A slip-resistant textile fabric

Abstract

The utility model provides a kind of textile fabric of anti-slippage belongs to the technical field of fabric.It solves the technical problem that the anti-slippage performance of existing fabric is poor while ensuring soft and breathable.The textile fabric of anti-slippage includes weft, first warp and second warp, first warp and weft are interwoven in plain weave, and second warp and weft are interwoven in heddle.The utility model interweaves first warp and weft in plain weave, forms basic stable structure, and combines second warp and weft to interweave in heddle, locks the interweaving point of second warp and weft by the action of twisting generated by heddle, effectively enhances the binding force between second warp and weft, thereby plays a limiting role on the positional relationship of first warp and weft, significantly prevents the relative slippage of first warp and weft, improves the overall firmness and durability of fabric;The utility model does not contain chemical fixing agent, and realizes anti-slippage performance by heddle interweaving.

Description

Technical Field

[0001] This utility model belongs to the field of fabric technology, and specifically refers to a slip-resistant textile fabric. Background Technology

[0002] The structural stability and durability of textile fabrics are important performance indicators for apparel and home textile products. In actual use, fabrics often experience relative slippage between warp and weft threads due to external forces or frequent friction, leading to fabric deformation, loosening of structure, dimensional instability, and even affecting aesthetics and lifespan. Anti-slip performance is particularly important in areas such as chair upholstery, bedding, bags, and workwear.

[0003] Currently, conventional methods to improve the anti-slip properties of fabrics include increasing yarn density, enhancing yarn twist, or using high-modulus fiber materials. For example, increasing the density of warp and weft yarns can enhance interlacing force to some extent, but this can easily lead to fabric stiffness, reduced breathability, and a worse hand feel, and is also costly. Other techniques employ chemical finishing methods, such as adding resins or other fixing agents to fix the yarn position during fabric finishing. However, these methods may introduce harmful chemicals, affecting the safety and comfort of the fabric, and also result in poor wash resistance.

[0004] Among existing patented technologies, there are also some structural designs targeting specific functions. For example, prior art document CN208577825U discloses a "soft mat fabric" that employs a double-layer structure with an outer and inner layer. The inner layer uses a combination of plain weave and warp-reinforced plain weave to create a textured structure and perforations to enhance heat dissipation and slip resistance. While this fabric does have a certain degree of slip resistance, its anti-slip mechanism mainly relies on the friction between the inner layer and the bed surface, rather than structurally reinforcing the relative slippage between the warp and weft threads within the fabric. Furthermore, this fabric has a complex structure, requires advanced weaving techniques, and does not fundamentally address the locking issue between the yarns within the fabric.

[0005] Therefore, existing technologies still lack a textile fabric that is simple in structure, easy to weave, and can effectively suppress the relative slippage of warp and weft threads without relying on chemical finishing. Especially in high-density, high-strength applications, how to significantly improve the anti-slippage performance of the fabric while maintaining its softness and breathability through reasonable yarn configuration and structure design remains a technical problem that urgently needs to be solved in this field. Utility Model Content

[0006] In view of the shortcomings of the existing technology, the purpose of this utility model is to provide a textile fabric with a more secure connection and less slippage of warp and weft threads.

[0007] The objective of this utility model can be achieved through the following technical solutions:

[0008] A slip-resistant textile fabric, characterized in that it comprises a weft, a first warp, and a second warp, wherein the first warp and the weft are interwoven in a plain weave, and the second warp and the weft are interwoven in a heddle pattern.

[0009] Plain weave, or plain weave, is a basic weaving method in the textile industry. Its structure is formed by the warp and weft threads being interwoven in a one-up-one-down manner.

[0010] Gauze weave, also known as leno weave, is a weaving technique using a twisted heddle system. It is formed by the interlacing of two warp threads and one weft thread, with the twisted warp threads creating a twisted yarn hole structure.

[0011] This textile fabric forms a basic stable structure by interlacing the first warp and weft in a plain weave. Simultaneously, it combines this with the second warp and weft through a heddle weave. The twisting action of the heddle locks the interlacing points of the second warp and weft, effectively enhancing the bonding force between them. This restricts the positional relationship between the first warp and weft, significantly preventing relative slippage and improving the overall strength and durability of the fabric. This textile fabric does not contain chemical fixatives; its anti-slip properties are achieved through the heddle weave.

[0012] In the aforementioned slip-resistant textile fabric, the diameters of both the first warp and weft threads are larger than the diameter of the second warp thread.

[0013] This textile fabric utilizes a larger diameter for both the first and second warp threads compared to the second warp thread. The thicker first and second warp threads provide structural support and strength, ensuring the fabric's basic stability and pleasant feel, especially when used in the production of cushions or backrests. The finer second warp threads, through heddle weaving, can be more flexibly embedded in the main structure, further enhancing the locking effect on the warp and weft threads, preventing slippage, while maintaining the fabric's softness, comfort, and aesthetic appeal.

[0014] In the aforementioned slip-resistant textile fabric, the second warp threads are arranged in groups of at least two, with each group of second warp threads twisted together and interwoven with the weft threads.

[0015] The aforementioned second meridians are generally in pairs. After the two second meridians pass over the upper and lower sides of the parallel, they twist together and exchange their upper and lower positions before passing over the next parallel. Furthermore, there can be multiple second meridians, as long as they can twist together to achieve positioning.

[0016] In the aforementioned slip-resistant textile fabric, the second warp is positioned between two adjacent first warp and outside the two outermost first warp, and the second warp is interwoven with each weft.

[0017] This textile fabric places the second warp between two adjacent first warp and outside the two outermost first warp, and interweaves it with each weft. This results in the heddle structure being evenly distributed across the width of the fabric, which not only enhances the interweaving force of the warp and weft within the fabric, but also effectively prevents the warp from loosening and the weft from slipping in the edge areas, thereby comprehensively improving the edge stability and overall anti-slip performance of the fabric.

[0018] In the aforementioned slip-resistant textile fabric, a second warp is provided every few first warp threads and on the outer side of the two outermost first warp threads, and the second warp threads are interwoven with each weft thread.

[0019] This textile fabric uses second warp threads placed at intervals along several first warp threads and on the outer sides of the two outermost first warp threads. These second warp threads are then interwoven with each weft thread using heddles. This ensures sufficient anti-slip effect while optimizing the number of second warp threads used, reducing production costs and difficulty, and achieving a balance between fabric strength and economy. At the same time, the intermittently distributed heddles effectively suppress local slippage of warp and weft threads.

[0020] In the aforementioned slip-resistant textile fabric, the first warp and weft are interwoven in a one-warp-multiple-weft manner, multiple wefts form a weft group, and multiple weft groups are interwoven with the first warp in a plain weave manner. The second warp is interwoven with each weft group in a heddle pattern or the second warp is interwoven with each weft.

[0021] This textile fabric employs a single warp and multiple wefts, where multiple weft yarns form weft groups that interweave with the first warp in a plain weave pattern, increasing weft density and fabric coverage. It also combines the second warp with each weft group or each weft yarn through a heddle structure, using the heddle structure to lock the weft groups or individual weft yarns at multiple points, further preventing slippage between the weft yarns and the first warp, and enhancing the lateral stability and tightness of the fabric.

[0022] In the aforementioned slip-resistant textile fabric, the first warp and weft are interwoven in a multi-warp-one-weft manner, with multiple first warp threads forming warp groups. Multiple warp groups and weft threads are interwoven in a plain weave. The second warp is positioned between two adjacent warp groups and outside the two outermost warp groups, or the second warp is positioned between two adjacent first warp threads and outside the two outermost first warp threads. The second warp is interwoven with each weft thread using a heddle.

[0023] This textile fabric employs a multi-warp, single-weft method, where multiple first warp threads form warp groups that interweave with the weft threads in a plain weave, increasing warp density and longitudinal strength. A second warp thread is positioned between adjacent warp groups and on the outer edges of the two outermost warp groups (or between adjacent first warp threads and on the outermost edges), and interweaves with each weft thread using heddles. This heddle structure strengthens the warp and weft interweaving points, effectively preventing weft slippage in the warp direction and enhancing the fabric's longitudinal strength and overall resistance to deformation.

[0024] In the aforementioned slip-resistant textile fabric, the first warp and weft are interwoven in a multi-warp, multi-weft manner, with multiple first warp yarns forming a warp group and multiple weft yarns forming a weft group. The warp and weft groups are interwoven in a plain weave. The second warp yarn is positioned between two adjacent warp groups and outside the two outermost warp groups, or the second warp yarn is positioned between two adjacent first warp yarns and outside the two outermost first warp yarns. The second warp yarn is interwoven with each weft yarn using a heddle.

[0025] This textile fabric employs a multi-warp and multi-weft method, where multiple first warp threads form warp groups and multiple weft threads form weft groups, interwoven in a plain weave to create a high-density basic structure. Second warp threads are positioned between adjacent warp groups and on the outer edges of the two outermost warp groups (or between adjacent first warp threads and on the outermost edges), and are interwoven with each weft thread through heddles. This heddles lock the weft threads at multiple points, significantly enhancing the interweaving force between warp and weft threads, preventing slippage of warp and weft threads under high-density conditions, and ensuring the structural stability and durability of the fabric.

[0026] In the aforementioned slip-resistant textile fabric, the first warp and weft are interwoven in a multi-warp, multi-weft manner, with multiple first warp yarns forming a warp group and multiple weft yarns forming a weft group. The warp and weft groups are interwoven in a plain weave. The second warp yarn is positioned between two adjacent warp groups and outside the two outermost warp groups, or the second warp yarn is positioned between two adjacent first warp yarns and outside the two outermost first warp yarns. The second warp yarn is interwoven with each weft group using a heddle.

[0027] This textile fabric employs a multi-warp and multi-weft method, where warp and weft groups are interwoven in a plain weave to form a uniform and tight base. Combined with the second warp thread and each weft group through heddle weaving, the heddle process is simplified while still locking the weft groups together through the heddle structure. This effectively prevents the collective slippage of the weft groups, improves the overall coordination and anti-slip performance of the fabric, and is suitable for textile applications that require a large area of ​​strong structure.

[0028] Compared with the prior art, the technical effects of this utility model are as follows:

[0029] This textile fabric forms a basic stable structure by interlacing the first warp and weft in a plain weave. Simultaneously, it combines this with the second warp and weft through a heddle weave. The twisting action of the heddle locks the interlacing points of the second warp and weft, effectively enhancing the bonding force between them. This restricts the positional relationship between the first warp and weft, significantly preventing relative slippage and improving the overall strength and durability of the fabric. This textile fabric does not contain chemical fixatives; its anti-slip properties are achieved through the heddle weave. Attached Figure Description

[0030] Figure 1 These are cross-sectional views and enlarged partial views of this utility model.

[0031] Figure 2 This is a schematic diagram and a partial enlarged view of an embodiment of this utility model.

[0032] Figure 3 This is a schematic diagram of the structure of Embodiment 2 of this utility model.

[0033] Figure 4 This is a structural schematic diagram of Embodiment 3 of this utility model.

[0034] Figure 5 This is a structural schematic diagram of Embodiment 4 of this utility model.

[0035] Figure 6 This is a structural schematic diagram of Embodiment 5 of this utility model.

[0036] Figure 7 This is a structural schematic diagram of Embodiment Six of this utility model.

[0037] Figure 8 This is a structural schematic diagram of Embodiment Seven of this utility model.

[0038] Figure 9 This is a structural schematic diagram of Embodiment 8 of this utility model.

[0039] Figure 10 This is a structural schematic diagram of Embodiment Nine of this utility model.

[0040] Figure 11 This is a structural schematic diagram of Embodiment 10 of this utility model.

[0041] In the diagram, 1 is the first meridian; 11 is the meridian group; 2 is the second meridian; 3 is the parallel; and 31 is the parallel group. Detailed Implementation

[0042] The following are specific embodiments of the present invention, which are described in conjunction with the accompanying drawings. However, the present invention is not limited to these embodiments.

[0043] This slip-resistant textile fabric includes weft 3, first warp 1 and second warp 2. The first warp 1 and weft 3 are interwoven in a plain weave, and the second warp 2 and weft 3 are interwoven in a twisted heddle.

[0044] This textile fabric forms a basic stable structure by interlacing the first warp 1 and weft 3 in a plain weave. At the same time, it combines the second warp 2 and weft 3 with heddle interlacing. The twisting effect of the heddle locks the interlacing point of the second warp 2 and weft 3, effectively enhancing the bonding force between the second warp 2 and weft 3. This restricts the positional relationship between the first warp 1 and weft 3, significantly preventing relative slippage between the first warp 1 and weft 3, and improving the overall strength and durability of the fabric. This textile fabric does not contain chemical fixatives and achieves anti-slip properties through heddle interlacing.

[0045] Plain weave, also known as plain weave, is a basic weaving method in the textile industry. Its structure is formed by the warp and weft threads 3 interlacing in an up-down manner. Gauze weave, also known as leno weave, is woven using a heddle weaving process. It is formed by the interlacing of two warp threads and one weft thread 3, and the heddle hole structure is created by the twisting of the warp threads.

[0046] Furthermore, the diameters of both the first warp 1 and the weft 3 are larger than the diameter of the second warp 2. This textile fabric, by using larger diameters for the first warp 1 and the weft 3, provides the main support and strength, ensuring the fabric's basic stability and pleasant feel, especially when used in the production of cushions or backrests. The finer second warp 2, through heddle weaving, can be more flexibly embedded in the main structure, further enhancing the locking effect on the warp and weft 3, preventing slippage, while maintaining the fabric's softness, comfort, and aesthetics.

[0047] Furthermore, the second meridian 2 is at least in pairs, with each pair of second meridian 2 twisted together and intertwined with the latitude line 3. Generally, the second meridian 2 is in pairs. After the two second meridian 2 pass over the upper and lower sides of the latitude line 3 respectively, they twist together and exchange their upper and lower positions before passing over the next latitude line 3. Furthermore, there can also be multiple second meridian 2, as long as they can twist together to achieve positioning.

[0048] Example 1

[0049] The second meridian 2 is located between two adjacent first meridians 1 and outside the two outermost first meridians 1. The second meridian 2 is interwoven with each parallel 3.

[0050] This textile fabric has a second warp 2 placed between two adjacent first warp 1 and outside the two outermost first warp 1, and interwoven with each weft 3. This interwoven structure is evenly distributed in the width direction of the fabric, which not only enhances the interweaving force of the warp and weft 3 inside the fabric, but also effectively prevents the warp from loosening and the weft 3 from slipping in the edge area, thereby comprehensively improving the edge stability and overall anti-slip performance of the fabric.

[0051] Example 2

[0052] A second meridian 2 is provided every few first meridians 1 and outside the two outermost first meridians 1. The second meridians 2 are intertwined with each latitude line 3.

[0053] This textile fabric uses second warp threads 2 arranged at intervals of several first warp threads 1 and outside the two outermost first warp threads 1, and interlaced with each weft thread 3. While ensuring sufficient anti-slip effect, it optimizes the number of second warp threads 2 used, reduces production costs and production difficulty, and achieves a balance between fabric strength and economy. At the same time, the interlaced heddle points effectively suppress local slippage of warp and weft threads 3.

[0054] Example 3

[0055] The first meridian 1 and the parallel 3 are interwoven in a one-warp-multiple-parallel manner. Multiple parallels 3 form parallel groups 3. Multiple parallel groups 3 are interwoven with the first meridian 1 in a plain weave. The second meridian 2 is interwoven with each parallel group 3 in a twisted weave.

[0056] Example 4

[0057] The first meridian 1 and the parallel 3 are interwoven in a one-warp-multiple-parallel manner. Multiple parallels 3 form parallel group 3. Multiple parallel groups 3 are interwoven with the first meridian 1 in a plain weave. The second meridian 2 is interwoven with each parallel 3 in a twisted weave.

[0058] When this textile fabric adopts a one-warp-multiple-weft method, multiple weft yarns 3 form weft yarn groups 3 and interweave with the first warp yarn 1 in a plain weave manner, increasing the density of weft yarns 3 and the coverage of the fabric. In addition, the second warp yarn 2 is combined with each weft yarn group 3 or each weft yarn 3 to form a heddle interweave. The heddle structure is used to lock the weft yarn group 3 or a single weft yarn 3 at multiple points, further preventing the weft yarns 3 and the first warp yarn 1 from slipping, and enhancing the lateral stability and tightness of the fabric.

[0059] Example 5

[0060] The first meridian 1 and the parallel 3 are interwoven in a multi-warp-one-parallel manner. Multiple first meridians 1 form a meridian group 11. The meridian group 11 and the parallel 3 are interwoven in a plain weave. The second meridian 2 is located between two adjacent meridian groups 11 and outside the two outermost meridian groups 11. The second meridian 2 is interwoven with each parallel 3 in a twisted heddle.

[0061] Example 6

[0062] The first meridian 1 and the parallel 3 are interwoven in a multi-warp-one-lattice manner. Multiple first meridians 1 form a meridian group 11. The meridian group 11 and the parallel 3 are interwoven in a plain weave. The second meridian 2 is set between two adjacent first meridians 1 and outside the two outermost first meridians 1. The second meridian 2 is interwoven with each parallel 3 in a twisted heddle.

[0063] When this textile fabric adopts a multi-warp, single-weft method, multiple first warp threads 1 form warp groups 11 and interweave with weft threads 3 in a plain weave, increasing warp density and longitudinal strength. Combined with second warp threads 2, which are placed between two adjacent warp groups 11 and outside the two outermost warp groups 11 (or between two adjacent first warp threads 1 and outside the outermost edge), and interweave with each weft thread 3 through a heddle structure, the heddle structure strengthens the interweaving points of warp and weft threads 3, effectively preventing the weft threads 3 from slipping in the warp direction, and improving the longitudinal strength and overall deformation resistance of the fabric.

[0064] Example 7

[0065] The first meridian 1 and the parallel 3 are interwoven in a multi-warp and multi-latitudinal manner. Multiple first meridians 1 form a meridian group 11, and multiple parallels 3 form a parallel group 3. The meridian group 11 and the parallel group 3 are interwoven in a plain weave. The second meridian 2 is located between two adjacent meridian groups 11 and outside the two outermost meridian groups 11. The second meridian 2 is interwoven with each parallel 3 in a twisted heddle pattern.

[0066] Example 8

[0067] The first meridian 1 and the parallel 3 are interwoven in a multi-warp and multi-latitudinal manner. Multiple first meridians 1 form a meridian group 11, and multiple parallels 3 form a parallel group 3. The meridian group 11 and the parallel group 3 are interwoven in a plain weave. The second meridian 2 is located between two adjacent first meridians 1 and outside the two outermost first meridians 1. The second meridian 2 is interwoven with each parallel 3 in a twisted heddle pattern.

[0068] When this textile fabric adopts a multi-warp and multi-weft method, multiple first warp threads 1 form warp groups 11 and multiple weft threads 3 form weft groups 3. They are interwoven in a plain weave to form a high-density basic structure. Combined with second warp threads 2, which are set between two adjacent warp groups 11 and outside the two outermost warp groups 11 (or between two adjacent first warp threads 1 and outside the outermost edge), they are interwoven with each weft thread 3 through heddle weaving. Through heddle weaving, the weft threads 3 are locked at multiple points, which significantly enhances the interweaving force between the warp and weft threads 3, prevents the slippage of the warp and weft threads 3 under high-density conditions, and ensures the structural stability and durability of the fabric.

[0069] Example 9

[0070] The first meridian 1 and the parallel 3 are interwoven in a multi-warp and multi-latitudinal manner. Multiple first meridians 1 form a meridian group 11, and multiple parallels 3 form a parallel group 3. The meridian group 11 and the parallel group 3 are interwoven in a plain weave. The second meridian 2 is located between two adjacent meridian groups 11 and outside the two outermost meridian groups 11. The second meridian 2 is interwoven with each parallel group 3 in a twisted heddle pattern.

[0071] Example 10

[0072] The first meridian 1 and the parallel 3 are interwoven in a multi-warp and multi-latitudinal manner. Multiple first meridians 1 form a meridian group 11, and multiple parallels 3 form a parallel group 3. The meridian group 11 and the parallel group 3 are interwoven in a plain weave. The second meridian 2 is located between two adjacent first meridians 1 and outside the two outermost first meridians 1. The second meridian 2 is interwoven with each parallel group 3 in a twisted heddle pattern.

[0073] When this textile fabric adopts a multi-warp and multi-weft method, the warp group 11 and the weft group 3 are interwoven in a plain weave to form a uniform and tight base. Combined with the second warp 2 and each weft group 3, the fabric is woven with heddles. This simplifies the heddle process while still locking the weft group 3 as a whole through the heddle structure. This effectively prevents the collective slippage of the weft group 3, improves the overall coordination and anti-slip performance of the fabric, and is suitable for textile applications that require a large area of ​​strong structure.

[0074] The above embodiments are merely preferred embodiments of the present utility model and are not intended to limit the scope of protection of the present utility model. Therefore, all equivalent changes made to the structure, shape, and principle of the present utility model should be covered within the scope of protection defined by the claims of the present utility model.

Claims

1. A slip-resistant textile fabric, characterized in that: It includes a parallel (3), a first meridian (1) and a second meridian (2). The first meridian (1) and the parallel (3) are interwoven in a plain weave, and the second meridian (2) and the parallel (3) are interwoven in a twisted weave.

2. The slip-resistant textile fabric according to claim 1, characterized in that: The diameters of the first meridian (1) and parallel (3) are both greater than the diameter of the second meridian (2).

3. The slip-resistant textile fabric according to claim 1, characterized in that: The second meridian (2) consists of at least two meridians as a group, and each group of second meridians (2) is twisted together and intertwined with the latitude line (3).

4. A slip-resistant textile fabric according to any one of claims 1-3, characterized in that: The second meridian (2) is located between two adjacent first meridians (1) and outside the two outermost first meridians (1). The second meridian (2) is intertwined with each parallel (3).

5. A slip-resistant textile fabric according to any one of claims 1-3, characterized in that: A second meridian (2) is provided on the outside of every few first meridians (1) and the two outermost first meridians (1), and the second meridian (2) is intertwined with each parallel (3).

6. A slip-resistant textile fabric according to any one of claims 1-3, characterized in that: The first meridian (1) and parallel (3) are interwoven in a one-warp-multiple-parallel manner. Multiple parallels (3) form parallel groups (31). Multiple parallel groups (31) are interwoven with the first meridian (1) in a plain weave. The second meridian (2) is interwoven with each parallel group (31) or the second meridian (2) is interwoven with each parallel (3).

7. A slip-resistant textile fabric according to any one of claims 1-3, characterized in that: The first meridian (1) and the parallel (3) are interwoven in a multi-warp-one-parallel manner. Multiple first meridians (1) form a meridian group (11). Multiple meridian groups (11) and parallels (3) are interwoven in a plain weave. The second meridian (2) is located between two adjacent meridian groups (11) and outside the two outermost meridian groups (11), or the second meridian (2) is located between two adjacent first meridians (1) and outside the two outermost first meridians (1). The second meridian (2) is interwoven with each parallel (3) in a twisted heddle.

8. A slip-resistant textile fabric according to any one of claims 1-3, characterized in that: The first meridian (1) and the parallel (3) are interwoven in a multi-warp and multi-latitudinal manner. Multiple first meridians (1) form a meridian group (11), and multiple parallels (3) form a parallel group (31). The meridian group (11) and the parallel group (31) are interwoven in a plain weave. The second meridian (2) is located between two adjacent meridian groups (11) and outside the two outermost meridian groups (11), or the second meridian (2) is located between two adjacent first meridians (1) and outside the two outermost first meridians (1). The second meridian (2) is interwoven with each parallel (3).

9. A slip-resistant textile fabric according to any one of claims 1-3, characterized in that: The first meridian (1) and the parallel (3) are interwoven in a multi-warp and multi-latitudinal manner. Multiple first meridians (1) form a meridian group (11), and multiple parallels (3) form a parallel group (31). The meridian group (11) and the parallel group (31) are interwoven in a plain weave. The second meridian (2) is located between two adjacent meridian groups (11) and outside the two outermost meridian groups (11), or the second meridian (2) is located between two adjacent first meridians (1) and outside the two outermost first meridians (1). The second meridian (2) is interwoven with each parallel group (31).

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