The present invention is a power window sync switch for the windows of a vehicle that permits controlling all windows by a single active home or main control window switch. It permits the driver to move all window panels in the vehicle to the same position at the same time. The power window sync switch sends a signal to a micro-processor within the switch to indicate that the window position selected via the actuated switch is to be applied to all window panels simultaneously. The micro-processor within the switch may then proceed to actuate all window lift motors within the vehicle, causing movement of all window panels to the appropriate positions.

A method for operating a building closure having the shape of an overhead sectional door or of a garage door including at least one spring-loaded counterweight device and an electrical drive device is disclosed. A control unit simultaneously monitors the position of the building closure and a motor current for the drive device. When the building closure is in an open or a closed position, the motor current is reduced and maintained at a level to residually energize the drive device to reliably maintain the building closure in a desired position.

A method for controlling at least one vehicle function of a vehicle assembly having a vehicle and a roof rack which is mounted on a roof of the vehicle, wherein a communication link is produced between the roof rack and the vehicle, wherein at least one piece of information comprising the mounting state of the roof rack is transmitted to the vehicle via the communication link, and wherein the piece of information is taken into account in the control of the at least one vehicle function.

The motor control device is an electric motor control device including a control unit (control circuit unit) configured to output a forward-rotation command or a reverse-rotation command to the electric motor. The control unit includes a position detector (door opening/closing information generation circuit) configured to detect a rotation direction of the electric motor when a detection signal is input from a rotation sensor (Hall integrated circuit (IC)), which detects the rotation of the electric motor, while no current is supplied to the electric motor. The control unit includes an electric current supply device (pulse width modulation (PWM) command generation circuit) configured to supply an electric current by which the electric motor is rotated in an opposite direction to the detected rotation direction by increasing an electric current supply duty ratio every time the detection signal is switched.

A method for controlling at least one vehicle function of a vehicle assembly having a vehicle and a roof rack which is mounted on a roof of the vehicle, wherein a communication link is produced between the roof rack and the vehicle, wherein at least one piece of information comprising the mounting state of the roof rack is transmitted to the vehicle via the communication link, and wherein the piece of information is taken into account in the control of the at least one vehicle function.

The present invention is a security display case comprising: an enclosure having a plurality of sidewalls defining a safe portion, one of the sidewalls having an opening formed therein; at least a pair of panels hingedly attached over the opening of the enclosure, at least one first locking mechanism disposed on a first panel of the at least a pair of panels and a second locking mechanism disposed on a second panel of the at least a pair of panels; a display housing moveable in and out of the safe portion of the enclosure; at least one locking assembly mounted within the enclosure to facilitate locking and unlocking the display housing within the enclosure; and a control system for operating the movement of the display housing and the locking assembly.

The present invention is a security display case comprising an enclosure defining a safe portion, a display housing with a lift platform, a top wall, and a closure member, the display housing moveable into and out of the safe portion, a lift mechanism disposed in the safe portion drivingly connected to the lift platform, the lift mechanism controlled by a first drive motor, a locking mechanism mounted within the enclosure comprising at least one disc adapted to rotatably extend into and retract into a gap provided between the top wall and closure member of the display housing, the locking mechanism controlled by a second drive motor, and a control system controlling the first and second drive motors, the control system further comprising a lower limit switch, an upper limit switch, a locking trip switch, and an unlocking trip switch.

The present invention is a security display case comprising an enclosure defining a safe portion, a display housing with a lift platform, a top wall, and a closure member, the display housing moveable into and out of the safe portion, a lift mechanism disposed in the safe portion drivingly connected to the lift platform, the lift mechanism controlled by a first drive motor, a locking mechanism mounted within the enclosure comprising at least one disc adapted to rotatably extend into and retract into a gap provided between the top wall and closure member of the display housing, the locking mechanism controlled by a second drive motor, and a control system controlling the first and second drive motors, the control system further comprising a lower limit switch, an upper limit switch, a locking trip switch, and an unlocking trip switch.

The present invention is a security display case comprising: an enclosure having a plurality of sidewalls defining a safe portion, one of the sidewalls having an opening formed therein; at least a pair of panels hingedly attached over the opening of the enclosure, at least one first locking mechanism disposed on a first panel of the at least a pair of panels and a second locking mechanism disposed on a second panel of the at least a pair of panels; a display housing moveable in and out of the safe portion of the enclosure; at least one locking assembly mounted within the enclosure to facilitate locking and unlocking the display housing within the enclosure; and a control system for operating the movement of the display housing and the locking assembly.

An apparatus comprising a baseplate configured to be coupled to an interior side of an inswing door adjacent a pivot edge of the door; a rotatable closing arm with a first end and a second end, the second end coupled to a motor, the motor configured to be engaged in response to receipt of a signal from a remote electronic device; and circuitry electrically coupled between a power supply and the motor, the circuitry configured to wirelessly send and receive information to and from the remote electronic device.