Micro-adjustable rotary closure
Various embodiments of a system and associated methods for an improved rotary closure for tensioning a tensioned lacing element are disclosed herein. In particular, the improved rotary closure includes an adjuster component in association with a tensioning component to incrementally counter-rotate the tensioning component and a tensioned cylindrical device, enabling micro-adjustment of the rotary closure without complete de-tensioning of the tensioned cylindrical device.
1. A rotary closure, comprising:
an adjuster component defining an adjuster block having an angled edge;
a tensioned cylindrical device disposed within a housing, the tensioned cylindrical device configured for receipt of a tensioned lacing element; and
a tensioning component in operative association with the tensioned cylindrical device and the adjuster component that applies a contrary rotational force to the tensioned cylindrical device along a first rotational direction, the tensioning component including:
a catch spring configured to engage the housing and prevent rotation of the tensioning component in a second rotational direction when the catch spring is engaged with the housing;
wherein rotation of the adjuster component in the second rotational direction causes the angled edge to contact the catch spring and cause the catch spring to disengage from the housing such that the tensioning component is allowed to rotate in the second rotational direction, and
wherein the adjuster component further includes an outer tab that extends beyond the housing.
2. The rotary closure of claim 1 , wherein the catch spring is configured to releasably engage a plurality of teeth of the housing to advance a rotational position of the tensioning component in a first rotational direction along the plurality of teeth of the housing when the tensioning component is rotated in the first rotational direction.
3. The rotary closure of claim 2 , wherein the plurality of teeth of the housing are angled to allow the catch spring of the tensioning component to move radially inward and then snap radially outward again as the tensioning component is rotated in the first rotational direction.
4. The rotary closure of claim 1 , wherein the angled edge of the adjuster component contacts a catch spring block of the catch spring during rotation of the adjuster component in the second rotational direction and pushes the catch spring block inward towards a common center axis.
5. The rotary closure of claim 1 , wherein the catch spring is biased away from a common center axis of the rotary closure such that the catch spring is oriented away from the common center axis when in an un-tensioned state.
6. The rotary closure of claim 5 , wherein the catch spring pushes a catch spring block of the catch spring outward from the common center axis to engage the housing.
7. A device for incremental adjustment of a rotational position of a tensioned cylindrical device within a housing, comprising:
a tensioned cylindrical device positioned within a housing that, when rotated in a first rotational direction, generates a rotational force along a second rotational direction;
a tensioning component positioned within the housing configured to apply a contrary rotational force along the first rotational direction to prevent rotation of the tensioned cylindrical device in the second rotational direction, the tensioning component including a catch spring that engages the housing and applies an outward lateral force against the housing, and a pawl member configured to engage the tensioned cylindrical device and apply the contrary rotational force to the tensioned cylindrical device along the first rotational direction to prevent rotation of the tensioned cylindrical device in the second rotational direction;
wherein the pawl member is operable to disengage the tensioned cylindrical device upon rotation of a dial in the second rotational direction; and
an adjuster component configured for temporarily disengaging the catch spring from the housing to enable incremental rotation of the tensioning component in the second rotational direction.
8. The device of claim 7 , wherein incremental rotation of the tensioning component in the second rotational direction enables incremental rotation of the tensioned cylindrical device in the second rotational direction.
9. The device of claim 7 , wherein the adjuster component is operable for rotation around the tensioning component and wherein the adjuster component includes an adjuster block that, when rotated in the second rotational direction and upon contact with the catch spring, causes the catch spring to disengage the housing and enable incremental rotation of the tensioning component in the second rotational direction.
10. The device of claim 9 , wherein release of the adjuster component following disengagement of the catch spring from the housing causes the catch spring to re-engage the housing and prevent further rotation of the tensioned cylindrical device in the second rotational direction.
11. The device of claim 7 , wherein the catch spring is configured to releasably engage a plurality of teeth of the housing to advance a rotational position of the tensioning component in the first rotational direction along the plurality of teeth of the housing when the tensioning component is rotated in the first rotational direction.
12. The device of claim 11 , wherein the plurality of teeth of the housing are angled to allow the catch spring of the tensioning component to move radially inward and then snap radially outward again as the tensioning component is rotated in the first rotational direction.
13. The device of claim 7 , wherein rotation of the dial in the first rotational direction, rotates the tensioning component in the first rotational direction.
14. The device of claim 13 , wherein rotation of the dial in the second rotational direction causes the tensioning component to disengage the tensioned cylindrical device.
15. The device of claim 13 , wherein the dial includes a cam component that engages a cam follower of the tensioning component to disengage the tensioning component from the tensioned cylindrical device.
16. A method, comprising:
providing a tensioned cylindrical device for positioning within a housing that, when rotated in a first rotational direction, generates a rotational force along a second rotational direction;
providing a tensioning component for positioning within the housing and configured to apply a contrary rotational force to the tensioned cylindrical device along the first rotational direction to prevent rotation of the tensioned cylindrical device in the second rotational direction, the tensioning component including a catch spring that engages the housing and applies an outward lateral force against the housing and a pawl member configured to engage the tensioned cylindrical device and apply the contrary rotational force to the tensioned cylindrical device along the first rotational direction to prevent rotation of the tensioned cylindrical device in the second rotational direction,
wherein the pawl member is operable to disengage the tensioned cylindrical device upon rotation of a dial in the second rotational direction; and
providing an adjuster component for engaging the tensioning component and configured for temporarily disengaging the catch spring from the housing to enable incremental rotation of the tensioning component in the second rotational direction.
17. The method of claim 16 , wherein the adjuster component is operable for rotation around the tensioning component and wherein the adjuster component includes:
an adjuster block that, when rotated in the second rotational direction and upon contact with the catch spring, causes the catch spring to disengage the housing and enable incremental rotation of the tensioning component in the second rotational direction;
wherein release of the adjuster component following disengagement of the catch spring from the housing causes the catch spring to re-engage the housing and prevent further rotation of the tensioned cylindrical device in the second rotational direction.
18. The method of claim 16 , further comprising:
providing the dial for engagement with the tensioning component, wherein rotation of the dial in the first rotational direction causes the tensioning component to rotate in the first rotational direction.