Heat Pipes, Vapor Chambers

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Power - Cooling
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ImageProduct DetailPriceAvailabilityECAD ModelFeaturesOperating TemperatureLengthMaterialDiameterPlatformAttachment MethodTypeShapeThermal ResistanceWick TypeHeightWidthPower - CoolingSeries
CS400-2127-F-0A
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5.000" (127.00mm)
Copper
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Heat Pipe
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Sintered
0.276" (7.00mm)
0.600" (15.24mm)
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CS400

Heat Pipes, Vapor Chambers

Thermal heat pipes and vapor chambers are essential devices used for transferring heat between two interfaces. They work by heating a liquid until it becomes a vapor on the hot interface, after which the vapor travels to the cold interface and condenses back into a liquid. This process allows for efficient thermal transfer across a wide range of temperatures and applications. These heat transfer devices come in various shapes such as flat, rectangular, round, and square, with each shape being suitable for different types of systems and spaces. The choice of shape depends on factors such as available space, power requirements, and desired cooling performance. Moreover, thermal heat pipes and vapor chambers are identified by their unique properties such as power cooling, thermal resistance, and wick type. These characteristics determine the efficiency and effectiveness of the device in transferring heat in different environments and applications. Power cooling refers to the rate at which the device can dissipate heat, while thermal resistance measures the ability of the device to resist heat flow. Wick type, on the other hand, refers to the material used to line the interior of the device, which affects the rate and efficiency of heat transfer. In summary, thermal heat pipes and vapor chambers are crucial devices used in various industries for efficient thermal management. Their ability to transfer heat between two interfaces with high efficiency and reliability makes them essential for achieving optimal performance and longevity of electronic devices, power systems, and other applications that require efficient heat dissipation. The choice of device depends on factors such as available space, power requirements, and desired cooling performance, with their unique properties determining their efficiency and effectiveness in different applications.