Abstract:
A driving system for a garage door includes a track having an end fixed on an inside of a wall and has an open side that faces upward. A driving assembly is movably received in the track and driven by a motor. The driving assembly includes a connection member to which two ends of a power transferring member are connected. A U-shaped member is movably engaged with the track from an underside of the track and two sides of the U-shaped member are connected to the driving assembly. A link is pivotably connected between the U-shaped member and the garage door. The power transferring member reeves a gear which is rotatably connected to the track and the motor has a driving shaft which is conveniently extended through an opening of the track and engaged with an engaging hole of the gear.
Abstract:
A tensioner for a cable includes a fixing point and a free end. A first active part defines a first surface of the tensioner, and a second active part defines a second surface of the tensioner which is different from the first surface. The tensioner tensions the cable while following the displacement of the cable. One of the active parts acts as a tensioner on the cable, and the other of the active parts allows the free end of the cable tensioner to follow displacement of the cable, preventing the twisting of the tensioner or deformation of the cable. The tensioner can be employed with cable-driven window regulator for a vehicle.
Abstract:
An opening-and-closing device opens and closes a sliding door by using a cable connected to the sliding door movably attached to a vehicle body. The opening-and-closing device has a base bracket, a motor, a transmission, a rotary drum, a first conduit fixed portion, a second conduit fixed portion, a first tension controller and a second tension controller. The base bracket is fixed to the vehicle body with bolts. The motor, the transmission, the rotary drum, the first and second conduit fixed portions and the first and second tension controllers are fixed to a disposition face of the base bracket. The first and second tension controllers are respectively disposed between the rotary drum and the first conduit fixed portion and between the rotary drum and the second conduit fixed portion, and applies tension to the cable fed from the rotary drum to take up the slack.
Abstract:
A door driving-mechanism torque transmission (20, 40, or 50) for transmitting torque from a door-driving motor assembly, especially a geared motor (36), to a shaft (33) connected to a door panel (31). A driving component rotates around an axis and can be engaged with the door-driving motor assembly. A driven component rotates around another axis and can be engaged with the shaft. A bearing assembly accommodates both components mounted on separated axes of rotation. There is a coupling connection (2) between both components. The object is to promote smooth operation and decrease frequency of repair. The bearing assembly (4 or 51) is accordingly provided with a driving-component bearing half (5 or 52) that the driving component (1) is mounted on and with, separated therefrom, a driven-component bearing half (6 or 53) that the driven component (3) is mounted on. The bearing halves (5 & 6 or 52 & 53) are connected elastically for the purpose of attenuating torsional vibrations and impacts. The invention also concerns a motorized door-driving mechanism provided with such a torque transmission as well as a door provided therewith.
Abstract:
An automotive vehicle door has a glass window that is raised and lowered by a window regulator that includes a roller cable assembly (15). The roller cable assembly (15) has a rolled section guide rail (18) and a bracket assembly (16) at the lower end portion of the glass window that runs on an L-shaped flange (36) of the guide rail (18). The roller cable assembly (15) includes upper and lower roller assemblies (28 and 30) at the respective upper and lower ends of guide rail (18) and a cable (20) that is trained on rollers (22 and 24) of the roller assemblies and on a drive roller (26) that is driven by an electric motor (32). Each roller assembly includes a base (42) that is slideably attached to the guide rail (16) and a detachable cap pin (44) that attaches the guide roller to the base (42).
Abstract:
A window lifter comprises a cable, a window linkage driven by the cable, a fixed device and a cable redirecting device. The cable redirecting device is rotatably mounted on the fixed device and adapted to automatically lock onto the fixed device upon reaching a predetermined angular position. In addition, the cable redirecting device has a cable guiding portion which is not a figure of revolution about the axis of rotation relative to the fixed device. This window lifting mechanism provides a simple structure with few elements. Its assembly is also simple: the cable-redirecting device is rotatably mounted on the fixed device; it is thereafter rotated for tensioning the cable and then locked in a position where the cable is tensioned.
Abstract:
A double walled vehicle door having an inside door panel and an outside door panel forming a space therebetween. The inside door panel having at least one cutout therein. A module carrier is attached to the inside door panel such that the module carrier covers and peripherally seals the at least one cutout. A dual cable window lift having guide bars each having a lower end with an associated pulley mounted thereon and an upper end with an associated pulley mounted thereon. The dual cable window lift being mounted on the module carrier such that the lower ends of the guide bars extend beyond a periphery of the module carrier and the upper ends of the guide bars are positioned within the periphery of the module carrier. The upper ends of the guide bars are mounted on a side of the inside door panel adapted to face an interior of the vehicle.
Abstract:
A door driving-mechanism torque transmission (20, 40, or 50) for transmitting torque from a door-driving motor assembly, especially a geared motor (36), to a shaft (33) connected to a door panel (31). A driving component rotates around an axis and can be engaged with the door-driving motor assembly. A driven component rotates around another axis and can be engaged with the shaft. A bearing assembly accommodates both components mounted on separated axes of rotation. There is a coupling connection (2) between both components. The object is to promote smooth operation and decrease frequency of repair. The bearing assembly (4 or 51) is accordingly provided with a driving-component bearing half (5 or 52) that the driving component (1) is mounted on and with, separated therefrom, a driven-component bearing half (6 or 53) that the driven component (3) is mounted on. The bearing halves (5 & 6 or 52 & 53) are connected elastically for the purpose of attenuating torsional vibrations and impacts. The invention also concerns a motorized door-driving mechanism provided with such a torque transmission as well as a door provided therewith.
Abstract:
A sliding door mechanism controls a door 10 in the form of a series of horizontal slats articulated to the slats above and below to move from a closed position in a vertical plane, along between tracks 14, until open. The door is moved by cables winding on or off a cable drum 12 driven through a drive belt 16 by an electric motor 18. The motor is on a carriage mounted at 30 to allow the drive belt to be slackened to remove drive from the drum 12. Control circuits 20 for the apparatus are described.
Abstract:
A powered sliding device for a sliding door comprises a wire drum rotated by a motor, a wire cable connecting the wire drum and the sliding door, a clutch mechanism provided between the wire drum and the motor. The clutch mechanism has a first coupling state for opening the door, a second coupling state for closing the door, and an uncoupling state. The wire drum has a cylindrical shape having a substantially closed end and an opposite open end, and an inner space formed inside thereof. The clutch mechanism is substantially provided within the inner space. The clutch mechanism is displaced into the first coupling state when the motor rotates in a given direction and displaced into the second coupling state when the motor rotates in a direction opposite to the given direction. The clutch mechanism is returned to the uncoupling state from the first coupling state when the motor is rotated in the opposite direction by a predetermined amount, and is returned to the uncoupling state from the second coupling state when the motor is rotated in the given direction by the predetermined amount.