Photo-etched chassis cooling walls

1. An electronic component enclosure comprising:

a plurality of outer walls, each outer wall comprising a thermally conductive material and an internal fluid channel, internal to the respective outer wall, for circulation of cooling fluid,

at least one partition structure comprising a thermally conductive material and an internal fluid channel, internal to the partition structure, in sealed fluid communication with the internal fluid channel of at least one outer wall of the plurality of outer walls,

wherein the plurality of outer walls are coupled together to at least partially enclose a volume, and the at least one partition structure is disposed within the volume and extends between two of the plurality of outer walls to define at least two compartments configured to respectively house electronic components;

a fluid inflow port in sealed fluid communication with the internal fluid channel of the at least one outer wall of the plurality of outer walls; and

a fluid outflow port in sealed fluid communication with the internal fluid channel of the at least one outer wall of the plurality of walls,

wherein the internal fluid channels of the plurality of outer walls and the internal fluid channel of the at least one partition structure define at least one fluid circulation path between the fluid inflow port and the fluid outflow port.

2. The electronic component enclosure of claim 1 , wherein each of the plurality of outer walls comprises a laminar structure including first and second layers defining the internal fluid channel therebetween, the first layer comprising a first exterior surface of the respective outer wall and the second layer comprising a second exterior surface of the respective outer wall on an opposite side of the respective outer wall from the first exterior surface.

3. The electronic component enclosure of claim 2 , wherein the at least one partition structure comprises a laminar structure including first and second layers defining the internal fluid channel therebetween, wherein the internal fluid channel of the at least one partition structure is in sealed fluid communication with the internal fluid channel of the at least one outer wall of the plurality of outer walls.

4. The electronic component enclosure of claim 3 , wherein the plurality of outer walls and the at least one partition structure are formed from steel.

5. The electronic component enclosure of claim 1 , wherein the at least one partition structure includes at least one connecting portion for establishing a sealed fluid connection between the internal fluid channel of the at least one partition structure and the internal fluid channel of the at least one outer wall.

6. An enclosure system for electronic components, comprising:

a substantially sealed heat-capturing enclosure, the enclosure comprising:

a plurality of outer walls, each outer wall comprising a thermally conductive material and an internal fluid channel, internal to the respective outer wall, for circulation of cooling fluid;

at least one partition structure defining at least one compartment within the plurality of outer walls, the at least one partition structure comprising a thermally conductive material and having an internal fluid channel, internal to the partition structure, in sealed fluid communication with the internal fluid channel of at least one outer wall of the plurality of outer walls,

wherein the plurality of outer walls are coupled together to at least partially enclose a volume, and the at least one partition structure is disposed within the volume and extends between two of the plurality of outer walls to define at least two compartments configured to respectively house electronic components;

a fluid inflow port in sealed fluid communication with the internal fluid channel of the at least one outer wall of the plurality of outer walls; and

a fluid outflow port in sealed fluid communication with the internal fluid channel of at least one outer wall of the plurality of outer walls, wherein the internal fluid channels of the plurality of outer walls and the internal fluid channel of the at least one partition structure defines at least one fluid circulation path between the fluid inflow port and the fluid outflow port; and

a heat exchanger coupled to the fluid inflow port and the fluid outflow port of the enclosure, the heat exchanger to circulate cooling fluid through the at least one fluid circulation path.

7. The enclosure system of claim 6 , wherein each outer wall of the plurality of outer walls comprises a laminar structure including first and second layers defining the internal fluid channel therebetween, the first layer comprising a first exterior surface of the respective outer wall and the second layer comprising a second exterior surface of the respective outer wall on an opposite side of the respective outer wall from the first exterior surface.

8. The enclosure system of claim 7 , wherein the at least one partition structure comprises a laminar structure including first and second layers defining the internal fluid channel therebetween, wherein the internal fluid channel of the at least one partition structure is in sealed fluid communication with the internal fluid channel of the at least one outer wall of the plurality of outer walls.

9. The enclosure system of claim 8 , wherein the plurality of outer walls and the at least one partition structure are formed from steel.

10. The enclosure system of claim 6 , wherein the at least one partition structure includes at least one connecting portion for establishing a sealed fluid connection between the internal fluid channel of the at least one partition structure and the internal fluid channel of the at least one outer wall of the plurality of outer walls.

11. A method of capturing heat from an electronic component, comprising:

enclosing the electronic component in a substantially sealed enclosure including a plurality of outer walls and at least one partition structure defining at least one compartment within the enclosure, wherein the plurality of outer walls are coupled together to at least partially enclose a volume, and the at least one partition structure is disposed within the volume and extends between two of the plurality of outer walls to define at least two compartments one of which encloses the electronic component; and

circulating cooling fluid in at least one loop through an internal fluid channel in each of the outer walls and an internal fluid channel in the at least one partition structure, the fluid channel in the at least one partition structure being in sealed fluid communication with the internal fluid channel of at least one outer wall of the plurality of outer walls, wherein for each of the outer walls the internal fluid channel is internal to the respective outer wall and the internal fluid channel of the at least one partition structure is internal to the at least one partition structure.

12. The method of claim 11 , further comprising:

forming each outer wall of the plurality of outer walls as a laminar structure including first and second layers defining the internal fluid channel therebetween, the first layer comprising a first exterior surface of the respective outer wall and the second layer comprising a second exterior surface of the respective outer wall on an opposite side of the respective outer wall from the first exterior surface.

13. The method of claim 12 , further comprising:

forming the at least one partition structure as a laminar structure including first and second layers defining the internal fluid channel therebetween.

14. The method of claim 13 , further comprising:

forming the plurality of outer walls and the at least one partition structure from steel.

15. The method of claim 14 , further comprising:

photo-etching at least one of the first and second layers of each outer wall of the plurality of outer walls to form the internal fluid channels of the plurality of outer walls; and

photo-etching at least one of the first and second layers of the at least one partition structure to form the internal fluid channel of the at least one partition structure.

16. The electronic component enclosure of claim 1 ,

wherein each of the plurality of outer walls comprises a first surface facing into the volume and a second surface, opposite the first surface, facing outside the enclosure, and the internal fluid channel of the respective outer wall is disposed between the first and second surfaces of the respective outer wall; and

wherein the at least one partition structure comprises a first surface facing into one of the at least two compartments and a second surface, opposite the first surface, facing into another of the at least two compartments, and the internal fluid channel of the at least one partition structure is disposed between the first and second surfaces of the at least one partition structure.

17. An enclosure system of claim 6 ,

wherein each of the plurality of outer walls comprises a first surface facing into the volume and a second surface, opposite the first surface, facing outside the enclosure, and the internal fluid channel of the respective outer wall is disposed between the first and second surfaces of the respective outer wall; and

wherein the at least one partition structure comprises a first surface facing into one of the at least two compartments and a second surface, opposite the first surface, facing into another of the at least two compartments, and the internal fluid channel of the at least one partition structure is disposed between the first and second surfaces of the at least one partition structure.

18. The method of claim 11 ,

wherein each of the plurality of outer walls comprises a first surface facing into the volume and a second surface, opposite the first surface, facing outside the enclosure, and the internal fluid channel of the respective outer wall is disposed between the first and second surfaces of the respective outer wall; and

wherein the at least one partition structure comprises a first surface facing into one of the at least two compartments and a second surface, opposite the first surface, facing into another of the at least two compartments, and the internal fluid channel of the at least one partition structure is disposed between the first and second surfaces of the at least one partition structure.