Motorized drapery apparatus, system and method of use
An architectural covering is presented having a rotatable drive element having a guide structure and a plurality of idler attachment elements and a drive element positioned over the rotatable drive element. The rotatable drive element is connected to a wall, ceiling or other structure by brackets. In one arrangement a drive shaft having at least one bearing is then attached to the brackets such that the rotatable drive elements rotate upon the bearings. This arrangement provides an efficient, simple and convenient manner of attaching a rotatable drive element to brackets for mounting.
1. An architectural covering system comprising;
a ring;
the ring having a hollow interior;
a pair of guide arms;
wherein the pair of guide arms extend into the hollow interior of the ring;
wherein the pair of guide arms form a curved interior surface;
wherein the curved interior surface includes at least one tooth thereon;
wherein the curved interior surface is configured fit around and receive a generally cylindrical exterior surface of a rotatable drive element having at least one helical groove therein;
wherein when the curved interior surface is placed around the generally cylindrical exterior surface of the rotatable drive element the at least one tooth of the curved interior surface engages the at least one helical groove of the rotatable drive element;
wherein when the rotatable drive element rotates the ring is driven along a length of the rotatable drive element;
wherein when the rotatable drive element rotates and the ring is driven along a length of the rotatable drive element, the pair of guide arms flex to accommodate variations in the rotatable drive element; and
the ring having a connector configured to connect with a drapery and support hanging of the drapery from the rotatable drive element.
2. The architectural covering system of claim 1 , wherein each of the pair of guide arms include a tooth on the curved interior surface.
3. The architectural covering system of claim 1 , wherein the curved interior surface is a concave surface.
4. The architectural covering system of claim 1 , wherein the curved interior surface of the guide arms curves in approximate parallel spaced relation to the generally cylindrical exterior surface of the rotatable drive element such that the curved interior surface of the guide arms receive the exterior surface of rotatable drive element in matching alignment.
5. The architectural covering system of claim 1 , wherein the pair of guide arms extend inward from an interior surface of the ring.
6. The architectural covering system of claim 1 , wherein the pair of guide arms extend inward from an interior surface of a main body that is held within the ring, which is a decorative ring.
7. The architectural covering system of claim 1 , wherein the guide arms connect to an interior surface of the ring at elastic pivot points that allow flexing of the guide arms.
8. The architectural covering system of claim 1 , wherein the guide arms are positioned on opposite sides of a center on the ring and extend downward from an upper portion of the ring.
9. The architectural covering system of claim 1 , wherein the at least one tooth is comprised of a generally elongated shape with sidewalls positioned in parallel spaced relationship with one another.
10. The architectural covering system of claim 1 , wherein the at least one tooth having ends configured to slide over aberrations, burrs, or abnormalities in the rotatable drive element.
11. The architectural covering system of claim 1 , wherein the at least one tooth having one of rounded ends and pointed ends configured to slide over aberrations, burrs, or abnormalities in the rotatable drive element.
12. The architectural covering system of claim 1 , wherein the ring of the drive element has a diameter that is greater than a width.
13. An architectural covering system comprising:
a rotatable drive element having a generally cylindrical exterior surface and at least one helical guide structure therein; and
a drive attachment element configured to move along a length of the generally cylindrical exterior surface of the rotatable drive element;
wherein the drive attachment element includes a ring having a hollow interior and a pair of guide arms that extend into the hollow interior of the ring;
wherein each guide arm having at least one tooth configured to engage the at least one helical guide structure of the rotatable drive element;
wherein the pair of guide arms are configured to flex as the drive attachment element moves along the rotatable drive element
wherein the rotatable drive element is positioned to rotate about a generally horizontal axis; and
wherein when the rotatable drive element rotates and the drive attachment element is moved laterally along the length of the rotatable drive element.
14. The architectural covering system of claim 13 , wherein the at least one tooth has ends configured to slide over aberrations, burrs, or abnormalities in the rotatable drive element.
15. The architectural covering system of claim 13 , the teeth of the pair of guide arms have a generally elongated shape with sidewalls positioned in parallel spaced relationship with one another.
16. The architectural covering system of claim 13 , wherein the at least one helical guide structure is a helical groove, and inner surfaces of the pair of guide arms curves in approximate parallel spaced relation to the generally cylindrical exterior surface of the rotatable drive element such that the inner surface of the guide arms receive the exterior surface of rotatable drive element in matching alignment.
17. The architectural covering system of claim 13 , wherein the pair of guide arms connect to an interior surface of the drive attachment element at elastic pivot points.
18. A method of operating an architectural covering system, the steps comprising:
providing a rotatable drive element having a generally cylindrical exterior surface and at least one helical guide structure therein;
providing a drive attachment element having a ring having a hollow interior and a pair of guide arms that extend into the hollow interior of the ring, wherein each guide arm includes at least one tooth configured to engage the at least one helical guide structure of the rotatable drive element;
placing the drive attachment element around the rotatable drive element such that the at least one tooth of the pair of guide arms engages the at least one helical guide structure of the rotatable drive element;
rotating the rotatable drive element about a generally horizontal axis, thereby driving the drive attachment element along a length of the rotatable drive element; and
wherein the pair of guide arms are configured to flex as the drive attachment element moves along the rotatable drive element.
19. The method of claim 18 , wherein the pair of guide arms include a curved interior surface that curves in approximate parallel spaced relation to the generally cylindrical exterior surface of the rotatable drive element such that the curved interior surface of the guide arms receive the exterior surface of rotatable drive element in matching alignment.
20. The method of claim 18 , wherein the pair of guide arms extend inward from an interior surface of the ring.
21. The method of claim 18 , wherein the pair of guide arms extend inward from an interior surface of a main body that is held within the ring, which is a decorative ring.
22. The method of claim 18 , wherein the guide arms connect to an interior surface of the ring at elastic pivot points that allow flexing of the guide arms.
23. An architectural covering system comprising:
a rotatable drive element having a generally cylindrical exterior surface and at least one helical guide structure therein; and
a drive attachment element configured to move along a length of the generally cylindrical exterior surface of the rotatable drive element;
wherein the drive attachment element includes a ring having a hollow interior and at least one guide arm that extends into the hollow interior of the ring;
wherein the at least one guide arm forms a curved interior surface that is configured to fit over the generally cylindrical exterior surface of the rotatable drive element;
the drive attachment element having at least one tooth configured to engage the at least one helical guide structure of the rotatable drive element;
wherein the at least one guide arm is configured to flex as the drive attachment element moves along the rotatable drive element; and
wherein the rotatable drive element is positioned to rotate about a generally horizontal axis; and
wherein when the rotatable drive element rotates and the drive attachment element is moved laterally along the length of the rotatable drive element.
24. The architectural covering system of claim 23 , wherein the at least one tooth has ends configured to slide over aberrations, burrs, or abnormalities in the rotatable drive element.
25. The architectural covering system of claim 23 , wherein the at least one helical guide structure is a helical groove, and the curved interior surface of the at least one guide arm curves in approximate parallel spaced relation to the generally cylindrical exterior surface of the rotatable drive element such that the curved interior surface of the at least one guide arm receives the exterior surface of rotatable drive element in matching alignment.
26. The architectural covering system of claim 23 , wherein the at least one guide arm connects to an interior surface of the drive attachment element at elastic pivot points.