Remote heat exchanger
An apparatus for cooling an electronic component is provided. The apparatus includes a heat-absorbing base configured to contact the electronic component within a server device and a heat-dissipating body connected to the heat-absorbing base. The heat-dissipating body includes a heat-dissipating static feature and at least one heat-dissipating dynamic feature. The at least one heat-dissipating dynamic feature is configured to be repositioned about the heat-dissipating static feature to increase a surface area of the heat-dissipating body. Using hinge device and flexible metal conduit connect and transfer heat to them (dynamic and static feature). This apparatus will follow currently assembly process and also not impact the other device assembly method. The more space we have inside the product the more heat we can solve.
1. An apparatus for cooling an electronic component, the apparatus comprising:
a heat-absorbing base configured to contact the electronic component within a server device; and
a heat-dissipating body connected to the heat-absorbing base, wherein the heat-dissipating body comprises a heat-dissipating static feature and at least one heat-dissipating dynamic feature,
wherein, during operation of the electronic component, the at least one heat-dissipating dynamic feature is configured to be repositioned from a first state to a second state to provide an increased surface area exposure of the heat-dissipating body to surrounding air to dissipate more heat into the surrounding air.
2. The apparatus of claim 1 , wherein the heat-dissipating static feature and the at least one heat-dissipating dynamic feature comprises a highly thermal conductivity material is selected from a group of aluminum, copper metal, alloys, or composite materials.
3. The apparatus of claim 1 , wherein the at least one heat-dissipating dynamic feature is configured to rotate about the heat-dissipating static feature via a first hinge device that connects the at least one heat-dissipating dynamic feature with the heat-dissipating static feature and supports heat transfer to the heat-dissipating dynamic feature.
4. The apparatus of claim 3 , wherein the rotation of the at least one heat-dissipating dynamic feature about the heat-dissipating static feature creates an interlocking mating feature between the at least one heat-dissipating dynamic feature and the heat-dissipating static feature.
5. The apparatus of claim 1 , further comprising a second heat-dissipating dynamic feature configured to be repositioned about the heat-dissipating static feature to increase a surface cooling area of the heat-dissipating body.
6. The apparatus of claim 3 , further comprising a second heat-dissipating dynamic feature configured to be repositioned about the heat-dissipating static feature to increase a surface cooling area of the heat-dissipating body, and wherein the second heat-dissipating dynamic feature is configured to rotate about the heat-dissipating static feature via a second hinge device that connects the second heat-dissipating dynamic feature with the heat-dissipating static feature and supports heat transfer to heat-dissipating dynamic feature.
7. The apparatus of claim 6 , wherein the rotation of the second heat-dissipating dynamic feature about the heat-dissipating static feature creates an interlocking mating feature between the second heat-dissipating dynamic feature and the heat-dissipating static feature.
8. The apparatus of claim 5 , wherein the second heat-dissipating dynamic feature is configured to rotate about the heat-dissipating static feature via a first set of thermosiphons that connects the second heat-dissipating dynamic feature with the heat-dissipating static feature.
9. The apparatus of claim 8 , wherein the first set of thermosiphons comprises a heat pipe that circulates a fluid.
10. The apparatus of claim 5 , wherein the at least one heat-dissipating dynamic feature and the second heat-dissipating dynamic feature comprise a rectangular shape.
11. The apparatus of claim 5 , wherein the at least one heat-dissipating dynamic feature comprises an interlocking feature and the second heat-dissipating dynamic feature comprises a corresponding interlocking feature configured to receive the interlocking feature of the at least one heat-dissipating dynamic feature.
12. The apparatus of claim 8 , wherein the at least one heat-dissipating dynamic feature is configured to rotate about the heat-dissipating static feature via a second set of thermosiphons that connects the at least one heat-dissipating dynamic feature with the heat-dissipating static feature.
13. The apparatus of claim 12 , wherein the second set of thermosiphons comprises a heat container that circulates a fluid.
14. A server device having an inlet side, an outlet side, a first sidewall, and a second sidewall, where the first sidewall and the second sidewall extend from the inlet side to the outlet side, the server device comprising:
a fan module configured to draw airflow in from the inlet side to the outlet side; and
a chipset configured to receive a cooling assembly, wherein the cooling assembly comprises:
a heat-absorbing base configured to contact the chipset; and
a heat-dissipating body connected to the heat-absorbing base, wherein the heat-dissipating body comprises a heat-dissipating static feature and at least one heat-dissipating dynamic feature,
wherein, during operation of the chipset, the at least one heat-dissipating dynamic feature is configured to be repositioned from a first state to a second state to allow a total exposed surface area of the heat-dissipating body to surrounding air to be increased to dissipate more heat into the surrounding air.
15. The server device of claim 14 , wherein the heat-dissipating static feature and the at least one heat-dissipating dynamic feature comprises a highly thermal conductivity material that is selected from a group of aluminum, copper metal, alloys, or composite materials.
16. The server device of claim 14 , wherein the at least one heat-dissipating dynamic feature is configured to rotate about the heat-dissipating static feature via a first hinge device that connects the at least one heat-dissipating dynamic feature with the heat-dissipating static feature.
17. The server device of claim 16 , wherein the rotation of the at least one heat-dissipating dynamic feature about the heat-dissipating static feature creates an interlocking mating feature between the at least one heat-dissipating dynamic feature and the heat-dissipating static feature.
18. The server device of claim 14 , further comprising a second heat-dissipating dynamic feature configured to be repositioned about the heat-dissipating static feature to increase a surface area of the heat-dissipating body.
19. The server device of claim 18 , wherein the second heat-dissipating dynamic feature is configured to rotate about the heat-dissipating static feature via a second hinge device connecting the second heat-dissipating dynamic feature and the heat-dissipating static feature.
20. The server device of claim 18 , wherein the second heat-dissipating dynamic feature is configured to rotate about the heat-dissipating static feature via a set of thermosiphons that connects the second heat-dissipating dynamic feature with the heat-dissipating static feature.