A heat sink having an embedded heat pipe and fins attached to opposite sides of a base plate having a heat spreader component made of a diamond copper composite is disclosed. In various embodiments, the diamond copper composite heat spreader contains channels for receiving a main heat pipe as well as auxiliary heat pipes.
1. A heat sink, comprising:
a main heat pipe;
at least one pair of auxiliary heat pipes coupled to said main heat pipe, said auxiliary pipes extending substantially perpendicular to said main heat pipe, and the combined diameter of each said at least one pair of auxiliary pipes is substantially similar to the diameter of said main heat pipe;
a base plate, said base plate having channels to receive said main heat pipe and said auxiliary heat pipes, said base plate extending substantially perpendicular to a plane of a heat source with which said heat sink is used;
a diamond copper composite heat spreader disposed between the base plate and the heat source; and
a plurality of fins coupled to opposite sides of said base plate, said fins extending substantially parallel to the plane of said heat source;
wherein heat from the heat source is conducted through the heat spreader to the base plate and dissipated through the at least one heat pipe and the plurality of fins.
2. The heat sink of claim 1 , wherein the diamond copper composite heat spreader comprises a first copper layer and a second copper layer, the first and second copper layers disposed on opposite sides of and in contact with a diamond copper layer.
3. The heat sink of claim 2 , wherein the first copper layer comprises at least one channel to receive at least one heat pipe.
4. The heat sink of claim 2 , wherein the diamond copper layer comprises 93% compressed diamond dust and 7% compressed copper.
5. The heat sink of claim 1 , wherein each fin in the plurality of fins is aligned with each pipe in the plurality of auxiliary pipes along a flow length.
6. The heat sink of claim 1 , wherein each pipe in the plurality of auxiliary heat pipes has an end portion that wraps partially around the main heat pipe.
7. The heat sink of claim 1 , wherein the main heat pipe comprises an inner, diamond copper composite layer and an outer copper layer that is wrapped around the inner layer.
8. The heat sink of claim 7 , wherein the inner diamond copper composite layer comprises 93% compressed diamond dust and 7% compressed copper.
9. The heat sink of claim 1 , wherein at least one of the auxiliary heat pipes comprises an inner diamond copper composite layer and an outer copper layer that is wrapped around the inner layer.
10. The heat sink of claim 9 , wherein the inner diamond copper composite layer comprises 93% compressed diamond dust and 7% compressed copper.
11. The heat sink of claim 7 , wherein the inner diamond copper composite layer comprises DiaCu material.
12. The heat sink of claim 9 , wherein the inner diamond copper composite layer comprises DiaCu material.
13. A heat sink, comprising:
a main heat pipe;
at least one pair of auxiliary heat pipes coupled to the main heat pipe, each pipe in the at least one pair of auxiliary pipes having a diameter that is less than a diameter of the main heat pipe;
wherein said auxiliary pipes extend substantially perpendicular to said main heat pipe; and
a diamond copper composite heat spreader is disposed between and in contact with the auxiliary heat pipes;
a wrap around plate that covers the main heat pipe and auxiliary heat pipes; and
a plurality of fins coupled to opposite sides of the wrap-around plate;
wherein pairs of auxiliary heat pipes are disposed proximate to opposite sides of the wrap around plate and are aligned along a length of the main heat pipe.
14. The heat sink of claim 13 , wherein the diamond copper composite heat spreader comprises a first copper layer and a second copper layer, the first and second copper layers disposed on opposite sides of and in contact with a diamond copper layer.
15. The heat sink of claim 14 , wherein the first copper layer comprises at least one channel to receive at least one heat pipe.
16. The heat sink of claim 14 , wherein the diamond copper layer comprises 93% compressed diamond dust and 7% compressed copper.
17. The heat sink of claim 13 , wherein each fin in the plurality of fins is aligned with each pipe in the plurality of auxiliary pipes along a flow length.
18. The heat sink of claim 13 , wherein each pipe in the plurality of auxiliary heat pipes has an end portion that wraps partially around the main heat pipe.
19. The heat sink of claim 13 , wherein channels are formed on an outer surface of the wrap around plate to receive the plurality of fins.
20. The heat sink of claim 13 , wherein the main heat pipe comprises an inner, diamond copper composite layer and an outer copper layer that is wrapped around the inner layer.
21. The heat sink of claim 20 , wherein the inner diamond copper composite layer comprises 93% compressed diamond dust and 7% compressed copper.
22. The heat sink of claim 13 , wherein at least one of the auxiliary heat pipes comprises an inner diamond copper composite layer and an outer copper layer that is wrapped around the inner layer.
23. The heat sink of claim 22 , wherein the inner diamond copper composite layer comprises 93% compressed diamond dust and 7% compressed copper.
24. The heat sink of claim 20 , wherein the inner diamond copper composite layer comprises DiaCu material.
25. The heat sink of claim 22 , wherein the inner diamond copper composite layer comprises DiaCu material.