Piezoelectric inertia actuator

1. A piezoelectric inertia actuator, comprising:

at least one actuator body;

at least one coupling body defining a receiver;

at least one lock body configured to be positioned within the receiver formed in the at least one coupling body;

at least one piezo body coupled to the at least one coupling body;

at least one flexible frame coupled to and extending from the at least one piezo body;

at least one engaging body in communication with the at least one piezo body via the at least one flexible frame; and

at least one spring blade extending from the at least one actuator body, the at least one spring blade configured to selectively apply a pre-load biasing force to at least one of the at least one flexible frame and the engaging body.

2. The piezoelectric inertia actuator of claim 1 , wherein the at least one actuator body and at least one lock body form a monolithic structure.

3. The piezoelectric inertia actuator of claim 1 , further comprising at least one tension member receiver formed in the at least one lock body.

4. The piezoelectric inertia actuator of claim 3 , further comprising at least one tension member positioned within the at least one tension member receiver and configured to selectively engage the at least one coupling body and the at least one piezo body to apply a preload force to the at least one piezo body, the preload force configured to result in a net compressive stress within the at least one piezo body.

5. The piezoelectric inertia actuator of claim 1 , wherein the at least one actuator body, the at least one lock body, a tension member, the at least one coupling body and the at least one piezo body form a rigid structure.

6. The piezoelectric inertia actuator of claim 1 , further comprising at least one conduit coupled to the at least one piezo body and in communication with at least one source of voltage or current.

7. The piezoelectric inertia actuator of claim 1 , wherein the at least one flexible frame further comprises at least one flex region.

8. The piezoelectric inertia actuator of claim 1 , wherein the at least one engaging body is detachably coupled to the at least one flexible frame.

9. The piezoelectric inertia actuator of claim 1 , wherein the at least one engaging body is non-detachably coupled to the at least one flexible frame.

10. The piezoelectric inertia actuator of claim 4 , further comprising at least one piezo preload body in communication with at least one of the at least one actuator body or the at least one flexible frame, the at least one piezo preload body configured to apply a reaction force to the at least one piezo body to maintain the net compressive stress within the at least one piezo body.

11. The piezoelectric inertia actuator of claim 1 , further comprising at least one decoupling preload body in communication with at least one of the at least one spring blade, the at least one flexible frame and the at least one engaging body, the at least one decoupling preload body configured to adjustably apply a biasing force generated by the at least one spring blade to the at least one engaging body.

12. The piezoelectric inertia actuator of claim 11 , wherein a change in a preload force to the at least one piezo body does not result in a substantial change in the biasing force applied to the at least one engaging body by the at least one decoupling preload body.

13. A piezoelectric inertia actuator, comprising:

an actuator body;

at least one lock body formed on the actuator body;

at least one tension member receiver formed in the at least one lock body and configured to accept at least one tension member, the at least one tension member configured to apply a preload force to at least one coupling body;

at least one piezo body coupled to the at least one coupling body;

at least one flexible frame coupled to and extending from the at least one piezo body;

at least one engaging body in communication with the at least one piezo body via the at least one flexible frame; and

at least one spring blade extending from the actuator body, the at least one spring blade configured to selectively apply a preload biasing force to at least one of the at least one flexible frame and the at least one engaging body via at least one decoupling preload body.

14. The piezoelectric inertia actuator of claim 13 , further comprising at least one piezo preload body formed on the actuator body and in communication with the at least one flexible frame and the at least one piezo body.

15. The piezoelectric inertia actuator of claim 14 , wherein the at least one piezo preload body is configured to apply a reaction force to the at least one piezo body.

16. The piezoelectric inertia actuator of claim 15 , further comprising:

a first preload zone, configured to apply a first preload to the at least one piezo body in a first direction, the first preload zone including the actuator body, the at least one lock body, the at least one tension member, the at least one coupling body, the at least one flexible frame and the at least one piezo preload body;

a second preload zone, configured to apply a second preload to the at least one engaging body in a second direction, the second preload zone including the at least one spring blade, the at least one flex region and the at least one decoupling preload body; and

wherein an adjustment of the first preload does not result in a substantial change of the second preload.

17. The piezoelectric inertia actuator of claim 16 , wherein the first preload zone and the second preload zone are substantially mechanically decoupled.

18. The piezoelectric inertia actuator of claim 16 , wherein the first preload zone and the second preload zone are not substantially mechanically decoupled.