An automated window mechanism having a motor and a force measuring component. A movement path is defined for the window movement relative to a window frame. The force-measuring component measures the force required to move the window along the movement path. The force required is stored as a force map and is a function of position along the path. Deviations from the force map cause the motor to take measures which may include stopping the motor.

A door opening assembly is provided for moving a door of a vehicle between an open position and a closed position. The assembly includes a frame member coupled to the vehicle, a link is coupled to the frame member, and a link arm pivotally coupled to the link. A pivot arm is pivotally coupled to the frame member and a pivot bracket is pivotally coupled to the door and the pivot arm. The pivot bracket includes a slot such that a pin on the link arm slides therethrough. The assembly includes a gear rack and a gear operably coupled to the gear rack. The gear is driven by a motor as the door moves between its open and closed positions. The assembly further includes a guide track coupled to the vehicle and a roller rotatably driven along the guide track as the door moves between its open and closed positions.

A barrier operator includes a motor, a controller operably connected to the motor, a sensor, and a control module. The motor is couplable to a drive mechanism of a barrier and is configured to move the barrier between open and closed positions. The sensor is configured to monitor an operating parameter of the barrier operator associated with movement of the barrier. The control module includes user input controls. The controller is configured to receive a first user input from the control module; initiate, in response to receipt of the first user input, operation of the motor for a first movement of the barrier to establish a first travel limit of the barrier; receive a first signal indicative of the operating parameter from the sensor; and generate, during the first movement of the barrier, a first force limit based on the first signal from the sensor.

A latch assembly connected to the drive unit of a bi-fold door for retaining the bi-fold door secure to a building has elongated straps attached to rotatable latch drums mounted on the outer ends of the drive shaft of the drive unit. Lift drums powered by a motor driven gearbox raise and lower the bi-fold door. Latch assemblies having springs attached to the straps maintain tension on the straps during the opening and closing of the bi-fold door.

A window control apparatus and a window control method thereof which can prevent erroneous operation of a window at the time of simultaneously operating a plurality of windows, may include a sensing unit of sensing a position of a window, a driving unit of driving the window, and a controller configured to control the driving unit to perform a window up operation upon reception of a window up operation command, to check whether a current position of the window has reached the upper end portion of a window frame, to control the driving unit to reversely drive the window when the window has not reached the upper end portion of the window frame, to control the driving unit to stop the window up operation and perform a window restraining operation if other windows stop when the window has reached the upper end portion.

A door operation management system (100), method and computer program product for controlling operation of a door (1), the door operation management system (100) comprises at least a first movement sensor device (10a, 10b, 10c) arranged at the door (1), for determining a movement of the door (1); and a processing circuitry (102a, 102b) operatively connected to the at least first movement sensor device (10a, 10b, 10c) configured to cause the door operation management system (100) to obtain at least a first sensor data (dd1, dd2, dd3, dd4) from the at least first movement sensor device (10a, 10b, 10c); and determine at least a first state (st1, st2, st3, st4) of the door (1) based on the at least a first sensor data (dd1, dd2, dd3, dd4).

A drive arrangement for motorized adjustment of a cargo-space-tailgate arrangement of a motor vehicle the cargo-space-tailgate arrangement including a cargo-space tailgate adjustable between an open position and a closed position, the drive arrangement includes an electric drive, for providing a drive force, and a control arrangement for activating the electric drive. The drive arrangement includes an output element and a drive coupling. The output element transmits the drive force to the drive coupling for motorized adjustment of the cargo-space tailgate. The control arrangement activates the drive in an adjustment routine for motorized adjustment of the cargo-space tailgate to assist an actuation action introduced manually the cargo-space tailgate, and the control arrangement activates the adjustment routine based on an activation preset that is dependent on at least one friction parameter of the drive.

A method for controlling a motorized flap assembly of a motor vehicle, wherein the flap assembly includes a pivotable flap, a drive arrangement associated with the flap and a control arrangement for controlling the drive arrangement. A position sensor for determining position information related to the position of a selected component of the flap assembly is associated with the flap assembly and movement commands for the drive arrangement are generated by the control arrangement based on the position information, to close the flap to an upright closed position during a motorized closing process and to open the flap to a horizontal open position during a motorized opening process. The pivoted open flap may be occupied by an object or a person. The position sensor detects the object or person based on at least one occupancy criterion and an occupancy reaction is triggered depending on the detected occupancy state.

An in-vehicle device includes: a movable member; a motor that moves the movable member; at least one detection switch that detects movement of the movable member; and a controller that controls the motor based on a detected output of the detection switch. The in-vehicle device further includes: a locking mechanism unit that, upon determination by the controller based on the detected output from the detection switch that the movable member reaches an end point region in a movement direction, locks the movable member, and upon determination by the controller that a main switch is set to OFF, releases the lock; and a motor driver that, after the release of the lock by the locking mechanism unit, upon determination by the controller based on the detected output from the detection switch that the movable member is moved again, drives the motor to move the movable member.

A method for controlling a power tailgate in a vehicle power tailgate system includes steps of controlling operation of a motor to attempt to lower or raise a tailgate operably connected to the motor, determining that a clutch interposed between the motor and the tailgate (and operably connected to the motor and the tailgate) slipped by at least a predetermined slip amount during operation of the motor to attempt to lower or raise the tailgate and, responsive to the determination that the clutch slipped by at least the predetermined slip amount, generating an alert indicating a need for manual reset of the tailgate.