Transversely actuated piezoelectric bellows heatsink

1. A transversely actuated piezoelectric bellows heatsink (TAPBH) comprising:

a linkage, wherein the linkage comprises a plurality of rigid sections coupled by flexible joints;

a first end of the linkage affixed to a first fixed support;

a piezoelectric element mechanically coupled to a second end of the linkage;

a diaphragm mechanically affixed to a first side of the linkage;

an air enclosure having an open area affixed to the diaphragm; and

a second side of the linkage, wherein a second fixed support is mechanically affixed to the second side of the linkage, wherein cyclic power from a power supply causes the piezoelectric element to expand and contract to force the linkage to expand and contract in an analogous manner, thus causing the diaphragm to move in an amplified motion to cause air to enter and be expelled from the air enclosure via air valves.

2. The TAPBH of claim 1 , wherein the air valves are flapper valves.

3. The TAPBH of claim 1 , further comprising:

an intake valve, wherein the intake valve is a flapper valve that occludes an orifice in the air enclosure;

a stinger that mechanically couples the piezoelectric element to the linkage, wherein the stinger slideably passes through the intake valve; and

a lip axially circumscribing the stinger, wherein the lip pushes the intake valve open in response to the piezoelectric element expanding.

4. The TAPBH of claim 1 , further comprising:

a pressure distributor affixed to the first side of the linkage, wherein the pressure distributor is a broadened area of the linkage, and wherein the pressure distributor distributes pressure from the linkage against the diaphragm.

5. A circuit board comprising:

a power supply;

at least one electronic component mounted on the circuit board;

a transversely actuated piezoelectric bellows heatsink (TAPBH) mounted on the circuit board, wherein the TAPBH comprises:

a linkage, wherein the linkage comprises a plurality of rigid sections coupled by flexible joints;

a first end of the linkage affixed to a first fixed support;

a piezoelectric element mechanically coupled to a second end of the linkage;

a diaphragm mechanically affixed to a first side of the linkage; and

an air enclosure having an open area affixed to the diaphragm; and

a second fixed support affixed to a second side of the linkage, wherein cyclic power from the power supply causes the piezoelectric element to expand and contract to force the linkage to expand and contract in an analogous manner, thus causing the diaphragm to move in an amplified motion to cause air to enter and be expelled from the air enclosure via air valves, thereby forcing cool air to be blown across said at least one electronic component.

6. The circuit board of claim 5 , wherein the air valves are flapper valves.

7. The circuit board of claim 5 , wherein the TAPBH further comprises:

an intake valve, wherein the intake valve is a flapper valve that occludes an orifice in the air enclosure;

a stinger that mechanically couples the piezoelectric element to the linkage, wherein the stinger slideably passes through the intake valve; and

a lip axially circumscribing the stinger, wherein the lip pushes the intake valve open in response to the piezoelectric element expanding.

8. The circuit board of claim 5 , wherein the TAPBH further comprises:

a pressure distributor affixed to the first side of the linkage, wherein the pressure distributor is a broadened area of the linkage, and wherein the pressure distributor distributes pressure from the linkage against the diaphragm.

9. A computer system comprising:

a power supply;

a circuit board comprising:

at least one electronic component mounted on the circuit board;

a transversely actuated piezoelectric bellows heatsink (TAPBH) mounted on the circuit board, wherein the TAPBH comprises:

a linkage, wherein the linkage comprises a plurality of rigid sections coupled by flexible joints;

a first end of the linkage affixed to a first fixed support;

a piezoelectric element mechanically coupled to a second end of the linkage;

a diaphragm mechanically affixed to a first side of the linkage; and

an air enclosure having an open area affixed to the diaphragm; and

a second fixed support mechanically affixed to a second side of the linkage, wherein cyclic power from the power supply causes the piezoelectric element to expand and contract to force the linkage to expand and contract in an analogous manner, thus causing the diaphragm to move in an amplified motion to cause air to enter and be expelled from the air enclosure via air valves, thereby forcing cool air to be blown across said at least one electronic component.

10. The computer system of claim 9 , wherein the air valves are flapper valves.

11. The computer system of claim 9 , wherein the TAPBH further comprises:

an intake valve, wherein the intake valve is a flapper valve that occludes an orifice in the air enclosure;

a stinger that mechanically couples the piezoelectric element to the linkage, wherein the stinger slideably passes through the intake valve; and

a lip axially circumscribing the stinger, wherein the lip pushes the intake valve open in response to the piezoelectric element expanding.

12. The computer system of claim 9 , wherein the TAPBH further comprises:

a pressure distributor affixed to the first side of the linkage, wherein the pressure distributor is a broadened area of the linkage, and wherein the pressure distributor distributes pressure from the linkage against the diaphragm.