calculation node, one or more autonomous liquid cooling devices, an electric power device, a box-like container that encloses and protects inside it at least the calculation node, the electric power device, and the one or more liquid cooling devices. Each electronic calculation module is independent hydraulically, electrically, in terms of network communication and mechanically at least from the other electronic calculation modules, and can be inserted and/or removed or substituted hot from said architecture.