AU2004287042A1

AU2004287042A1 - Composite yarn and products made therefrom

Info

Publication number: AU2004287042A1
Application number: AU2004287042A
Authority: AU
Inventors: Nathaniel Kolmes
Original assignee: Supreme Elastic Corp
Current assignee: Supreme Elastic Corp
Priority date: 2003-10-28
Filing date: 2004-10-26
Publication date: 2005-05-19
Anticipated expiration: 2024-10-26
Also published as: KR20060120059A; CA2543654A1; EP1680538A2; US20050086924A1; CN1886539A; WO2005045109A3; WO2005045109A2; JP2007514060A; AU2004287042B2; EP1680538A4

Description

WO 2005/045109 PCT/US2004/032767 TITLE OF THE INVENTION COMPOSITE YARN AND PRODUCTS MADE THEREFROM BACKGROUND OF THE INVENTION Field of Invention The present invention relates generally to yams, fabrics and protective garments knitted of such yams. More particularly, the present invention relates to a cut-resistant composite yarn construction which provides effective cut resistance for a protective garment without the use of expensive high performance fibers. Discussion of the Background In many industries, it is desirable to provide protective garments, particularly gloves, to protect employees from being cut. Ideally, such garments should provide an acceptable amount of cut resistance while possessing suitable flexibility and durability. To this point knit garments having these qualities have been constructed from yams that include "high performance" fibers to achieve enhanced cut resistant performance. These yarns are constructed using wrapping technique wherein in a core comprising of a single or multiple strands is wrapped with one or more additional strands. Either the core or the wrap strands may include strands comprised of a high performance fiber. Typical of these include the cut resistant yarn disclosed in U.S. Pat. Nos. 4,777,789; 4,838,017 and 5,119,512. These patents disclose the use of well-known "high performance" fibers which, as used herein, means fibers such as extended chain polyethylene (Spectra®. brand fiber by Allied) or aramid (Kevlar@ brand fiber by DuPont). The use of these high performance fibers to make cut-resistant composite yarns and garments has not come without certain disadvantages. First, articles made from these high performance fibers may be stiff and, particularly in the case of protective gloves, may cause the wearer to lose a certain amount of tactile sense and feedback. This loss of sensitivity can be important for workers in the meat processing industry. 1 WO 2005/045109 PCT/US2004/032767 Another potential drawback to the use of high performance fibers is their cost. For example, the unit length cost for high performance fiber easily may be several times that of the next most expensive component of a composite, cut-resistant yarn. It would be very desirable to substantially reduce or eliminate the high performance fiber content of a cut resistant composite yarn. One solution to these issues has been proposed in U.S. Patent 6,363,703 to Kohles. In that patent, the composite yarn has a core of at least one fiberglass strand, and requires at least one wire strand wrapped around the fiberglass core strand, followed by one or more cover strands wrapped around the wire and fiberglass, with the cover strands being made from non-metallic non-high performance materials. There remains a need for a cut-resistant yarn construction offering an effective level of cut resistance performance at a cost savings compared to composite yarns that include high performance fibers, without the need for wrapped wire constructions. SUMMARY OF THE INVENTION Accordingly, one object of the present invention is to provide a composite yarn containing no high performance fibers that has the cut-resistance of composites containing high-performance fibers, while maintaining good feel and flexibility, without a wrapped wire component. A further object of the present invention is to provide a protective garment, including but not limited to, gloves, aprons, arm shields, jackets and sporting equipment such as fencing uniforms, made from the composite yarn of the present invention. These and other objects of the invention have been satisfied by the discovery of a composite yarn comprising: a. a core comprising at least one fiberglass strand and at least one wire strand of diameter sufficient to provide cut resistance, wherein the at least one fiberglass strand and the at least one wire strand are parallel to one another or twisted about one another and wherein only the core of the yarn contains metal; and 2 WO 2005/045109 PCT/US2004/032767 b. at least one non-metallic non-high performance fiber cover strand wrapped around the core in a first direction; and its use in preparing a cut and abrasion resistant fabric, and articles and garments prepared from the fabric. DETAILED DESCRIPTION OF THE INVENTION The term "fiber" as used herein refers to a fundamental component used in the assembly of yarns and fabrics. Generally, a fiber is a component which has a length dimension which is much greater than its diameter or width. This tenn includes ribbon, strip, staple, and other fomis of chopped, cut or discontinuous fiber and the like having a regular or irregular cross section. "Fiber" also includes a plurality of any one of the above or a combination of the above. As used herein, the term "high performance fiber" means that class of synthetic or natural non-glass fibers having high values of tenacity greater than 10 g/denier, such that they lend themselves for applications where high abrasion and/or cut resistance is important. Typically, high performance fibers have a very high degree of molecular orientation and crystallinity in the final fiber structure. The term "filament" as used herein refers to a fiber of indefinite or extreme length such as found naturally in silk. This term also refers to manufactured fibers produced by, among other things, extrusion processes. Individual filaments making up a fiber may have any one of a variety of cross sections to include round, serrated or crenular, bean-shaped or others. The term yarnr" as used herein refers to a continuous strand of textile fibers, filaments or material in a form suitable for lknitting, weaving, or otherwise intertwining to form a textile fabric. Yarn can occur in a variety of forms to include a spun yarn consisting of staple fibers usually bound together by twist; a multi filament yarn consisting of many continuous filaments or strands; or a mono filament yam which consist of a single strand. 3 WO 2005/045109 PCT/US2004/032767 The term "air interlacing" as used herein refers to subjecting multiple strands of yarn to an air jet to combine the strands and thus form a single, intermittently commingled strand. This treatment is sometimes referred to as "air tacking." This term is not used to refer to the process of "intermingling" or "entangling" which is understood in the art to refer to a method of air compacting a multifilament yarn to facilitate its further processing, particularly in weaving processes. A yarn strand that has been intermingled typically is not combined with another yam. Rather, the individual multifilament strands are entangled with each other within the confines of the single strand. This air compacting is used as a substitute for yarn sizing and as a means to provide improved pick resistance. This term also does not refer to well known air texturizing performed to increase the bulk of single yarn or multiple yarn strands. Methods of air interlacing in composite yarns and suitable apparatus therefore are described in U.S. Patents 6,349,531; 6,341,483; and 6,212,914, the relevant portions of which are hereby incorporated by reference. The present invention is directed to the concept of a cut-resistant composite yarn having cut-resistant properties comparable to yarns with high performance fiber, yet which have no expensive high performance fibers therein, and which contains no wrapped wire layers. In general yarns are formed of a core containing at least one strand of fiberglass, and at least one strand of wire, with one or more covers of conventional non-high performance yarn. Any one, two, or all of the core, and cover may include two strands. FIGS. 1-3 are exemplary of the various embodiments. Previously it was believed necessary to use a wrapped layer of wire, in order to avoid injury to the wire from stretching or from the impingement of an edge (such as a blade) against the wire. This injury to the wire typically manifests itself in the formation of bends or crimps, from the stretching and subsequent relaxing of the wire. The present inventor has found, however, that it is possible to provide a yarn construction using adjacent fiberglass and wire strands in the core, without the need to wrap a strand of wire around the core, while avoiding the above noted injury to the wire. Within the context of the present invention, the term "adjacent strands" indicates that the strands are side-by-side, including both parallel arrangement and being twisted about each other. However, in the present invention, the construction contains no wrapped wire layer. While not wishing to be held to any particular theory of operation, it is believed that the presence of the parallel strand of fiberglass provides a cushioning effect for the yarn, particularly the wire, 4 WO 2005/045109 PCT/US2004/032767 which avoids production of the above mentioned bend or crimp. Further, since the fiberglass itself does not stretch, it is believed to serve as an "anchor" for the core of the yarn, thus avoiding high stretching forces from acting on the wire. Turning to FIG. 1, there is illustrated one embodiment of a composite cut resistant yarn 10 which includes a core 12 formed of a single fiberglass strand 16 and a single strand of wire 18 (these strands are not shown to scale and can be a variety of sizes as noted below). This embodiment of the present invention cut resistant yarn 10 further includes a cover 14 having two cover layers formed from non-metallic, non-high performance fiber, 22 and 24. The first cover 22 is wrapped around the core 12, with the second cover 24 being wrapped around, preferably in the opposite wrapping direction from, the first cover 22. In a second embodiment, illustrated in FIG. 2, the composite cut resistant yarn 10 includes a core 12 formed of a single fiberglass strand 16 and a single strand of wire 18 (again not to scale). This embodiment further includes a single cover 22 formed from a non metallic, non-high performance fiber. In an alternative embodiment, the core may include one or more additional strands. These one or more additional strands may be made of any non-high performance material, including but not limited to, fiberglass, wire, and conventional non-high performance fibers. These additional one or more strands may be arranged in the core either parallel or co-twisted with either or both of the fiberglass and wire core strands. Alternatively, if two or more additional core strands are present and are made from materials that are suitable for air interlacing, these additional core strands may be air interlaced. One embodiment containing an additional parallel strand in the core is shown in FIG. 3, which illustrates a core 12, formed from a strand of fiberglass 16, a strand of wire 18 and an additional core strand of non-high performance fiber 19, with the cover 14 containing two cover layers 22 and 24 as described above. In a further embodiment, the core contains a single strand of fiberglass parallel to a single strand of wire, wherein the single strand of wire is wrapped with a sheath strand of a non-high performance fiber. This core is then wrapped with one or more cover layers of non high performance fiber to provide the composite yarn. 5 WO 2005/045109 PCT/US2004/032767 In yet another embodiment, the composite yarn of the present invention can contain more than two cover layers, so long as no high performance fiber is used. This embodiment is illustrated in FIG. 4, which shows a core 12 formed of a single fiberglass strand 16 and a single strand of wire 18 (not to scale). The cover 14 contains three cover layers, 22, 24 and 26, each formed of a non-high performance fiber, and each successive cover layer being preferably wrapped in a direction opposite from the immediately underlying layer. The wire used in the practice of the present invention desirably has a diameter of from about 0.0013 and about 0.0036 inch, preferably from about 0.0016 to about 0.0020 inch. Where two wires are used, they should preferably be of a diameter at the lower end of the range, e.g. about 0.0013 to about 0.0020. The wire strands of the present invention can be made from any metal conventionally used in yarns, and preferably are formed from an annealed stainless steel with the particular diameter of wire selected from the ranges specified above based on the desired properties and end use of the composite yarn. The first cover strand and, if used, the second cover strand are comprised of a non metallic, non-high performance fiber. The strands may be provided in either spun or filament form within a denier range of about 50 to about 1200. Suitable materials for the cover strands include, but are not limited to, polyester, polyester/cotton blends, acrylic, various types of nylon, wool and cotton. The choice of a particular material for the cover strand or strands will vary depending on the end use of the composite yarn and the physical characteristics (appearance, feel, etc.) desired for the yarn. The non-metallic, non-high performance fiber cover strands are wrapped about the core, or core covered with one or more cover layers, at a rate sufficient to enable processing of the composite yarn in conventional knitting and weaving equipment. Each successive cover strand is wrapped in a direction that is either the same as or opposite to the immediately preceding cover strand, preferably in the direction opposite that of the immediately preceding cover strand. While it is not necessary for the cover to be wrapped such that the underlying portion of the composite is completely covered, it is preferable to do so. More preferably, the cover strands are each, independently, wrapped at a rate of from about 6 to about 13 turns per inch. The fiberglass strand (or strands) in the core may be either E-glass or S-glass of either 6 WO 2005/045109 PCT/US2004/032767 continuous multi-filament, monofilament or spun, and can be of any desired size or denier. The practice of the present invention contemplates using several different sizes of commonly available fiberglass strand, as illustrated in Table 1 below: TABLE 1 Fiberglass Approximate Nominal Size Denier Denier G-450 99.21 100 D-225 198.0 200 G-150 297.6 300 G-75 595.27 600 G-50 892.90 900 G-37 1206.62 1200 The size designations in the Table are well known in the art to specify fiberglass strands. These fiberglass strands may be used singly or in combination depending on the particular application for the finished article. By way of non-limiting example, if a total denier of about 200 is desired for the fiberglass component of the core, either a single D-225 or two substantially parallel G-450 strands may be used. In a preferred embodiment either a single strand or a combination of strands will have a denier of about between 200 and about 1200. It should be understood that the table above illustrates currently available fiberglass strand sizes. The practice of the present invention contemplates the use of other fiberglass strand sizes as they become available in the market or as found to be suitable for particular applications. Suitable preferred types of fiberglass fiber are manufactured by Coming and by PPG. The fibers have the desirable properties of relatively high tenacity, of about 12 to about 20 grams per denier, resistance to most acids and alkalis, being unaffected by bleaches and solvents, resistance to environmental conditions such as mildew and sunlight, and high 7 WO 2005/045109 PCT/US2004/032767 resistance to abrasion and to aging. Preferably the overall denier of the yarn of the present invention to include the fiberglass strand(s), the wire strand(s), and the covers is between about 300 denier and about 5000 denier. Further the combined mill weight of the fiberglass and wire components should be between 25% and 60% of the composite yarn. The composite yarn of the present invention can be used as is, or can be subjected to various treatments to provide antistatic, antimicrobial, selective radiation absorbing (UV, IR, etc), dyeing or other desired properties. Preferably, such treatment(s) include imparting antimicrobial properties using a commercially available antimicrobial agent, such as those described, for example, in U.S. Patents 6,260,344; 6,266,951; and 6,351,932. These treatments can be used individually or in combinations of two or more. Such treatments are well known in the art and can be applied to the finished yarn, any portion of the yarn or the individual components of the yarn or portions thereof prior to assembly of the finished yarn, using conventional yarn treatment equipment. EXAMPLES By way of non-limiting example, yarn constructions demonstrating various embodiments of the present invention are illustrated as Examples 1-5 in Table 2 below. Examples 6-9 are included for comparative tests and will be explained hereinafter. The nomenclature "_X" refers to the number of strands of a particular composite yarn component used. In each instance, the 1st and 2 nd cover layers are wrapped in opposing first and second directions (in case ofa 3 rd cover layer, it is wrapped in the same direction as the first layer, and opposite to the 2 nd layer). 8 WO 2005/045109 PCT/US2004/032767 TABLE 2 Core Wire 1 st 2 nd 3 rd Composite Ex. Glass Diam (in) Cover Cover Cover Denier 1 G-450 2X0.0016 Polyester Polyester 623 parallel 150 Denier 150 Denier 9.4 tpi 8.2 tpi 2 G-450 0.0016 Polyester Polyester 546 parallel 150 Denier 150 Denier 11.1 tpi 8.8 tpi 3 G-37 0.0016 Polyester Polyester Polyester 3635 parallel 500 Denier 500 Denier 1000 Denier 8.3 tpi 11.6 tpi 7.4 tpi 4 G-225 2X0.0016 Polyester Polyester 715 parallel 150 denier 150 denier 9.4 tpi 8.4 tpi 5 G-450 0.0016 Polyester Polyester 712 parallel 150 Denier 150 Denier wire only wrapped with textured textured Z twist,150 denier no twist no twist textured polyester 7.2 tpi 7.3 tpi at 6.6 tpi 6 none 0.0016 Polyester Polyester 685 wire parallel 150 Denier 150 Denier with 220 denier textured textured polyester 7.0 tpi 6.8 tpi 7 G-450 none Wire Polyester Polyester 531 0.0016 in 150 Denier 150 Denier 5.1 tpi 4.1 tpi 8 G-50 0.0020 Polyester Polyester Polyester 3381 wire wrapped 500 Denier 500 Denier 1000 Denier around glass at 9.1 tpi 8.5 tpi 9.9 tpi 7.5 tpi 9 G-37 none Polyester Polyester 3995 glass parallel with 500 1000 Denier 1000 Denier Denier Polyester 7.1 tpi 6.9 tpi 10 G-150 none Spectra@ Polyester Polyester 200 Denier 70 Denier 70 Denier 9 WO 2005/045109 PCT/US2004/032767 11 G-75 none Spectra® Spectra® Polyester 650 Denier 650 Denier 1000 Denier 12 G-37 none Spectra® Spectra® Polyester 650 Denier 650 Denier 1000 Denier The Examples using a smaller denier core and cover would be knit using a 10 gauge or similar knitting machine. The Examples using larger denier core and cover would be knit using a 7 gauge or similarly sized knitting machine. The yarn of the present invention may be manufactured on standard yarn-making equipment. If the yarn will be provided with three cover layers, preferably the fiberglass and wire core is wrapped with the first cover strand in a first step. Next, the second and, if used, third cover strands are added in a second operation on a separate machine. However, other procedures may be used as will be readily apparent to one of ordinary skill. The yarn of the present invention has several advantages over the non-metallic cut resistant yams described herein above. The fiberglass and wire core strands and the cover strand(s) mutually benefit each other. The fiberglass component acts as a support for the cut/abrasion resistant wire strand. Properties of the resulting yam may be varied by varying the diameter and the rate of wrap (turns per inch) of the cover strand(s) about the fiberglass and wire core. The cut resistance performance of the yarn of the present invention is shown in Table 3 below which compares the performance of the yarn constructed according to the present invention (without a high performance fiber) to a similar structure that includes a high performance fiber. Testing was conducted using ASTM test procedure F 1790-97. For this ASTM test the reference force is the mass required for the cutting edge of the test apparatus to travel one inch and initiate "cut through" in the material being tested. Cut resistance data collected using the ASTM test described above are stunmarized in Table 3 below. Each of examples 10-12 is a commercially available cut resistant composite yam that includes a Spectra fiber/fiberglass combination. The Spectra® fiber core strand is wrapped around the 10 WO 2005/045109 PCT/US2004/032767 fiberglass core strand in Examples 10 and 11. The Spectra@. fiber core strand is parallel to the fiberglass core strand in Example 12. TABLE 3 Cut Through Force Example (in grams) Composite Denier (where known) 1 2164 623 2 2006 546 3 2788 3635 4 2560 715 5 1317 712 6* 1855 685 7* 2293 531 8* 3139 3381 9* 2928 3995 10* 2017 11* 3251 12* 3386 * indicates comparative example For comparable composite deniers, the yarn of the present invention provides a comparable cut resistance performance of a high performance fiber yam at a significant cost savings because of the elimination of the high performance fiber, and comparable cut resistance compared to composite yams having wrapped wire layers, without the need for wrapping wire. In some instances the present invention provides significantly improved cut resistance compared to the other constructions at similar composite denier. Examples 10-12 show steadily improving cut-resistance performance results as the amount of high performance fiber and the size of the fiberglass core strand are increased. Surprisingly, the yarn of the present invention compares favorably with each of the examples that include a high performance fiber (given comparable composite denier and fiberglass size). The test results show that the comparatively low-cost wire/fiberglass combination provides a cut-resistance performance that is comparable to yarns containing a high performance fiber. 11 WO 2005/045109 PCT/US2004/032767 The composite yarn of the present invention can be used to prepare cut and abrasion resistant fabrics, which in turn can be used to prepare protective articles and garments. Turning to FIG. 5, a cut and abrasion resistant glove 40 according to the present invention is illustrated. The glove incorporates finger stalls 42 for each of the wearer's fingers. The cut resistant yarn may be incorporated into a variety of other types of cut resistant garments and articles, including, but not limited to, arm shields, aprons or jackets, as well as sporting wear for sports such as fencing. Although the present invention has been described with preferred embodiments and examples of those embodiments, it is to be understood that modifications and variations may be utilized without departing from the spirit and scope of this invention, as those skilled in the art would readily understand. Such modifications and variations are considered to be within the purview and scope of the appended claims and their equivalents. 12

Claims

1. A composite cut-resistant yarn comprising: a. a core comprising at least one fiberglass strand and at least one wire strand of diameter sufficient to provide cut resistance, wherein said at least one fiberglass strand and said at least one wire strand are parallel to one another or twisted about one another and wherein only the core of the yarn contains metal; and b. at least one non-metallic non-high performance fiber cover strand wrapped around said core in a first direction.

2. The composite cut-resistant yarn of claim 1, wherein said at least one wire strand has a diameter between about 0.0013 inch and 0.0036inch

3. The composite cut-resistant yarn of claim 1, wherein said at least one fiberglass strand has a denier of from about 50 to about 1200.

4. The composite cut-resistant yarn of claim 1, further comprising a second non-metallic, non high performance fiber cover strand wrapped around said at least one non-metallic non-high performance fiber cover strand in a second direction opposite that of said at least one non metallic non-high performance fiber cover strand direction.

5. The composite cut-resistant yarn of claim 1, wherein said first non-metallic, non high performance fiber cover strand is a material selected from the group consisting of polyester, polyester/cotton blends, nylon, acrylic, wool, and cotton.

6. The composite cut-resistant yarn of claim 4, wherein said second non-metallic, non high performance fiber cover strand is a material selected from the group consisting of polyester, polyester/cotton blends, nylon, acrylic, wool, and cotton.

7. The composite cut-resistant yarn of claim 1, wherein said core further comprises a second fiberglass strand, parallel or twisted with one or both of said at least one fiberglass strand or 13 WO 2005/045109 PCT/US2004/032767 said at least one wire strand.

8. The composite cut-resistant yam of claim 1, wherein said core further comprises a second wire strand, parallel or twisted with one or both of said at least one fiberglass strand or said at least one wire strand.

9. The composite cut-resistant yam of claim 1, wherein said at least one non-metallic non high performance fiber cover strand is wrapped around said core at a rate of from about 6 to about 13 turns per inch.

10. The composite cut-resistant yarn of claim 1, wherein said at least one non-metallic non high performance fiber cover strand has a denier of from about 50 to about 1200.

11. The composite cut-resistant yarn of claim 1, wherein said at least one wire strand is wrapped with a sheath of a non-metallic non-high performance fiber strand.

12. The composite cut-resistant yarn of claim 4, further comprising a third non-metallic non high performance fiber cover strand wrapped around the combination of said core and said first and second non-metallic non-high performance fiber cover strands, in a third direction opposite to the second direction.

13. The composite cut-resistant yam of claim 1, wherein the yarn or any portion thereof has been subjected to at least one treatment selected from the group consisting of antistatic treatments, antimicrobial treatments, treatments to provide radiation absorption, dyeing and combinations thereof

14. A cut and abrasion resistant fabric formed primarily of a composite cut-resistant yarn comprising: a. a core comprising at least one fiberglass strand and at least one wire strand of diameter sufficient to provide cut resistance, wherein said at least one fiberglass strand and said at least one wire strand are parallel to one another or twisted about one another and wherein only the core of the yarn contains metal; and 14 WO 2005/045109 PCT/US2004/032767 b. at least one non-metallic non-high performance fiber cover strand wrapped around said core in a first direction.

15. The cut and abrasion resistant fabric of claim 14, wherein said at least one wire strand has a diameter between about 0.0013 inch and 0.0036inch

16. The cut and abrasion resistant fabric of claim 14, wherein said at least one fiberglass strand has a denier of from about 50 to about 1200.

17. The cut and abrasion resistant fabric of claim 14, further comprising a second non metallic, non-high performance fiber cover strand wrapped around said at least one non metallic non-high performance fiber cover strand in a second direction opposite that of said at least one non-metallic non-high performance fiber cover strand direction.

18. The cut and abrasion resistant fabric of claim 14, wherein said first non-metallic, non high performance fiber cover strand is a material selected from the group consisting of polyester, polyester/cotton blends, nylon, acrylic, wool, and cotton.

19. The cut and abrasion resistant fabric of claim 17, wherein said second non-metallic, non high performance fiber cover strand is a material selected from the group consisting of polyester, polyester/cotton blends, nylon, acrylic, wool, and cotton.

20. The cut and abrasion resistant fabric of claim 14, wherein said core further comprises a second fiberglass strand, parallel or twisted with one or both of said at least one fiberglass strand or said at least one wire strand.

21. The cut and abrasion resistant fabric of claim 14, wherein said core further comprises a second wire strand, parallel or twisted with one or both of said at least one fiberglass strand or said at least one wire strand.

22. The cut and abrasion resistant fabric of claim 14, wherein said at least one non-metallic non-high performance fiber cover strand is wrapped around said core at a rate of from about 6 15 WO 2005/045109 PCT/US2004/032767 to about 13 turns per inch.

23. The cut and abrasion resistant fabric of claim 14, wherein said at least one non-metallic non-high performance fiber cover strand has a denier of from about 50 to about 1200.

24. The cut and abrasion resistant fabric of claim 14, wherein said at least one wire strand is wrapped with a sheath of a non-metallic non-high performance fiber strand.

25. The cut and abrasion resistant fabric of claim 17, further comprising a third non-metallic non-high performance fiber cover strand wrapped around the combination of said core and said first and second non-metallic non-high performance fiber cover strands, in a third direction opposite to the second direction.

26. The cut and abrasion resistant fabric of claim 14, wherein said fabric is in the form of a member selected from the group consisting of aprons, gloves, arm shields, jackets and fencing uniforms.

27. The cut and abrasion resistant fabric of claim 26, wherein said fabric is in the form of a glove.

28. The cut and abrasion resistant fabric of claim 14, wherein the yarn or any portion thereof has been subjected to at least one treatment selected from the group consisting of antistatic treatments, antimicrobial treatments, treatments to provide radiation absorption, dyeing and combinations thereof. 16