A front shoe as a sliding member includes a pair of support walls facing each other in a vehicle width direction, and a fulcrum shaft disposed in a bridging manner between both support walls. A support bracket as a support member supporting a movable panel and integrally moving while being joined to the front shoe includes a joint block having an engagement portion for the fulcrum shaft and serving as a second joint portion joined to a first joint portion on the front shoe side. Further, the joint block is arranged between both support walls while being relatively rotatable about the fulcrum shaft. On the joint block, a cushion member interposed between the joint block and the support walls while being fixed thereto is disposed.

Sliding roof system for an automotive vehicle with a movable roof part which is displaceable relative to a vehicle-fixed roof frame module between a closed position, a ventilation position and an open position, and with a drive system including at least one carrier profile for displacing the roof part. A control lever is provided with at least one support roller which is supported on a floor of the guide rail arrangement, and the floor of the guide rail arrangement includes a seat into which the support roller plunges when the latching cam is received in the latching recess.

A bed cover for a vehicle that may be deployed electromechanically, either on demand or automatically, when a vehicle operator so desires, when predetermined weather conditions are detected, when the vehicle reaches a predetermined speed or experiences predetermined operating conditions, and/or when predetermined aerodynamic drag conditions are detected. The bed cover is deployable from a stowed configuration to one or more use configurations. These use configurations may include a traditional horizontal bed cover and/or an angled “cap-style” bed cover, with the angled bed cover providing enhanced aerodynamic drag reduction characteristics. A vehicle control module and camera, sensor, and/or stop trigger are used to ensure that is safe to deploy and use the bed cover, without negatively impacting an item, animal, or person present in the bed or rear cargo space of the vehicle.

A vehicle roof is provided having a mobile roof element which can be moved by means of a drive carriage which is connected to the roof part and can be movably guided in a guide rail, a drive cable for moving the drive carriage, and a cable connection which connects the drive cable to the drive carriage. The cable connection may have a metal element. In one approach the metal element positively engages in a cable coil arranged on the drive cable.

A drive device for a roof component of a vehicle, such as, for instance, a sliding roof and a solar protection roller blind, may have an electric motor which for activating the roof component interacts with a gearbox. The electric motor here is an external rotor electric motor of a flat construction mode which is aligned so as to be parallel to the installation height of the drive device in a vehicle roof and which has a wheel-shaped external rotor which by way of a toothing provided on the external circumference of the latter engages with the gearbox.

A vehicle roof system and a method of controlling the vehicle roof system are provided. The vehicle roof system includes an opening-closing module that is provided on a roof of a vehicle and a loading module that is provided on the top of the opening-closing module. A locking mechanism is also provided within the loading module. The opening-closing module is slid in one direction or in the opposite direction to open or close the roof. The loading module has a loading space that is separated from an indoor space in the vehicle, with the opening-closing module disposed in between. The locking mechanism supports a weight of a load when in operation for locking and no longer supports the weight of the load when in operation for unlocking.

A vehicle having a roof opening system having a lid element displaceable between a closed and opened position, displacement kinematics for displacing the lid element which are disposed on either side of a vertical longitudinal roof plane, each of the displacement kinematics having a guide rail, a front kinematic unit guided in the guide rail and a rear kinematic unit disposed in the guide rail, and a set of drive cables for the two kinematic units. The guide rail may have a first cable duct section for a first drive cable of the set of drive cables, the first drive cable being driven by a first drive motor and driving the front kinematic unit, and a second cable duct section for a second drive cable of the set of drive cables, the second drive cable being driven by a second drive motor and driving the rear kinematic unit.

An open roof construction for a vehicle comprises a panel for opening and closing an opening in the fixed roof of the vehicle by means of at least one lever assembly connected to the panel. A stationary frame is fitted in the opening of the fixed roof. A drive motor is placed in the vicinity of the rear edge of the opening and in the vicinity of a longitudinal center line of the opening. The drive motor comprises an output shaft having a center axis which is perpendicular to a center axis of a rotor shaft of the drive motor. The drive motor is connected to a motor support which is attached to the frame by means of vibration dampers. The motor support supports a separate gearbox which is capable of transferring the driving torque from the drive motor to the at least one lever assembly connected to the panel.

A motor control device for controlling a brushless motor including a rotor and a three-phase armature coil includes: a position detection unit which detects the rotational position of the rotor; a control unit which outputs, in a first control mode or a second control mode, a first drive signal or a second drive signal to an inverter at a current-supply timing based on the rotational position of the rotor; and the inverter which outputs a first current-supply signal or a second current-supply signal to the three-phase armature coil when the first drive signal or the second drive signal is input. For any two of the three phases, a duty value when the duty of the applied voltages is the same is larger in the second control mode than in the first control mode.

A front link shifts, based on power transmitted from a first guide shaft of a front shoe, among a full-close corresponding position that allows a movable panel to be arranged in a full-close position, a front-up corresponding position that allows the movable panel to be arranged in a front-up position, and a full-open corresponding position that allows the movable panel to be arranged in a full-open position. The front shoe check restricts power of the drive shoe from transmitting to the front shoe, when the drive shoe causes a rear link to shift between a collapsed position and a standing position.