Abstract: A perimeter light blockout system for minimizing light leakage between light gaps such as, for example, between the sides of a covering (e.g., shade) of an architectural-structure covering and the interior side surfaces of a window frame, or between the covering and the outer surface of an interior wall is disclosed. The perimeter light blockout system including a light blocking device and a mounting element for coupling the light blocking device to the interior side surface of the window frame, or the outer surface of the interior wall. The light blocking device may include rear and front channel members. The mounting element may be a mounting extrusion. Alternatively, the mounting element may be a spring clip. In use, the light blocking device may be adapted and configured so as not to contact the covering as the covering moves between extended and retracted positions. The mounting element may include a degree of adjustment so that the light blocking device may be aligned with an out-of-skew window frame.

Abstract: An architectural covering with an operable vane having a fabric backing is provided. The vane may include a vane fabric and a backing material connected to the vane fabric by a layer of adhesive. The backing material may increase a machine-direction stiffness of the vane while slightly affecting a cross-direction stiffness of the vane. As such, the vane may have increased stiffness in its machine direction while simultaneously remaining flexible in its cross direction.

Abstract: The present disclosure is generally directed to a covering for architectural features, which may include windows, doorways, archways, and the like, where the covering includes a panel made from a light diffusing material. The light diffusing material is designed and engineered to allow a significant amount of light to pass through the material for providing a desired visual effect while having improved dimensional stability. The covering may contain a light diffusing material that extends along a first direction of the covering (e.g., vertically). The light diffusing material may have an openness factor of about 60% or greater and contain pillars extending in the first direction and bridges extending between the pillars. Each pillar may contain at least two yarns, and each bridge may contain at least one yarn.

Abstract: An arrangement for securing an end cap onto a rail of a covering for an architectural opening includes an elongated rail extending in a longitudinal direction and an end cap having a slightly arcuate shape when at rest. At least one post projects inwardly from the end cap into the rail to contact a surface that is fixed relative to the rail to secure the end cap to the rail in a flattened condition. When the end cap is coupled the rail, the arcuate shape of the end cap is flattened out.

Abstract: In one aspect, a slat configured for use with a covering for an architectural structure includes a route slot defined at least partially by a route wall that is recessed relative to one or more outer faces of the slat. Additionally, the recessed route wall further defines a through-hole for passing a cord through the route slot between the opposed outer faces of the slat. By configuring the disclosed route slot in this manner, the dimensions of the through-hole can be significantly reduced while still allowing full tilting of the slat to the closed position, thereby increasing light control and privacy for the associated covering.

Abstract: A damper providing varying damping force is provided. The damper may include a housing and a rotary member rotatably received the housing. The rotary member may rotate within the housing between defined end points of travel to define an angular range of travel of the rotary member. An outermost surface of the rotary member may be spaced inwardly from an inner surface of the housing defined between the end points of travel to define a gap between the outermost surface of the rotary member and the inner surface of the housing throughout the angular range of travel. The gap may vary in dimension depending on a rotational position of the rotary member to provide varying damping rates within the angular range of travel of the rotary member.

Abstract: A pivotable handle for an architectural covering is provided. The handle (400) includes first and second members (408,410) pivotably connected together at a hinge assembly (460). The first member (408) may be operable to connect the handle (400) to a movable rail (512). The second member (410) pivots between stored and use positions. In a stored position, the second member (410) may extend adjacent the first member (408). In a use position, the second member (410) may be pivoted away from the first member (408) to extend the movable rail (512) across an architectural structure. The handle includes a biasing member (470) operable to bias the second member (410) towards the first member (408).

Abstract: A light blocking or blackout composite material is described. The light blocking material includes at least two metalized layers. In one embodiment, a polymer film is coated on both sides with a first metalized layer and a second metalized layer. The metalized layers may have matching or different optical densities. Other layers can be combined with the metalized layers in order to provide a finished surface and/or to protect the metalized layers.

Abstract: Methods and apparatus to operate a covering of an architectural covering are disclosed. An example apparatus includes a clutch to disengage a motor when the motor is not in use. The dual control architectural covering further includes a clutch to disengage a motor from moving a covering to facilitate manual operation of the covering of an architectural covering when the motor is not in use; and a controller: to track a covering position based on a first encoder measurement from a first encoder; and to track a motor position when the motor disengages based on a second encoder measurement from a second encoder different from the first encoder.

Abstract: In one aspect, a power assist module for covering for an architectural structure may include a spring and a spring shaft extending through the spring. Additionally, the power assist module may include a threaded shaft member coupled to the spring shaft and a drive plug assembly coupled to the threaded shaft member for rotation relative thereto. The drive plug assembly includes a follower member and a separate threaded insert configured to be received within the follower member. The threaded insert is configured to threadably engage the threaded shaft member to allow the follower member to be rotationally coupled to the threaded shaft member in a manner that allows the follower member to move axially along the threaded shaft member as the follower member is rotated relative to the threaded shaft member.

Abstract: A covering for an architecture opening has a horizontal movable rail supported by cords, with a variety of configurations which allow the movable rail to be moved up and down while concealing the cords.

Abstract: An improved bottom rail for an architectural-structure covering is disclosed. The bottom rail includes one or more channels. In use, a first channel may receive a bottom edge of the covering while a weight channel receives a weighted, longitudinal rod therein. Additionally, and/or alternatively, the bottom rail may include pucks for retaining the weighted, longitudinal rod within the weight channel. In use, the pucks are rotatable from a first unlocked position to a second locked position. In the first position, the pucks are slidably positionable along an outer surface of the longitudinal rod. In the second position, the pucks contact the longitudinal rod to thereby exert an additional downward force onto the longitudinal rod so that the longitudinal rod is retained within the weight channel.

Abstract: A mounting assembly for mounting an architectural-structure covering to an architectural structure, in particular a movable structure is disclosed. In use, the mounting assembly is used in combination with the architectural-structure covering so that the architectural-structure covering can be movable between a retracted position and an extended position. All the while, the mounting assembly constrains movement of the covering portion of the architectural-structure covering so that, for example, in use, when the mounting assembly is mounted to a movable structure, the covering is prevented from moving relative to (e.g., away from) the architectural structure when the movable structure is opened and closed.

Abstract: The present disclosure describes roll-up coverings of custom length and/or width for architectural openings, and a method of assembling the same. The custom covering includes at least one outer elongate tape, at least one inner elongate tape, and a plurality of slats. The tapes preferably have lengths along central longitudinal axis extending between first ends and second ends of the tapes that are selected to correspond to the custom length of the covering. The slats are preferably transverse to, spaced apart along, and coupled to the tapes at any desired location along the tape lengths to achieve desired spacings of the slats, thereby providing a subassembly of custom length. The slats may have lengths extending between first ends and second ends of the slats, orthogonal to the central axis of the tapes, and selected to provide a custom width of the subassembly.

Abstract: An architectural-structure covering and corresponding method of manufacturing, assembly, or the like is disclosed. The architectural-structure covering including a covering comprising a front layer, a rear layer, and an intermediate barrier layer, wherein the intermediate barrier layer is coupled to a rear side of the front layer and to a front side of the rear layer so that the intermediate barrier layer is positioned between the front and rear layers. The architectural-structure covering further comprising a plurality of lift elements arranged and configured to move the covering between extended and retracted positions. The lift elements being positioned being the intermediate and rear layers. In this manner, the lift elements may be sandwiched between the intermediate and rear layers thus rending the lift elements inaccessible, or at least greatly limiting accessibility, to an end user.