Abstract:
In an aspect, the invention is directed to a window regulator assembly that includes a carrier, a set of lifter plates, a drive motor and drive cables for operatively connecting the drive motor to the lifter plates. At least one rail may be integral with the carrier. The carrier has a carrier seal that is co-molded therewith. The carrier has a pulley assembly thereon that includes a pulley and a pulley bearing member that has a pulley bending load bearing surface that is conical and that mates with a carrier bending load bearing surface that is inner-conical. The lifter plate is capable of a relatively strong connection to a vehicle window. The lifter plate has a window pass-through member that passes through a locking aperture in the vehicle window. The window pass-through member has two ends and is supported at both ends against vertical withdrawal of the vehicle window. The lifter plate also has a reduced tendency to bind when in use. The lifter plate has lateral engagement surfaces that are for engagement with lateral guide surfaces and has cable mounts for receiving drive cables. The cable mounts are positioned laterally between the lateral engagement surfaces. Additionally, the vehicle window lifter plate has lateral engagement surfaces that are for engagement with lateral guide surfaces. The lateral engagement surfaces are biased against the lateral guide surfaces, thereby giving the lifter plate the capability to accommodate lateral forces with a reduced tendency to bind. A wiring harness clip for holding wiring harnesses to the carrier is provided. The wiring harness clip has two clip elements that together define a wiring harness retaining aperture in a longitudinal direction and an inlet thereto. The wiring harness inlet is canted to a non-zero angle relative to the longitudinal direction. The perpendicular spacing between the two clip elements is larger than the distance between them in the transverse direction.
Abstract:
Described is a carriage (7) for sliding doors and windows (2) comprising a fixed frame (3), at least one sash (4) that is slidable horizontally relative to the fixed frame (3) by means of a carriage unit (1), and a handle (9) mounted on the sash (4) for controlling the carriage (7); the latter is provided with a supporting frame (11), mobile on wheels, and with a connecting member (13) interposed between the supporting frame (11) and a bottom sash (4) rail (8); the connecting member (13) is movably constrained to the supporting frame (11) to enable the sash (4) to be lifted and lowered relative to the supporting frame (11) under the action of the handle (9); a helical spring (44) is interposed between the supporting frame (11) and the connecting member (13) to lessen the effort required of the user to lift the sash (4).
Abstract:
A window glass assembly that automatically adjusts for variations in cable tension is provided. The window glass assembly includes a cable drum housing and at least one window cable extending from the housing for actuating a window. A first sleeve having ratchet teeth and an interior portion allows the window cable to pass through the sleeve. A first spring engages the first sleeve and a spring clip is retained in the cable drum housing and engages the ratchet teeth.
Abstract:
A door actuating system has a fractional horsepower motor mounted on the door adjacent its free edge, driving a clutch connected to a duplex capstan pulley that is wrapped by two tensioned flexible static lines, for opening/closing movement ‘along the line’. The motor also drives a gear that engages a rack projecting from the door frame, to displace the door relative to its frame. Rotation of the gear is read by a rotary encoder, which feeds a microprocessor, to continuously monitor the location, speed and direction of motion of the door, for both the ‘on’ and the ‘off’ condition of the electric motor. A latching clip over-rides action of the original door latch.
Abstract:
The present invention provides a new sliding assembly for a sliding closure. The present invention is constructed of two metal profiles mounted on each side wall of sliding closure and guiding bars for sliding on said rail. The profiles design includes a rail which length, is adjusted to the sliding closure height. The lower sliding bar is attached to a roller, which slides along the lower track of the closure. The second sliding bar is attached to the guiding bar for sliding along the upper track of the closure. An elastic stretching means connects between the lower sliding bar and the profile.
Abstract:
A hinge module for an electronic device includes a rotating unit having a rotary shaft, a housing receiving at least a portion of the rotary shaft, and a fixing unit partially inserted into the rotary shaft. A rotation resisting force between the rotary shaft of the rotating unit and the fixing unit partially inserted into the rotary shaft is larger than a rotation resisting force between the housing and the rotary shaft of the rotating unit.
Abstract:
A cassette for force transmission in a window winder, with fitting means for fitting at least one force-introducing means on the cassette. The fitting means have a passage opening which completely penetrates the cassette from a first cassette side to a second cassette side and the force-introducing means, which is passed through the passage opening, can be fitted on the cassette by the fitting means.
Abstract:
A drive device for opening and closing a slide body includes: a drum mating with a secondary cable end portion of a first cable and a secondary cable end portion of a second cable. The drum includes; a main drum mating with the secondary cable end portion of one of the first cable and the second cable, and a sub-drum mating with the secondary cable end portion of the other of the first cable and the second cable. An inner gear is formed on an inner face of one of the main drum and the sub-drum. An outer gear is formed on an outer face of the other of the main drum and the sub-drum. The inner gear meshing with the outer gear for adjusting a cable length of the first cable and a cable length of the second cable.
Abstract:
A non-contact sensor system controls movement of a door moving in a first direction. The system includes a rigid mounting bracket attached to a leading edge of the door, a transmitter extending a distance beyond a leading edge of the door at a first door end for transmitting a signal toward a second door end. The transmitter is attached to the rigid mounting bracket by a first moveable member configured to engage a surface when the door closes and moving to a retracted position. The sensor system further includes a receiver extending a distance beyond the leading edge of the door at the second door end in alignment with the transmitter for detecting the signal and for generating an output signal. The receiver is attached to the rigid mounting bracket by a second moveable member configured to engage the surface when the door closes and moving to the retracted position.
Abstract:
A non-contact sensor system controls movement of a door moving in a first direction. The system includes a rigid mounting bracket attached to a leading edge of the door, a transmitter extending a distance beyond a leading edge of the door at a first door end for transmitting a signal toward a second door end. The transmitter is attached to the rigid mounting bracket by a first moveable member configured to engage a surface when the door closes and moving to a retracted position. The sensor system further includes a receiver extending a distance beyond the leading edge of the door at the second door end in alignment with the transmitter for detecting the signal and for generating an output signal. The receiver is attached to the rigid mounting bracket by a second moveable member configured to engage the surface when the door closes and moving to the retracted position.