Abrasion resistant textile sleeve, improved multifilament yarn therefor and methods of construction thereof
A textile sleeve for routing and protecting an elongate member against abrasion and method of construction thereof are provided. The sleeve includes a flexible wall having a plurality of yarns interlaced with one another. At least some of the plurality of yarns are provided as improved multifilament yarns having low-melt filaments and non-low-melt filaments. The low-melt filaments have a first melt temperature and the non-low-melt filaments having a second melt temperature, with the second melt temperature being greater than the first melt temperature. The low-melt filaments are bonded with the non-low-melt filaments to prevent relative sliding movement therebetween.
1. A textile sleeve for routing and protecting an elongate member against abrasion, comprising:
a flexible wall having a plurality of yarns interlaced with one another, at least some of said plurality of yarns being multifilament yarns, each one of said multifilament yarns consisting of:
a continuous low-melt filament combined with a continuous non-low-melt filament and a single continuous heat-set monofilament, said continuous low-melt filament having a first melt temperature and said continuous non-low-melt filament having a second melt temperature, said second melt temperature being greater than said first melt temperature, said continuous low-melt filament being bonded with said continuous non-low-melt filament and said single continuous heat-set monofilament to prevent relative sliding movement between said continuous low-melt filament, said continuous non-low-melt filament and said single continuous heat-set monofilament, wherein said wall has opposite edges extending generally parallel to a central axis between opposite ends, with the continuous heat-set monofilament biasing said opposite edges into overlapping relation with one another.
2. The textile sleeve of claim 1 , wherein said continuous low-melt filaments and said continuous non-low-melt filaments within each of said multifilament yarns are twisted with one another.
3. The textile sleeve of claim 1 , wherein said low-melt filaments and said non-low-melt filaments within each of said improved multifilament yarns are combed together to extend generally parallel with one another.
4. The textile sleeve of claim 1 , wherein said low-melt filaments and said non-low-melt filaments within each of said improved multifilament yarns are intertwined with one another.
5. The textile sleeve of claim 1 , wherein said low-melt filaments and said non-low-melt filaments within each of said improved multifilament yarns are braided with one another.
6. The textile sleeve of claim 1 , wherein at least some of said continuous low-melt filaments and at least some of said continuous non-low-melt filaments within each of said multifilament yarns are twisted and texturized with one another.
7. The textile sleeve of claim 1 , wherein at least some of said multifilament yarns have a substantially homogenous cross-sectional content of the material of said continuous low-melt filaments and said continuous non-low-melt filaments.
8. The textile sleeve of claim 1 , wherein said continuous low-melt filament and said continuous non-low-melt filament are served about said single continuous heat-set monofilament.
9. The textile sleeve of claim 8 , wherein said continuous low-melt filament is served about said continuous non-low-melt filament and said single continuous heat-set monofilament.
10. The textile sleeve of claim 1 , wherein at least one said continuous low-melt filaments and said continuous non-low-melt filaments within each of said multifilament yarns is a continuous multifilament.
11. The textile sleeve of claim 10 , wherein said continuous low-melt filaments and said continuous non-low-melt filaments within each of said multifilament yarns are continuous multifilaments.
12. A textile sleeve for routing and protecting an elongate member against abrasion, comprising:
a flexible wall having opposite edges extending generally parallel to a central axis of the textile sleeve, said flexible wall being formed of a plurality of yarns interlaced with one another, said plurality of yarns including at least one multifilament yarn, said at least one multifilament yarn consisting of:
a continuous low-melt multifilament having a first melt temperature, a continuous non-low-melt multifilament having a second melt temperature greater than said first melt temperature, and a single continuous heat-set monofilament twisted and/or served with one another, said single continuous heat-set monofilament biasing said opposite edges into overlapping relation with one another.
13. The textile sleeve of claim 12 , wherein said continuous low-melt multifilament is served about said continuous non-low-melt multifilament and said single continuous heat-set monofilament.
14. The textile sleeve of claim 13 , wherein said continuous non-low-melt multifilament is served about said continuous heat-set monofilament.
15. A multifilament yarn, consisting of:
a low-melt multifilament having a first melt temperature;
a non-low-melt multifilament having a second melt temperature greater than said first melt temperature; and
a single heat-settable monofilament,
wherein said low-melt multifilament, said non-low-melt multifilament, and said heat-settable monofilament are twisted and/or served with one another.
16. The multifilament yarn of claim 15 , wherein said low-melt multifilament is served about said non-low-melt multifilament and said single heat-settable monofilament.
17. The multifilament yarn of claim 16 , wherein said non-low-melt multifilament is served about said single heat-settable monofilament.