Abstract: A shade system includes a plurality of shade assemblies each including an elongated shade tube having an inner surface defining an inner cavity, an outer surface for winding receipt of a flexible shade, at least one coupling end, and an axis of rotation; a connector assembly having a first coupling unit secured to the inner surface at the coupling end of a first shade tube and a second coupling unit secured to the inner surface at the coupling end of a second shade tube substantially adjacent the first shade tube, the first coupling unit and the second coupling unit cooperating to transfer an applied torque from the first shade tube to the second shade tube; an end bracket for rotatably supporting a free end portion of a shade tube when attached to a supporting structure; and a mounting bracket for adjusting the connector assembly.

Abstract: An architectural covering is provided. The architectural covering includes: shade material; the shade material operatively connected to a motor unit such that movement of the motor unit causes movement of the shade material; the motor unit comprising a DC motor and a shaft connected to the DC motor; a power supply unit electrically connected to the motor unit; a controller unit electrically connected to the motor unit, the controller unit having a microprocessor; and a rotation detector configured to detect rotation of the motor unit and upon detection of rotation of the motor unit transmit a signal to the microprocessor, wherein the microprocessor of the controller unit is configured to power an encoder unit in response to determination of manual movement of the shade material. A motor and control unit for an architectural covering may be provided.

Abstract: A roll shade system is disclosed. The roll shade system includes a motor configured to remain stationary during operation of the motor, a support shaft supporting the motor wherein the support shaft is configured to remain stationary during operation of the motor, and a roll shade tube configured to be rotatable about the motor and the support shaft during operation of the motor. The roll shade system further includes stationary components including a wiring connector, an input wiring system, a bearing, an antenna, a coaxial cable, a motor controller, a counterbalance spring. The roll shade system also includes rotatable components including a bearing housing and one or more O-rings.

Abstract: The invention advantageously provides a deployable screen system that includes a roller tube, a motor/controller unit and a power supply unit. The motor/controller unit is disposed within the roller tube, and includes a bearing, rotatably coupled to a support shaft, and a DC gear motor. The output shaft of the DC gear motor is coupled to the support shaft such that the output shaft and the support shaft do not rotate when the support shaft is attached to the mounting bracket. The deployable screen system is operable by tugging, manual movement and wireless control. The DC gear motor is underpowered by a plurality of batteries positioned within the roller tube. In this way a novel, useful and nonobvious deployable screen system is presented.

Abstract: A spring counterbalance apparatus and method consists of a shade system with a torque profile, where the shade system is connected with a drive shaft. A first spring system is connected with the drive shaft where the first spring system is a standard wound spring system. A second spring system is connected with the drive shaft where the second spring system is a reverse wound spring system and where, in combination, the first spring system and the second spring system produce a counterbalance torque profile approximately equal to the shade system torque profile.

Abstract: A curtain assembly comprises a rotatable drive element wherein at least one helical guide structure is formed on, or into, the outer surface of the drive element. A drive attachment element having a structure that communicates with the helical guide structure to move the drive attachment element axially along the drive element when the drive element is rotated. Specific embodiments incorporate either a manual or motor-driven rotation assembly for rotating the drive element. Further specific embodiments involve a helical guide structure that comprises a helical groove and a structure that comprises a tooth that engages with the helical groove.

Abstract: A motorized window covering is presented having an elongated hollow rod. A battery tube is positioned within the hollow rod. The battery tube has a hollow interior with an elongated spring therein and a stop positioned adjacent an open end of the battery tube. An end cap closes the open end of the battery tube. A plurality of batteries are inserted in end-to-end alignment into the hollow interior of the battery tube. As each battery is inserted, the stop deflects thereby allowing the battery past the stop. Once each battery passes the stop, the stop moves into a stop position thereby holding the battery within the battery tube. To remove each of the plurality of batteries, the stop is deflected and the spring forces the battery out of the hollow interior of the battery tube. The battery tube is electrically connected to a motor that when activated rotates the rod thereby operating the window covering.

Abstract: A motorized roller shade includes a shade tube, including an outer surface upon which a shade is attached, an inner surface defining an inner cavity and two end portions, a motor/controller unit, disposed within the shade tube inner cavity and mechanically coupled to the shade tube inner surface, including a support shaft configured to attach to a mounting bracket, and a DC motor having an output shaft coupled to the support shaft such that the output shaft and the support shaft do not rotate when the support shaft is attached to the mounting bracket. A wireless receiver is coupled to the motor/controller unit to receive wireless signals and an antenna is arranged on or in at least one of the two end portions.

Abstract: A motorizable tilt shade system includes a header system where the header system includes an integral header attachment connection. At least one cord spool is provided within the header system and is connected with at least one suspension cord. A shade is suspended from the at least one suspension cord and a tilt cord pulley is connected with the at least one cord spool. A tilt cord is connected with the tilt cord pulley and with the shade such that the tilt cord and tilt cord pulley cooperate to tilt the shade. A drive shaft receiver is connected with the tilt cord pulley such that movement of the drive shaft receiver moves the tilt cord pulley. A counterbalance assembly including a negative gradient spring is connected to the drive shaft thereby providing an approximately constant tension on the tilt cord pulley.

Abstract: A battery holder apparatus and method includes a sleeve with an inside surface and an outside surface where the sleeve is flexible. A battery receiving space is created within the sleeve where the battery receiving space expands and the sleeve flexes to accommodate a battery when inserted therein and the inside surface at least partially contacts the battery. And a connection device is provided on the outside surface of the sleeve.

Abstract: The present invention advantageously provides a motorized roller shade that includes a shade tube, a motor/controller unit and a power supply unit. The motor/controller unit is disposed within the shade tube, and includes a bearing, rotatably coupled to a support shaft, and a DC gear motor. The output shaft of the DC gear motor is coupled to the support shaft such that the output shaft and the support shaft do not rotate when the support shaft is attached to the mounting bracket.

Abstract: A Venetian shade and Roman shade assembly is presented having a header with a drive shaft assembly positioned in the header, the drive shaft having a plurality of lift and tilt spool assemblies. A motor controller assembly is removably positioned within the header and connected to the drive shaft assembly. The motor controller assembly includes a motor, a plurality of batteries and a motor controller that is wirelessly controllable by a remote. When the motor of the motor controller assembly is activated, the motor rotates the drive shaft assembly thereby raising or lowering the shade material as well as tilting the shade material.

Abstract: In a window covering system with a shade roll, a counterbalanced motorized shade roll system includes a shade roll with a hollow interior connected with a window covering system. A motor is located within the hollow interior. A torsion spring is also located within the hollow interior of the shade roll and the torsion spring is connected with the motor on one end and with the hollow interior on another end. Batteries are also located within the hollow interior of the shade roll opposite from the motor and after the connection of the torsion spring with the hollow interior of the shade roll such that the torsion spring does not surround the batteries.

Abstract: An architectural covering with a roll tube rotatably connected to mounting brackets at opposing ends and having shade material wrapped around the roll tube. The roll tube has a hollow interior with a motor assembly, a battery tube assembly and a spring assembly positioned within the hollow interior of the roll tube. One end of the architectural covering is mounted to a top loading bracket whereas the opposite end of the architectural covering is connected to a bottom loading bracket. The bottom loading bracket includes a recessed portion having an axel opening and a deflectable clip member that covers the axel opening. As an axel is inserted into the bracket, the clip member deflects allowing the axel to enter the axel slot and the clip member locks the axel into the axel slot. In this way an improved method of installing architectural coverings is presented.

Abstract: A programmable wall station system for controlling automated coverings includes at least one automated covering adapted to receive command signals, and a computer which includes a processor and a computer connection port. The processor is programmed to receive location input, position input for the automated coverings, schedule input, and generate scheduled events based on any of the received input. A wall station includes a controller and a station connection port that is linkable to the computer connection port. The controller is programmed to receive scheduled events from the processor when the station connection port and computer connection port are linked to one another and generate command signals based on the scheduled events for receipt by the automated covering to control its operation.

Abstract: A spring counterbalance apparatus and method consists of a shade system with a torque profile, where the shade system is connected with a drive shaft. A first spring system is connected with the drive shaft where the first spring system is a standard wound spring system. A second spring system is connected with the drive shaft where the second spring system is a reverse wound spring system and where, in combination, the first spring system and the second spring system produce a counterbalance torque profile approximately equal to the shade system torque profile.

Abstract: A transmitter holder apparatus includes a bezel with a front surface, sides and a flat back where the front surface includes a recess A transmitter assembly is provided where the transmitter assembly is configured to fit within the recess in the front surface of the bezel. A connector device is provided for removably connecting the transmitter assembly with the bezel.

Abstract: A multiple shade apparatus and method includes a shade system with a shade header with end caps. A first shade roll is provided with a first shade connected with the first shade roll and the first shade includes a first bottom bar. The first shade roll is connected with the shade header. A second shade roll is provided with a second shade connected with the second shade roll and the second shade includes a second bottom bar. The second shade roll is also connected with the shade header. A first connector device is provided that is connected with the first shade and a second connector is connected with the second shade. A detachment device connected with the shade system is provided for automatically disconnecting the first connector and the second connector.

Abstract: A motorizable shade system and method consists of a header system where the header system includes an integral header attachment connection. At least one cord spool is provided within the header system and is connected with at least one suspension cord and a shade is suspended from the at least one suspension cord. A motor assembly attachment connection is provided in a motor assembly that is conformed to connect with the integral header attachment connection and the motor assembly also includes a motor assembly electrical connector. A power system with a power attachment connection is provided that is conformed to connect with the integral header attachment connection. The power system also includes a power system electrical connector that is conformed to connect with the motor assembly electrical connector. The motorizable shade system operates manually unless and until a motor assembly and power system are connected with the integral header attachment connection and the cord spool.