Systems and methods for providing controlled independent float mechanisms for optical connectors

1. A float mechanism for controlling an optical connector comprising:

a pin having a first end and a second end;

a first shaft assembly and a second shaft assembly;

a base disposed at a distance from the optical connector such that the base is not in direct contact with the optical connector, the base comprising:

a first cantilever and a second cantilever; and

a housing having a first side and a second side, the first side connected to the first cantilever and the second side connected to the second cantilever, the housing defining an opening configured to receive the pin and the housing further defining a plurality of threads configured to receive securing pins for securing the float mechanism to a substrate;

the base defining a first shaft assembly opening for receiving the first shaft assembly and a second shaft assembly opening for receiving the second shaft assembly, the first and second shaft assembly openings positioned on the opposite ends of the first and second cantilevers from the first and second housing sides, respectively; and

a tab comprising a first and second preload surface, a first and second float force surface, a first and second residual force surface and a first and second preload chamfer, the tab configured to receive the first end of the pin;

wherein the float mechanism is configured to control the optical connector by receiving the tab and the first end of the pin within the housing so that, when the optical connector is pushed in the direction of the float mechanism, the tab interacts with the first and second shaft assemblies by pushing the first and second shaft assemblies outward from the tab, causing the cantilevers to flex outward and provide a biasing inward force that pushes the first end of the pin back toward the optical connector while the second end of the pin interacts with components of the optical connector distant from the base.

2. The float mechanism of claim 1 , wherein the first shaft assembly is configured to touch the first float force surface and the second shaft assembly is configured to touch the second float force surface, when the float mechanism is in a first state.

3. The float mechanism of claim 2 , wherein the first shaft assembly is configured to touch the first residual force surface and the second shaft assembly is configured to touch the second residual surface, when the float mechanism is in a second state.

4. The float mechanism of claim 3 , wherein the first and second cantilevers are configured to return the tab to the first state, when the float mechanism is in the second state.

5. The float mechanism of claim 1 , wherein the second end of the pin is connected to an optical connector adaptor.

6. The float mechanism of claim 1 , wherein when force is applied at the second end of the pin towards the first end of the pin pressure is moved through the pin to the tab and at the first and second shaft assemblies.

7. The float mechanism of claim 6 , wherein the pressure at the first and second shaft assemblies bends the first and second cantilever towards opposite directions.

8. The float mechanism of claim 1 , wherein the plurality of threads receives securing pins for securing the float mechanism to a substrate.

9. The float mechanism of claim 1 , the base further defining a plurality of pin openings for receiving a plurality of retaining pins.

10. The float mechanism of claim 9 , wherein the plurality of retaining pins secure the first and second shaft assemblies.

11. A method for controlling an optical connector comprising:

providing a float mechanism that comprises:

a pin having a first end and a second end;

a first shaft assembly and a second shaft assembly;

a base disposed at a distance from the optical connector such that the base is not in direct contact with the optical connector, the base comprising:

a first cantilever and a second cantilever; and

a housing having a first side and a second side, the first side connected to the first cantilever and the second side connected to the second cantilever, the housing defining an opening configured to receive the pin and the housing further defining a plurality of threads configured to receive securing pins for securing the float mechanism to a substrate;

the base defining a first shaft assembly opening for receiving the first shaft assembly and a second shaft assembly opening for receiving the second shaft assembly, the first and second shaft assembly openings positioned on the opposite ends of the first and second cantilevers from the first and second housing sides, respectively; and

a tab comprising a first and second preload surface, a first and second float force surface, a first and second residual force surface and a first and second preload chamfer, the tab configured to receive the first end of the pin; and

controlling the optical connector with the float mechanism by:

receiving the tab and the first end of the pin within the housing so that, when the optical connector is pushed in the direction of the float mechanism, the tab interacts with the first and second shaft assemblies by pushing the first and second shaft assemblies outward from the tab, causing the cantilevers to flex outward and provide a biasing inward force that pushes the first end of the pin back toward the optical connector, and

connecting the optical connector to the second end of the pin distant from the base.

12. The method for controlling an optical connector of claim 11 , wherein the first shaft assembly is configured to touch the first float force surface and the second shaft assembly is configured to touch the second float force surface, when the float mechanism is in a first state.

13. The method for controlling an optical connector of claim 12 , wherein the first shaft assembly is configured to touch the first residual force surface and the second shaft assembly is configured to touch the second residual surface, when the float mechanism is in a second state.

14. The method for controlling an optical connector of claim 13 , wherein the first and second cantilevers are configured to return the tab to the first state, when the float mechanism is in the second state.

15. The method for controlling an optical connector of claim 11 , wherein the second end of the pin is connected to an optical connector adaptor.

16. The method for controlling an optical connector of claim 11 , wherein when force is applied at the second end of the pin towards the first end of the pin pressure is moved through the pin to the tab and at the first and second shaft assemblies.

17. The method for controlling an optical connector of claim 16 , wherein the pressure at the first and second shaft assemblies bends the first and second cantilever towards opposite directions.

18. The method for controlling an optical connector of claim 11 , wherein the plurality of threads receives securing pins for securing the float mechanism to a substrate.

19. The method for controlling an optical connector of claim 11 , the base further defining a plurality of pin openings for receiving a plurality of retaining pins.

20. The method for controlling an optical connector of claim 19 , wherein the plurality of retaining pins secure the first and second shaft assemblies.