Contexture for attaching wiring and grinding discs

10047461 ยท 2018-08-14

Assignee

Inventors

Cpc classification

International classification

Abstract

The invention relates to a warp knitted contexture including a base structure and pile loops anchored in the base structure for rattle free attachment of wiring harnesses or for attachment of replaceable grinding discs at grinding machines. It is an object of the invention to provide a new warp knitted contexture for both applications recited supra and other applications, wherein the warp knitted contexture can be produced in a more economical manner and has constant quality or a constant surface. The object is achieved in that a plurality of independently standing pile loops is arranged at the base structure through unilaterally tied drop stitch, wherein a height of the pile loops is greater than a distance between stitch wales and the pile loops are only arranged on the technically left side of the product.

Claims

1. A warp knitted contexture, comprising: a base structure; and pile loops anchored in the base structure, wherein a plurality of independently standing pile loops is arranged at the base structure through unilaterally tied drop stitch, wherein a height of the pile loops is greater than a distance between stitch wales, wherein the pile loops are only arranged on a side of the warp knitted contexture, wherein the pile loops are arranged upright, and wherein the pile loops extend from the base structure at a uniform angle.

2. The warp knitted contexture according to claim 1, wherein the base structure is formed from non elastic yarn or includes a non elastic stitch.

3. The warp knitted contexture according to claim 1, wherein the warp knitted material has 14 to 40 stitch courses per centimeter and between 5.5 and 8.6 stitch wales per centimeter.

4. The warp knitted contexture according to claim 1, wherein the warp knitted material has 30 stitch courses per centimeter and 7 stitch wales per centimeter.

5. The warp knitted contexture according to claim 1, wherein the warp knitted material is formed from a multifilament yarn.

6. The warp knitted contexture according to claim 1, wherein the warp knitted material includes a yarn with a dtex of 50 to 100.

7. The warp knitted contexture according to claim 1, wherein the warp knitted material has a dtex of 76.

8. The warp knitted contexture according to claim 1, wherein the warp knitted material has a dtex of 40-67 for attaching grinding discs.

9. The warp knitted contexture according to claim 1, wherein the warp knitted material has a dtex of 50 for attaching grinding discs.

10. A method of using a warp knitted contexture comprising: providing a warp knitted contexture, the warp knitted contexture including: a base structure; and pile loops anchored in the base structure, wherein a plurality of independently standing pile loops is arranged at the base structure through unilaterally tied drop stitch, wherein a height of the pile loops is greater than a distance between stitch wales, wherein the pile loops are only arranged on a side of the warp knitted contexture, wherein the pile loops are arranged upright, and wherein the pile loops extend from the base structure at a uniform angle; and stabilizing a surface of a foam material element or providing a surface for receiving a glue layer.

11. A method of using a warp knitted contexture comprising: providing a warp knitted contexture, the warp knitted contexture including: a base structure; and pile loops anchored in the base structure, wherein a plurality of independently standing pile loops is arranged at the base structure through unilaterally tied drop stitch, wherein a height of the pile loops is greater than a distance between stitch wales, and wherein the pile loops are only arranged on a side of the warp knitted contexture, wherein the pile loops are arranged upright, and wherein the pile loops extend from the base structure at a uniform angle; and providing a textile surface for a plastic element or providing a surface for receiving a glue layer.

12. A method of using a warp knitted contexture according to claim 10, stabilizing a surface of a foam material element and providing a surface for receiving a glue layer.

13. A method of using a warp knitted contexture according to claim 11, providing a textile surface for a plastic element and providing a surface for receiving a glue layer.

14. The warp knitted contexture according to claim 1, wherein the uniform angle is a right angle.

15. The method of using a warp knitted contexture according to claim 10, wherein the uniform angle is a right angle.

16. The method of using a warp knitted contexture according to claim 11, wherein the uniform angle is a right angle.

17. The warp knitted contexture according to claim 1, wherein the pile loops are arranged upright without any velourization.

18. A method of using a warp knitted contexture according to claim 10, wherein the pile loops are arranged upright without any velourization.

19. A method of using a warp knitted contexture according to claim 11, wherein the pile loops are arranged upright without any velourization.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

(1) Additional advantages of the invention can be derived from the subsequent description of an embodiment with reference to drawing Figures, wherein:

(2) FIG. 1. illustrates a highly enlarged schematic sectional view of the warp knitted contexture;

(3) FIG. 2 illustrates a stitch of the warp knitted material according to FIG. 1,

(4) FIG. 3 illustrates a rotating element made from foam rubber for a grinding machine;

(5) FIG. 4 illustrates a sealing tape with adhesive; and

(6) FIG. 5 illustrates a carpet.

DETAILED DESCRIPTION OF THE INVENTION

(7) In the drawing figures a warp knitted material for rattle free attachment of cable harnesses or for attachment of replaceable grinding discs for grinding machines is overall designated with the reference numeral 10.

(8) In a schematic sectional view according to FIG. 1 the warp knitted contexture 10 is illustrated greatly enlarged. The warp knitted material 10 has a base structure 11 which is formed in a manner that is not illustrated in FIG. 1 from a base thread 12 and a tassle thread 13 (c.f. FIG. 2). Pile threads 14 are meshed with the base structure so that both arms 16 of the pile loops 15 are arranged on the same stitch wales 17.

(9) Furthermore the fact that according to FIG. 1 the height H (1.5-2 mm) of the pile loops 15 is greater than the distance A (1.41 mm) between the stitch wales 17 according to which it is provided for the warp knitted contexture 10 that the pile loops 15 are arranged upright adjacent to one another. This has the effect that the warp knitted contexture 10 does not only have great fluffiness (good rattle protection) but also pile loops 15 that are easily captured by a hook element of a hook and loop closure.

(10) FIG. 2 illustrates the stitch pattern of the warp knitted contexture 10 described supra. On the left side there is the tassle thread 13 which forms the base structure 11 with the base thread 12, wherein the pile thread 14 is illustrated on the right side, wherein the pile thread is only meshed with a stitch wale 17 through unilaterally tied drop stitch.

(11) FIGS. 3 through 5 illustrate exemplary embodiments in which a side of the warp knitted material 10 including the pile loops 15 is respectively encased by a foam material element 18 through injection molding.

(12) FIG. 3 illustrates a sectional view of a rotation element 19 of a non illustrated grinding machine which is configured as a foam material element 18. It is evident that the pile loops 15 are embedded in the foam material element 18 and that the base structure 11 is arranged at the surface of the foam material element. A hook side 21 of a hook and loop closure is attached to the base structure 11 with a glue layer 20. Since the surface of the foam material element 18 is covered by the base structure 11 a substantially improved connection between the rotating element 19 and the hook side 21 is achieved.

(13) FIG. 4 illustrates another embodiment configured as a sealing tape 22 with adhesive. Therein the foam material element 18 is in turn connected with the warp knitted material 10 so that the pile loops 15 are enveloped by the foam material element. A glue layer 20 is arranged on the base structure 11, wherein the glue layer has an excellent connection with the foam material element due to the textile structure of the surface of the foam material element.

(14) Eventually FIG. 5 illustrates a sectional view through a carpet 24 in which a foam material element 18 is arranged at the base side in which the warp knitted material 10 is in turn embedded through the pole loops 15 so that the base structure stabilizes the downward oriented surface of the foam material element 18. Furthermore a glue layer 25 is arranged on the top side of the foam material element 18, wherein a pile 26 of the carpet is attached at the glue layer. Also herein it is conceivable that the surface is provided with a warp knitted material 10 in order to better attach the glue layer 25.

(15) It is appreciated that the warp knitted contexture is useable in plastic injection molding as long as a melting point of the threads of the warp knitted material 10 is higher than a melting point of the material of the plastic element. In this case the warp knitted contexture can be used for providing a textile appearance to a surface of the plastic element or to provide in this case better adhesion of a glue layer at the plastic element.

REFERENCE NUMERALS AND DESIGNATIONS

(16) 10 warp knitted material 11 base structure 12 base thread 13 tassel thread 14 pile loop thread 15 pile loop 16 arm 17 stitch wale 18 foam material element 19 foam material rotation element 20 glue layer 21 hook side of hook and loop closure 22 sealing tape 23 glue layer 24 carpet 25 glue layer 26 pile H height of pile loops 15 A distance between stitch wales 17