Opening roller housing for an open-end spinning device, device for an opening roller housing and procedure for modernizing spinning devices

Abstract

An exchangeable insert is proposed as auxiliary equipment for a housing of a disintegrating apparatus of an open-end spinning apparatus. The insert is adaptable, so that the disintegrator roll housing can be made to conform to various spinning conditions. In a partial zone, in accord with this proposition, the insert replaces a circumferential wall of the disintegrator roll housing, wherein the insert extends itself into to a zone of a contamination separation opening of the disintegrator roll housing. Its extension in the axial direction is so chosen, that it, at least partially, forms a portion of the circumferential wall of the disintegrator in the area of the contamination separation opening.

Description

FIELD OF THE INVENTION [0001] The present invention concerns a disintegrator roll housing, whereby an insert is placed in an area, following the feed entry of the band as seen in the direction of rotation of the disintegrating drive shaft and further concerns a procedure for the modernization of an open-end spinning apparatus, whereby an insert of the disintegrator roll housing can be removed and subsequently replaced. BACKGROUND OF THE INVENTION [0002] Disintegrator roll housings are known in multitudinous designs within the state of the technology, including the spinning units SE7, SE8 and SE9 of a rotor based spinning machine “Autocoro” of W. Schlafhorst AG & Co., 41061 Mönchengladbach, DE. The disintegrator roll housings of these spinning units consist essentially of individual segments, which are placed on a carrier plate. The individual segments, which are set on this carrier plate, thus form the circumferential wall of the distintegrator housing, particularly in the zone betw...

AI Technical Summary

Benefits of technology

[0006] The present purpose, in accord with the invention, is to be achieved by a disintegrator roll housing having an insert extending itself up to the area of the contaminant separation opening of the disintegrator roll housing. Further, when seen in the axial direction, in relation to the disintegrating roll, the insert forms at least partially the circumferential wall of the disintegrator roll housing in the area of the contamination separation opening. By the use of an invented insert, a disintegrator roll housing, in a simple way, can be made to accommodate itself to various spinning conditions. Further, a disintegrator roll housing now in accord with the state of the technology can be modernized by means of the procedure of the invented procedure.

[0007] The achievement of the invention is such that, the disintegrator roll housing can be designed, so that, in accord with the invention, the input of air into the disintegrator roll housing can be better controlled and further, the position of the inlet on the disintegrator roll housing where the air intake takes place is similarly optimized. Likewise, the air content within the disintegrator roll housing can be essentially improved with the control and positioning. An additional advantage arises in that, with the aid of the invention, existing slots between the disintegrator roll housing and the associated rolls, even in the area of the contamination separation inlet, can be blocked, so that an agglomeration of fibers at the slots can be avoided.

[0008] The invented insert has the advantage of fulfilling the function of the circumferential wall of the disintegrator roll housing, especially in the area of the contamination separation inlet, so that, even here, the edges of the disintegrator roll are covered. As to the circumferential wall of the disintegrator roll housing, only the part of the disintegrati

Problems solved by technology

This type of construction of a disintegrator roll housing brings with it the disadvantage that, following the entry of the fiber band by a suction condition, which suction extends itself from the housing of the rotor to that of the disintegrator, a large volume of air is pulled in.

This apparatus has, however, the general disadvantage that, in reference to the actually required air, excessive air is continually fed into the disintegrator roll housing.

The result of this is that the incoming air itself can lead to difficulties within the disintegrator roll housing.

Large cross-sectional openings in the area of the air flow entering the disintegrator roll housing do not yield optimal contamination combing-out and removal conditions.

Such excess air leads, for example, to entrained particle dissipation, since the air exits from the disintegrator roll housing in an uncontrolled manner and carries with it fibers, which aggregate in the area of the s

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