Tencel cloth

Abstract

The utility model discloses tencel cloth which comprises a base cloth area, a wave area and a first area on the front face and a base cloth area, a first area and a second area on the back face, the first area is located in the front face direction and higher than the base cloth area, and the first area is located in the back face direction and comprises a first convex area and a first concave area. The second areas are connected through the base cloth area to form a wave area which is higher than the base cloth area in the front direction. The fibers are kept bent through the wave shape, the fabric structure is compact, elasticity is improved, hairiness between the yarns is reduced through the wave shape, constraint on the edges of the fibers is enhanced, friction resistance is improved, interweaving and non-interweaving are formed through warp and weft interweaving, structural stability is improved through interweaving, damage to the fibers is reduced through non-interweaving, and the fabric is comfortable to wear. And moreover, the non-interwoven parts and the interwoven parts are connected to form concave-convex parts, so that the friction resistance between the fibers can be increased, the generated plush cannot easily reach the surface of the fabric, and the fuzzing and pilling phenomena are reduced.

Description

Technical Field

[0001] This utility model relates to the field of fabrics, and more specifically, to a Tencel fabric. Background Technology

[0002] Currently, when Tencel fabrics on the market are woven in a plain weave, the structure of the Tencel fabric is relatively tight due to the large number of interlacing points of the warp and weft yarns, resulting in poor elasticity. When Tencel fabrics are woven in a twill or satin weave, the characteristics of Tencel fibers make the fabric relatively weak in abrasion resistance, and the surface of the fabric is prone to pilling and fuzzing when wet. Utility Model Content

[0003] The purpose of this invention is to overcome the shortcomings of the prior art and provide a Tencel fabric that uses a plain weave to create a wavy fabric. This keeps the fibers bent, resulting in a tightly woven fabric that increases elasticity when stretched by extending the bent fibers. The wavy weave also reduces the spread of fuzz between yarns and strengthens the constraint on the fiber edges, thereby increasing the fabric's abrasion resistance. Furthermore, the partial weave and partial non-weave sections increase the structural stability of the fabric, while the non-weave sections reduce fiber damage, allowing the fibers to maintain their original properties. This increases the fabric's abrasion resistance and breathability. The connection between the non-weave and weave sections creates a textured surface, increasing the frictional resistance between the fibers and preventing fuzz from easily reaching the fabric surface, thus reducing pilling and fuzzing.

[0004] To achieve the above objectives, the present invention adopts the following technical solution: a Tencel fabric, comprising a base fabric area, a wave area, and a first region on the front side, and a base fabric area, a first region, and a second region on the back side. The first region is located on the front side and is higher than the base fabric area. The first region on the back side includes a first protruding region and a first recessed region. Along the width direction, the second region is connected through the base fabric area to form the wave area. The wave area is located on the front side and is higher than the base fabric area.

[0005] The present invention is further configured such that, in the frontal direction, each wave crest of the wave zone is connected to the first region, and each wave trough of the wave zone is connected to the first region.

[0006] The present invention is further configured such that, when the second region is located in the reverse direction and is opposite to the crest of the wave area on the front side, the bottom end of the second region is connected to the first region, and when the second region is opposite to the trough of the wave area on the front side, the top end of the second region is connected to the first region.

[0007] The present invention is further configured such that, in the frontal direction, the height H of the wave zone is 0.2cm-0.5cm, and the height H of the first region is 0.2cm-0.5cm.

[0008] The present invention is further configured such that, on the reverse side, the first region includes four first raised areas and three first recessed areas, and the second region includes five second raised areas and four second recessed areas.

[0009] The present invention is further configured such that the first protruding area and the first recessed area are arranged in parallel along the width direction, and the second protruding area and the second recessed area are arranged in parallel along the length direction.

[0010] The present invention is further configured such that the width of the first protruding area is greater than that of the second protruding area, and the width of the first recessed area is greater than that of the second recessed area.

[0011] The present invention is further configured such that 66 warp yarns and 68 weft yarns form one cycle, 16 warp yarns and 29 weft yarns interweave to form the first region, 16 warp yarns and 5 weft yarns interweave to form the second region, and 66 warp yarns and 9 weft yarns interweave to form the wave region.

[0012] In summary, this utility model has the following beneficial effects:

[0013] By interlacing warp and weft yarns to form a wavy fabric, the fibers at the wavy points can remain bent, increasing elasticity while maintaining a tight structure. The wavy shape also strengthens the constraint on the fiber edges, thereby increasing the fabric's abrasion resistance. Furthermore, the combination of interlacing and non-interlacing increases the fabric's structural stability at the interlaced areas, while the non-interlaced areas allow the fibers to retain their original smooth and soft characteristics, reducing damage caused by interlacing. This further increases the fabric's abrasion resistance and breathability. The unevenness between the interlaced and non-interlaced areas increases the frictional resistance between the fibers, preventing the fuzz formed by interlacing from reaching the fabric surface and thus reducing pilling. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the front structure of a Tencel fabric in this embodiment;

[0015] Figure 2 for Figure 1 A sectional view along the A-A direction;

[0016] Figure 3 This is a schematic diagram of the reverse side of a Tencel fabric in this embodiment;

[0017] Figure 4 for Figure 3 Enlarged view of point B in the middle;

[0018] Figure 5 This is a diagram of the fabric structure of a Tencel fabric in this embodiment.

[0019] Reference numerals: base fabric area 70, wavy area 80, first region 90, first raised area 901, first recessed area 902, second region 100, second raised area 101, second recessed area 102. Detailed Implementation

[0020] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0021] like Figure 1 — Figure 5 As shown, this embodiment discloses a Tencel fabric, including a base fabric area 70, a wave area 80, and a first area 90 on the front side, and a base fabric area 70, a first area 90, and a second area 100 on the back side, with 66 warp yarns and 68 weft yarns forming one cycle, as shown in the figure. Figure 5 , ( Figure 5(This is a weave diagram showing the interlacing of warp and weft yarns on the reverse side.) In one cycle, within the range of weft yarns 1-34, warp yarns 1-50 interlace with weft yarns 1-33 to form the base fabric area 70; warp yarns 51-66 interlace with weft yarns 1-29 to form the first area 90; and warp yarns 51-66 interlace with weft yarns 30-34 to form the second area 100. Within the range of weft yarns 34-68, warp yarns 18-33 interlace with weft yarns 39-68 to form the first area 90; warp yarns 18-33 interlace with weft yarns 34-38 to form the second area 100; the remainder is the base fabric area 70. This is because the intersection of warp yarns 18-33 with weft yarns 34-38 forms a horizontal symmetry with the intersection of warp yarns 51-66 with weft yarns 1-29, and the first area... The interlacing of warp and weft yarns in region 90 affects the interlacing of warp and weft yarns in region 100. Therefore, the warp and weft yarns in region 90 will stretch region 100 towards region 90. The left and right ends of region 100 are connected by base fabric region 70. Thus, when the fabric interlacs, the second region 100, stretched in two directions, connects with base fabric region 70 to form a wave-like shape. This is because in region 100 formed by the interlacing of warp yarns 51-66 and weft yarns 30-34, warp yarn 51 does not interlac with weft yarns 31-33, warp yarn 56 does not interlac with weft yarns 30-34, warp yarn 61 does not interlac with weft yarns 31-33, warp yarn 66 does not interlac with weft yarns 30-34, and warp yarns 18-33 interlac with weft yarns 34-38. In the second region 100, the 18th warp yarn does not interweave with the 34th-38th weft yarns, the 23rd warp yarn does not interweave with the 35th-37th weft yarns, the 28th warp yarn does not interweave with the 34th-38th weft yarns, and the 33rd warp yarn does not interweave with the 35th-37th weft yarns. Therefore, the second region 100 not only includes five second raised areas 101 and four second recessed areas 102, but also, because every four warp yarns interweave to form a second raised area 101 connected to a single non-interweaving warp yarn forming a second recessed area 102, after the fabric is set, the four interweaving warp yarns will press the single non-interweaving warp yarn below them, making it invisible on the front side of the fabric. Therefore, along the width direction, the second region 100 on the reverse side is connected by the base fabric area 70 to form the front side. Wave zone 80, where warp yarns 18-33 and warp yarns 51-66 interweave with weft yarn 34, forms the trough and crest of wave zone 80 respectively. The presence of wave zone 80 keeps the yarns at the wave zone bent after the fabric is set. Therefore, when the fabric is stretched, the bent yarns straighten instead of becoming elongated, thus increasing the elasticity of the fabric. The rest of the weave is plain, thus increasing the elasticity of the fabric on the basis of a tight fabric structure. Because wave zone 80 keeps the yarns bent, during the interweaving process, the fuzz between the yarns will follow the yarns. Therefore, the curved shape of wave zone 80 allows the warp and weft yarns to press down the fuzz at multiple angles, thereby reducing the spread of fuzz and increasing the fabric's abrasion resistance.

[0022] Because in the first region 90 formed by the interlacing of warp yarns 51-66 and weft yarns 1-29, warp yarns 51-65 do not interlac with weft yarns 6, 14, and 22; warp yarns 52-66 do not interlac with weft yarns 7, 15, and 23; and in the first region 90 formed by the interlacing of warp yarns 18-33 and weft yarns 39-66, warp yarns 18-32 do not interlac with weft yarns 45, 53, and 61; and warp yarns 19-33 do not interlac with weft yarns 46, 54, and 62, thus making the first region 90... The area 0 on the reverse side includes four first raised areas 901 and three first recessed areas 902. Because the 18th-33rd warp yarns and the 51st-66th warp yarns in the second region 100 interweave with the 34th weft yarn to form the troughs and crests of the wave area 80, the first region 90 and the second region 100 are interwoven and connected. When the second region 100 on the reverse side is opposite to the crest of the wave area 80 on the front side, the bottom of the second region 100 connects to the first region 90. When the second region 100 is opposite to the trough of the front wave region 80, the top of the second region 100 is connected to the first region 90, located on the front side of the fabric. Each crest of the wave region 80 is connected to the first region 90, and each trough of the wave region 80 is connected to the first region 90. This is because the first region 90 is formed by the interweaving of 16 warp yarns and 29 weft yarns, the second region 100 is formed by the interweaving of 16 warp yarns and 5 weft yarns, and the wave region 80 is formed by the interweaving of 66 warp yarns and 9 weft yarns. The front wave region 80 of the fabric is formed by the interweaving of the second region 100, and the second region 100 is connected to the first region 90. Since both the second region 100 and the first region 90 contain non-interwoven yarns, when the fabric is stretched laterally, the wave region 80 provides cushioning. When the fabric is stretched longitudinally, the non-interwoven yarns provide space for the interwoven yarns, thereby increasing the elasticity of the fabric while reducing the friction between the interwoven yarns, thus reducing the generation of fuzz and increasing the fabric's abrasion resistance.

[0023] Because the first region 90 has a first raised area 901 formed by the interlacing of 6 weft yarns, which connects to a first recessed area 902 formed by 2 non-interlaced weft yarns, after the fabric is set, the 6 interlaced weft yarns will squeeze the 2 non-interlaced weft yarns under the 6 interlaced warp yarns, making them invisible on the front of the fabric. Since the 18th, 33rd, 51st, and 66th warp yarns of the first region 90 interlaced with the weft yarns in a twill weave, after the fabric is set, the twill weave will shrink inwards towards the plain weave due to the higher number of interlacing layers compared to the lower number of interlacing layers. This causes the first region 90 to be higher than the base fabric region 70 on the front side. Because the second region 100 includes a second raised area 101 and a second recessed area 102, and because the second recessed area 102 is formed by a single non-interlaced warp yarn, it will be pressed down by the 4 warp yarns of the second raised area 101. Therefore, the wave area 80 formed by the second region 100 connecting to the base fabric region 70 is also higher than the base fabric region 70 on the front side of the fabric. Located on the front side, the height H of the wave zone 80 is 0.2cm-0.5cm, preferably 0.3cm, and the height H of the first region 90 is 0.2cm-0.5cm, preferably 0.3cm. Because the wave zone 80 and the first region 90 are at the same height, they form an uneven surface with the base fabric region 70. The wave zone 80 and the first region 90 are located on the reverse side of the fabric and also form an uneven surface through the interlacing and non-interlacing of the yarns. Therefore, the structural stability of the fabric can be increased at the interlacing points, while at the non-interlacing points, because Tencel fibers are inherently smooth, non-interlacing can reduce fiber damage, thereby reducing fiber fuzz. Furthermore, the uneven surface formed by the interlacing of the fabric can increase the frictional resistance between fibers, preventing the generated fuzz from easily reaching the fabric surface. Therefore, when the fabric surface is smooth, the coefficient of friction of the fabric is reduced, thereby reducing the phenomenon of pilling.

[0024] The first raised area 901 and the first recessed area 902 are arranged parallel to each other along the width direction, and the second raised area 101 and the second recessed area 102 are arranged parallel to each other along the length direction. The width of the first raised area 901 is greater than that of the second raised area 101, and the width of the first recessed area 902 is greater than that of the second recessed area 102. Since the first recessed area 902 and the second recessed area 102 are both non-interlaced yarns, the first raised area 901 is interlaced between the first recessed areas 902, and the second raised area 101 is interlaced between the second recessed areas 102. This increases the stability of the yarns in the first recessed area 902 and the second recessed area 102, reduces damage to the yarns in the first recessed area 902 and the second recessed area 102, and thus allows the yarns in the first recessed area 902 and the second recessed area 102 to maintain their properties.

[0025] The above description is merely a preferred embodiment of this utility model. The protection scope of this utility model is not limited to the above embodiments. All technical solutions falling within the scope of this utility model's concept are protected. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principle of this utility model should also be considered within the protection scope of this utility model.

Claims

1. A lyocell fabric, characterized in that, It includes a front base fabric area (70), a wave area (80), and a first region (90), and a back base fabric area (70), a first region (90), and a second region (100). The first region (90) is located on the front side and is higher than the base fabric area (70). The first region (90) is located on the back side and includes a first protruding region (901) and a first recessed region (902). Along the width direction, the second region (100) is connected to the base fabric area (70) to form the wave area (80). The wave area (80) is located on the front side and is higher than the base fabric area (70).

2. The lyocell fabric according to claim 1, characterized in that Located in the front direction, each crest of the wave zone (80) connects to the first region (90), and each trough of the wave zone (80) connects to the first region (90).

3. The lyocell fabric according to claim 1, wherein, When the second region (100) is opposite to the crest of the wave area (80) on the front side, the bottom of the second region (100) is connected to the first region (90), and when the second region (100) is opposite to the trough of the wave area (80) on the front side, the top of the second region (100) is connected to the first region (90).

4. The Tencel fabric according to claim 1, characterized in that, Located in the front direction, the height H of the wave zone (80) is 0.2cm-0.5cm, and the height H of the first region (90) is 0.2cm-0.5cm.

5. The Tencel fabric according to claim 1, characterized in that, Located on the opposite side, the first region (90) includes four first raised areas (901) and three first recessed areas (902), and the second region (100) includes five second raised areas (101) and four second recessed areas (102).

6. The Tencel fabric according to claim 5, characterized in that, The first raised area (901) and the first recessed area (902) are arranged parallel to each other along the width direction, and the second raised area (101) and the second recessed area (102) are arranged parallel to each other along the length direction.

7. The Tencel fabric according to claim 5, characterized in that, The width of the first protruding area (901) is greater than that of the second protruding area (101), and the width of the first recessed area (902) is greater than that of the second recessed area (102).

8. The Tencel fabric according to claim 1, characterized in that, The first region (90) is formed by interlacing 66 warp yarns and 68 weft yarns in one cycle, 16 warp yarns and 29 weft yarns interlacing in another cycle, the second region (100) is formed by interlacing 16 warp yarns and 5 weft yarns, and the wave region (80) is formed by interlacing 66 warp yarns and 9 weft yarns.

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