A window covering includes a movable window covering material, lift cords for moving the material, a lift cord take-up shaft for gathering and releasing lengths of the lift cords to move the window covering material, and a motorized lift assembly. The motorized lift assembly includes a motor assembly including a motor, a gear train drivingly connected to and operated by the motor, and a driveshaft drivingly connected to the gear train and to the lift cord take-up shaft. The gear train includes a plurality of planetary gear stages.

A cable guided shade system can include a head rail at least one guide cable anchor spaced from the head rail, and at least on guide cable that is fixed to the head rail and extends to the guide cable anchor. The guide cable anchor is configured such that the guide cable can be tensioned at the guide cabled anchor. The system further includes a covering material that is fixed to the head rail and is configured to move along the guide cable between an open position and a closed position.

Systems and methods for configuring a user device to remotely control a plurality of architectural structural coverings are described. A user device receives a plurality of broadcast signals from a plurality of architectural structural coverings. Each individual broadcast signal is associated with an individual architectural structural covering and relays position information for the individual architectural structural covering. Each broadcast signal is also associated with an individual entry in a list of entries displayed on a user interface of the user device. Each entry comprises a representation of an architectural structural covering having a displayed position that matches position information from the broadcast signal and a position control for controlling a physical position of the associated architectural structural covering. When a user adjusts the position via the position control, an adjusted position instruction is sent to the associated architectural structural covering. The displayed position of the representation on the UI is changed to mirror a change in the physical position of the architectural structural covering as the user device observes broadcast position data from the architectural structural covering.

A load control system automatically controls the amount of daylight entering a building through at least one window of a non-linear faade of the building. The load control system comprises at least two motorized window treatments located along the non-linear faade, and a system controller. The controller is configured to calculate an optimal position for the motorized window treatments at each of a plurality of different times during a subsequent time interval using at least two distinct faade angles of the non-linear faade, such that a sunlight penetration distance will not exceed a maximum distance during the time interval. The controller is configured to use the optimal positions to determine a controlled position to which both of the motorized window treatments will be controlled during the time interval and to automatically adjust each of the motorized window treatments to the controlled position at the beginning of the time interval.

A clock comprises an alarm clock housing having a front face, a clock display occupying at least a portion of the front face, a control on the housing for activating a shade positioning function, and a processor within the housing. The processor is responsive to the control for generating at least one shade positioning command to be transmitted to at least one motorized window shade, so as to cause the motorized window shade to move to one or more position at one or more corresponding predetermined interval relative to an alarm time.

The invention to which this application relates is apparatus and a method for use with blinds and louvres, hereinafter referred to, in a non-limiting manner, as blinds and which includes roller blinds, roman blinds and Venetian blinds. The apparatus and method allows the free end of the blind to be selectively positioned and retained at a predetermined position intermediate the fully retracted and fully extended positions and to be retained at that position.

A hardwired and wirelessly controlled motorized window shade system is presented that includes a plurality of motorized window shades that are connected by a cable, such as Ethernet cable, to a power panel and a hardwired control. Motorized window shades are also wirelessly connected to a wireless control through a gateway. This arrangement provides the motorized window shades with the advantage of receiving power and control signals through the cable, as well as giving the flexibility of being controlled through a wireless control.

The present invention relates to a gate with a gate panel, comprising several gate panel sections which are hingedly coupled to each other by way of hinges, where a hinge comprises two hinge panels of adjacent gate panel sections, at least one elongate drive means which is connected to at least one gate panel section, and at least one guide means which is suitable to guide the gate panel during its motion. In order to optimize the gate with regard to its installation space, in particular in the width and depth direction, and to ensure simple and inexpensive yet at the same time still reliable operation of the gate, it is proposed to arrange the elongated drive means at least in sections received in the gate panel section.

A motor drive system for operating a mechanism for raising and lowering window coverings includes a motor operating under electrical power and an electrically powered drive system. The motor drive system advances a continuous cord loop in response to positional commands from a controller. An input-output device includes a capacitive touch strip that receives user inputs along an input axis, and an LEDs strip aligned with the input axis. A group mode module communicates the positional commands to other motor drive systems within an identified group to operate respective other mechanisms of the other motor drive systems. A set control module enables user calibration of a top position and a bottom position of travel of the window covering. The input-output device extends vertically on the exterior of a housing for the motor drive system, and the housing supports input buttons of the group mode module and the set control module.

Electronic shutter systems having an electronic shutter, a shutter controller configured in communication with the electronic shutter and configured to receive instructions from one or more user devices, a shutter sensor associated with the electronic shutter and configured to detect a state of the electronic shutter, wherein the shutter sensor is in communication with the shutter controller. The shutter controller is configured to transmit a state command to the electronic shutter upon receiving instructions from a user device, start a timer upon transmitting the state command, determine if a state of the electronic shutter matches the state command at expiration of the timer, when the state does not match the state command, generate a state failure message, and transmit the state failure message to the user device.