Abstract:
An adjustable pulley assembly includes a fixing plate securely mounted on top of an upper frame of a suspended door, an adjusting seat mounted to the fixing plate, a pulley seat securely attached to the adjusting seat to move therewith, a pulley attached to the pulley seat, and an adjusting bolt. An axle is extended through the pulley, a screw hole in the pulley seat, and a vertical slot in the adjusting seat, and a nut is engaged on a distal end of the axle. An adjusting bolt is extended through a hole in a top plate of the pulley seat and a screw hole in a top plate of the adjusting seat. A distance between the top plate of the pulley seat and the top plate of the adjusting seat is changed when the adjusting bolt is turned.
Abstract:
A door glass raising and falling apparatus has a carrier plate 71 mounted onto a door glass 70. The door glass 70 is movable along sashes 41, 42 disposed on a door. The carrier plate 71 includes securing portions that are fixed to moving portions 67a, 67b of a wire-rope body 67. The carrier plate 71 also has a glass support portion 74 for supporting the door glass 70, and a pair of front and rear glass fixing portions 77, 78 each including a screw member 75. The door glass 70 has mounting holes supported by the glass fixing portions 77, 78, respectively. The dimension of the mounting holes is larger than the outside diameter of the shaft portion of each of the screw members 75 so that the door glass 70 is moveable with respect to the carrier plate 71. Also, a wire-rope body 150 extends over a plurality of pulleys. Some of the pulleys 142, 143 are rotatably mounted on frame members 136, 137 by pulley shafts 182 respectively. stoppers 184 are mounted on the pulley shafts 182, to limit the falling distance of the glass rising and falling body 162.
Abstract:
The door glass raising and falling apparatus comprises a carrier plate 71 to be mounted onto the lower end portion 70b of a door glass 70. The door glass 70 is capable of rising and falling along sashes 41, 42 respectively disposed in the front and rear portions of a door. The carrier plate 71 extends in the back-and-forth direction of the door glass 70 along the lower end of the door glass 70 and includes securing portions respectively formed in the given portions of the carrier plate 71, while the moving portions 67a, 67b of a wire-rope body 67 can be respectively fixed to the securing portions of the carrier plate 71. The carrier plate 71 further comprises a glass support portion 74 for supporting the middle portion of the lower end of the door glass 70 in the back-and-forth direction thereof, and a pair of front and rear glass fixing portions 77, 78 each including a screw member 75. In the door glass 70, there are formed mounting holes which can be supported by the glass fixing portions 77, 78, respectively. The dimension of each of the mounting holes is set sufficiently larger than the outside diameter of the shaft portion of each of the screw members 75 so that, when the screw members 75 are loosened, the door glass 70 can be moved with respect to the carrier plate 71. Also, the door glass raising and falling apparatus further comprises a wire-rope body 150 for raising and falling a glass rising and falling body 162. The wire-rope body 150 is wired over and between a plurality of pulleys. Of these pulleys, pulleys 142, 143, which are situated on the lower side, are rotatably mounted on frame members 136, 137 by pulley shafts 182 respectively. Rubber stoppers 184 are mounted on the pulley shafts 182, respectively. The rubber stoppers 184 are structured such that, when the glass rising and falling body 162 reaches its falling limit, the lower end face of the glass rising and falling body 162 can be contacted with the rubber stoppers 184.
Abstract:
A system for positioning and assembling a mobile element on a drive system includes an adapter element fixed to the mobile element. The adapter element has a first extension in line with the mobile element and a second extension in the longitudinal direction of the mobile element. The system further includes a slider element including a third extension in the longitudinal direction of the mobile element. The third extension cooperates with the second extension. The slider element and a confining element cooperate with a fixation member to lock the first extension of the adapter element between the slider element and the confining element.
Abstract:
Drive system for moving a load along a curved path. The drive system includes a base for mounting the drive system, the base having a curved track for guiding the load along the curved path. There is a load engaging mechanism mounted on the base for movement relative to the base, the load engaging mechanism being for moving the load. The load engaging mechanism has a curved track engaging roller for engaging the curved track. A linear drive mechanism including a linearly driven member is mounted on the base. The linearly driven member includes a driving pivot. A drive link is attached to the driving pivot at a drive force receiving end of the drive link, the drive link including a driven pivot at a drive force communicating end of the drive link. The driven pivot is attached to the load engaging mechanism, whereby linear motion of the driving pivot causes motion of the load along the curved path.
Abstract:
The invention relates to a locking device and a door-drive device comprising a locking device for a door which can be secured against opening by unauthorized persons using force from the exterior. The locking device has a lever element consisting of two lever arms which pivot about a first pivoting shaft. A connecting element is hinged to the first lever arm for connecting the door and the second lever arm which has an engaging device.
Abstract:
The device (2), which is used to lock running gear (1) guided in a rail (5) and is or can be connected to the latter, has a body (21, 22) in which a locking pin (23) is displaceably mounted and, by means of a resilient element (24), is held resiliently in a first position, so that the locking pin (23) can be brought by the action of a force from the first position, in which it can engage in a locking element (36, 53) provided in the rail (5) or connected to the rail (5), into a second position, in which it is released from the engagement in the locking element (36, 53). The locking device (2), which is constructed simply and cost-effectively, therefore permits dividing elements (90), such as sliding doors, sliding counters or folding walls, which are guided by the running gear (1), to be closed off securely.
Abstract:
A running carriage arrangement (1) includes a housing receptacle (5) and a housing (9) embedded in it. The running carriage (7) can be vertically shifted within the housing (9). The shifting of the running carriage (7) is accomplished by an adjusting wheel (39), which can be rotated by hand and by which the running carriage (7) can be adjusted relative to the housing (9) and the sliding door (3).
Abstract:
An adjustable carrier for connecting a window pane to a window lift of a motor vehicle door, whereby the carrier is assigned to the motor vehicle door via guiding tracks. The carrier includes a base body and a holding body. The base body is guided on the guiding tracks of the window lift, and the window pane is clamped in the holding body. The holding body can horizontally sweep in relation to the base body, and a joint connection is provided between the base body and the holding body. An adjusting element which can be operated by a tool are provided for changing the position of the holding body provided for changing the position of the holding body relative to the base body. This position is directly or indirectly changed by an actuator in such a way that the position of the holding body relative to the base body remains unchanged when loosening or fastening the window pane.
Abstract:
A mechanical power conversion device for receiving rotary power from a rotary power supply and delivering two independent power outputs, the conversion device having: a drive screw connectable to the rotary power supply, a drive nut engaging the drive screw to receive a drive nut axial force and drive nut torsion therefrom, the drive nut axial force being parallel to the drive screw and the drive nut torsion being about an axis of the drive screw. One of the two independent power outputs is connected to the drive nut to receive the drive nut axial force and the second is connected to the drive nut to receive the drive nut torsion so that power from the rotary power supply flows to either or both of the first independent power output and the second independent power output.