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: 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: 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: Example architectural opening coverings powered by rotary motors are described. An example an architectural covering comprises a rotatable member, a covering mounted to said rotatable member, a motor to rotate a drive shaft, and a drive shaft coupling structured to: couple the drive shaft to said rotatable member to rotate said rotatable member to raise said covering when said motor is energized to rotate the drive shaft in a first direction, and substantially prevent the drive shaft from applying torque to said rotatable member when said motor is energized to rotate the drive shaft in a second direction to lower said covering.

Abstract: A dual control architectural covering is disclosed. A dual control architectural covering includes a clutch to disengage a motor when the motor is not in use. The dual control architectural covering further includes a manual control to move the covering of the architectural opening while the motor is disengaged. The dual control architectural covering further includes a braking element to resist movement of a drive element of the covering when the motor is disengaged.

Abstract: Methods and apparatus to control an architectural opening covering assembly are disclosed herein. An example architectural opening covering assembly includes a tube and a covering coupled to the tube such that rotation of the tube winds or unwinds the covering around the tube. A motor is operatively coupled to the tube to rotate the tube. The example architectural opening covering assembly also includes a gravitational sensor to generate tube position information based on a gravity reference. The example architectural opening covering assembly further includes a controller communicatively coupled to the motor to control the motor. The controller is to determine a position of the covering based on the tube position information.

Abstract: A dual control architectural covering is disclosed. A dual control architectural covering includes a clutch to disengage a motor when the motor is not in use. The dual control architectural covering further includes a manual control to move the covering of the architectural opening while the motor is disengaged. The dual control architectural covering further includes a braking element to resist movement of a drive element of the covering when the motor is disengaged.

Abstract: Example architectural opening coverings powered by rotary motors are described. An example an architectural covering comprises a rotatable member, a covering mounted to said rotatable member, a motor to rotate a drive shaft, and a drive shaft coupling structured to: couple the drive shaft to said rotatable member to rotate said rotatable member to raise said covering when said motor is energized to rotate the drive shaft in a first direction, and substantially prevent the drive shaft from applying torque to said rotatable member when said motor is energized to rotate the drive shaft in a second direction to lower said covering.

Abstract: Example architectural opening coverings powered by rotary motors are described. An example architectural opening covering apparatus includes a rotatable member, a covering mounted to the rotatable member, a motor having a drive shaft which is capable of rotating the rotatable member in a first direction to raise the covering and in a second direction opposite the first direction to lower the covering, and a drive shaft coupling substantially preventing the motor from applying torque in the second direction.

Abstract: A dual control architectural covering is disclosed. A dual control architectural covering includes a clutch to disengage a motor when the motor is not in use. The dual control architectural covering further includes a manual control to move the covering of the architectural opening while the motor is disengaged. The dual control architectural covering further includes a braking element to resist movement of a drive element of the covering when the motor is disengaged.

Abstract: Methods and apparatus to control an architectural opening covering assembly are disclosed herein. An example architectural opening covering assembly includes a tube and a covering coupled to the tube such that rotation of the tube winds or unwinds the covering around the tube. A motor is operatively coupled to the tube to rotate the tube. The example architectural opening covering assembly also includes a gravitational sensor to generate tube position information based on a gravity reference. The example architectural opening covering assembly further includes a controller communicatively coupled to the motor to control the motor. The controller is to determine a position of the covering based on the tube position information.

Abstract: Example architectural opening coverings powered by rotary motors are described. An example architectural opening covering apparatus includes a rotatable member, a covering mounted to the rotatable member, a motor having a drive shaft which is capable of rotating the rotatable member in a first direction to raise the covering and in a second direction opposite the first direction to lower the covering, and a drive shaft coupling substantially preventing the motor from applying torque in the second direction.

Abstract: A modular blind transport system for a window blind application. The complete system may be assembled from a relatively small number of individual modules to obtain working systems for a very wide range of applications, including especially a category of counterbalanced blinds wherein a relatively small external input force may be used to raise or lower the blind, and/or to open or close the blind.

Abstract: An apparatus and associated method for manufacturing a window covering 50 for an architectural opening. The apparatus includes a support structure handling assembly 92, an operating element handling assembly 94, and a vane handling assembly 96. The handling assemblies process the respective materials to an assembly station 100 to attach one portion of a vane 54 to the operating elements 56, and another portion of the vane 54 to the support structure 52, allowing movement of one portion of the vane 54 relative to other portion of the vane.

Abstract: A horizontally slatted blind for an opening, such as a window, has a plurality of slats suspended from points on their two ends. One such point is the rear corner, and the other is between the front and rear corners. The edges of the slats between the rear corners are provided with stiffeners, which makes the slats rigid and provides them with additional weight. The axes of rotation of the slats lies between the points of suspension, and the slats are balanced relative thereto because of the extra weight provided by the stiffeners.

Abstract: A Venetian-style window blind (10) that resembles plantation style shutters is described. In a preferred embodiment, the headrail is shaped like the plurality of slats depending from it, is pivotally connected to the sides of a window frame by mounting brackets and has a hollow interior. Tilting of the plurality slats depending from the headrail is accomplished by vertically moving an actuator rod that is pivotally connected to the headrail. The plurality of slats are suspended from the headrail by a cord ladder to tilt in unison with the headrail. While tilting the blind assembly into the closed position, the headrail and depending slats also slide inwardly towards the windowpane. The slats are lifted through the actuation of a lift handle that is slidably attached to the actuator rod and contains therein a lock mechanism to hold the slats in a desired position.

Abstract: An apparatus for forming a panel of interconnected tubular vanes and cord ladders for use in a Venetian blind includes a vane-forming system where a strip of vane material is supplied, folded, and pressed into a desired configuration prior to being cut to a predetermined length. The length is determined by the width of the panel to be formed and is effected by a vane-sizing system including a template for positioning a plurality of cord ladder assemblies at predetermined locations for connection to tubular slats formed upstream from the assemblies. The tubular vane material has inert adhesive along a flap on one edge which is heated to activate the adhesive and after having been folded along a generally longitudinal centerline, the flap is folded over the corresponding upper edge of the vane and secured thereto in a sliding compressor.

Abstract: A retractable cellular shade is illustrated in various embodiments to consist of a support structure that could assume numerous forms including cellular material, flexible sheets of material, tapes or ribbons, or flexible monofilaments or similar cords of natural or synthetic fibers with the support structure supporting a plurality of vanes or slats in various configurations and orientations. The movement of the vanes or slats is totally dependent upon movement of the support structure. The fabric so formed can be incorporated into a covering for architectural openings with the covering including a headrail with means for gathering the fabric material within the headrail.

Abstract: A covering for an architectural opening includes a cord which forms a loop hanging from one of the two ends of the headrail by which it is mounted. The loop is used to open and close the material suspended from the headrail and in front of the architectural opening. The cord extends within the headrail between its two ends, and may be pulled from the end lacking the loop in order to move the loop from one side to the other.

Abstract: A retractable cover for architectural openings having collapsible vanes includes a support structure in the form of a sheet of material, monofilaments, tapes, ribbons, cords, or the like, supporting an upper edge of a plurality of vertically spaced, horizontally extending vanes with the lower edges of the vanes in most embodiments of the invention being connected to operating elements adapted to raise the lower edges of each vane toward the upper edges to define openings or gaps between the vanes through which vision and light can pass in an open condition of the covering. Variations of the covering do not require movement of a lower edge of a vane relative to an upper edge but simply movement of some vanes relative to other vanes. The vanes can be made of materials having different flexibilities and where more rigid materials are used, creased fold lines can be established for desired operability.