A high abrasion high strength woven fabric

Abstract

The utility model discloses a high wear -resisting high strength weave fabric has surface and inside, including a plurality of organization circulation, and the organization circulation includes second organization and is connected in the first organization of second organization one side, and the first organization includes first warp yarn and first weft yarn, and second organization includes first warp yarn and second weft yarn, and the elasticity of first warp yarn and second weft yarn is all greater than the elasticity of first weft yarn, and first warp yarn is closely interwoven with second weft yarn to form the close structure at the surface side of fabric, and first weft yarn floats in first warp yarn to form first long float thread at the inside side of fabric, and first long float thread is extruded and shrinks after being pressed by adjacent second organization and floats on second organization, and a plurality of first long float threads are arranged side by side to make the inside of fabric form the loose structure. By first warp yarn and one kind of high elasticity weft yarn form close structure, and the first warp yarn forms long float thread with another low elasticity weft yarn simultaneously, two kinds of weft yarn weave simultaneously, form the fabric with double -deck different characteristics, and the fabric keeps high protection while giving consideration to comfortable experience.

Description

Technical Field

[0001] This utility model relates to the field of woven fabric manufacturing, and in particular to a high wear-resistant and high-strength woven fabric. Background Technology

[0002] Currently, woven workwear fabrics, made from traditional materials, offer advantages such as a dense and thick texture, high abrasion resistance, and crispness that prevents deformation, meeting the basic protective needs of workwear. However, significant drawbacks remain. Traditional woven workwear fabrics have poor elasticity, resulting in less comfortable wear. They are also prone to wrinkling and require frequent ironing, making it difficult to maintain both high protection and comfort. Furthermore, some fabrics are prone to fading during washing, affecting their appearance and lifespan.

[0003] As market demands for workwear evolve from basic protection to a four-pronged approach encompassing compliance and safety, uniformity of appearance, green technology, and rapid-response customization, existing woven workwear can no longer meet the comprehensive requirements of being both safe and durable, as well as comfortable to wear. Summary of the Invention

[0004] The purpose of this invention is to provide a highly abrasion-resistant and high-strength woven fabric. This fabric is created by simultaneously weaving warp yarns with two types of weft yarns of different elasticities, forming a fabric with two layers of different properties. The fabric maintains high protective properties while also providing a comfortable experience. The specific technical solution is as follows: A high-wear-resistant and high-strength woven fabric has a surface and an inner surface, including multiple weave cycles. Each weave cycle includes a second weave and a first weave connected to one side of the second weave. The first weave includes a first warp yarn and a first weft yarn, and the second weave includes a first warp yarn and a second weft yarn. The elasticity of both the first warp yarn and the second weft yarn is greater than that of the first weft yarn. The first warp yarn and the second weft yarn are tightly interwoven to form a tight structure on the surface side of the fabric. The first weft yarn floats on the inner side of the fabric above the first warp yarn to form a first float. The first float is squeezed and contracted by the adjacent second weave and then floats on the second weave. Multiple first floats are arranged side by side to form a loose structure on the inner surface of the fabric.

[0005] Furthermore, the weave cycle also includes a third and a fourth weave connected sequentially on the other side of the second weave. The third weave includes a first warp and a third weft, and the fourth weave includes a first warp and a fourth weft. The elasticity of the fourth weft is greater than that of the third weft. The third weft floats on the inside side of the fabric above the first warp to form a second float. The first warp and the fourth weft are tightly interwoven to form a tight structure on the surface side of the fabric. The second float and the first float are staggered in the warp direction. Multiple first floats and multiple second floats together constitute a loose structure inside the fabric.

[0006] Furthermore, both the second and fourth weaves are plain weaves, the first weave has a first warp weave point, and the third weave has a second warp weave point. In the warp direction, the first warp weave point corresponds to the middle area of ​​the second float, and the second warp weave point corresponds to the middle area of ​​the first float.

[0007] Furthermore, in one weft cycle, the ratio of the first weft yarn to the second weft yarn is 1:2 or 1:3, and the ratio of the third weft yarn to the fourth weft yarn is 1:2 or 1:3.

[0008] Furthermore, in a weave cycle, the first weave includes one first weft yarn, the second weave includes two second weft yarns, the third weave includes one third weft yarn, and the fourth weave includes two fourth weft yarns.

[0009] Furthermore, both the first and second floats float on 5 to 7 of the first warp yarns.

[0010] Furthermore, both the first and second floats float on the seven first warp yarns.

[0011] Furthermore, the first warp, second weft, and fourth weft yarns are all made of polyolefin elastic fiber spandex, while the first and third weft yarns are made of polyester.

[0012] Furthermore, the first warp yarn, the second weft yarn, and the fourth weft yarn are all made of polyolefin elastic fiber spandex that has undergone a pre-treatment process at a temperature of 190 to 200°C for 15 to 25 seconds.

[0013] Furthermore, the first warp yarn is made of 150D / 96F recycled physical method polyester machine-wrapped 75D, 3.2 times polyolefin elastic fiber spandex 550T / MZ yarn; the first and third weft yarns are made of 300D / 288F recycled physical method polyester lightweight web stretch textured yarn 200T / MZ yarn; and the second and fourth weft yarns are made of 75D / 36F recycled physical method polyester empty-wrapped 75D, 3.2 times polyolefin elastic fiber spandex yarn.

[0014] The high abrasion resistance and high strength woven fabric of this invention has the following advantages: 1. By forming a tight structure between the warp yarn and a highly elastic weft yarn, and simultaneously forming a float with another low-elasticity weft yarn, the two weft yarns are woven together to form a fabric with two layers of different properties. The fabric maintains high protection while also providing a comfortable experience. 2. The two types of weft yarns form floats that are staggered in the warp direction rather than aligned, avoiding continuous superposition in the warp direction. This makes the second side of the fabric have a delicate, uniform, and soft texture. At the same time, the staggered floats increase the specific surface area of ​​the fabric, significantly improving its moisture absorption performance and making it comfortable to wear without any hard spots. 3. The first warp, second weft, and fourth weft yarns are all made of polyolefin elastic fiber spandex, while the first and third weft yarns are made of polyester. Polyolefin elastic fiber spandex has high elasticity and a high elongation, which allows the first warp, second weft, and fourth weft yarns to fully shrink when tightly interwoven in a plain weave, forming a crisp and wear-resistant structure on the first surface. The first weft yarn is made of polyester, which has low elasticity or no elasticity, ensuring the stability of the float yarn and forming a slippery float yarn. Polyester's high strength, toughness, and large moisture-absorbing surface area provide a delicate and soft touch and excellent moisture absorption for the second surface. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the tissue cycle in the high wear-resistant and high-strength woven fabric of this utility model.

[0016] Figure 2 This is a schematic diagram of the first side of the high wear-resistant and high-strength woven fabric of this utility model.

[0017] Figure 3 This is a schematic diagram of the second side of the high wear-resistant and high-strength woven fabric of this utility model. Detailed Implementation

[0018] To better understand the purpose, structure, and function of this utility model, the high wear-resistant and high-strength woven fabric of this utility model will be described in detail below with reference to the accompanying drawings.

[0019] like Figures 1 to 3 As shown, the high abrasion-resistant and high-strength woven fabric of this utility model is made of multiple warp yarns and multiple weft yarns interwoven together, and has a first side 600 and a second side 700. When the high abrasion-resistant and high-strength woven fabric is made into clothing, the first side 600 is the surface located on the side away from the human body, and the second side 700 is the inside located on the side facing the human body. The high abrasion-resistant and high-strength woven fabric includes multiple weave cycles. A weave cycle refers to the smallest pattern area on the fabric that can represent the weaving pattern of the entire fabric.

[0020] like Figure 1As shown, the direction of warp extension is defined as the warp direction of a high-abrasion-resistant and high-strength woven fabric, and the direction of weft extension is defined as the weft direction. The weave cycle includes a first weave 100 and a second weave 200 sequentially connected along the warp direction, with the first weave 100 positioned above the second weave 200. The first weave 100 includes a first warp 500 and a first weft 104, and the second weave 200 includes a first warp 500 and a second weft 204. The elasticity of the first warp 500 is greater than that of the first weft 104, and the elasticity of the second weft 204 is also greater than that of the first weft 104. The second weave 200 is configured as a tightly interwoven structure. By tightly interweaving the highly elastic first warp 500 and second weft 204, the first warp 500 and second weft 204 contract, thereby forming a tight structure on the first surface 600 of the fabric. This gives the first surface 600 a crisp feel and abrasion resistance, meeting the requirements for stiffness and shape retention when the fabric is used as workwear.

[0021] The first weft yarn 104 floats on the inside side of the fabric above the first warp yarn 500 to form a first float 101. The first float 101 is a weft float extending along the weft direction. The first weft yarn 104 has low elasticity or is a non-elastic yarn. As a result, after the first float 101 is squeezed and contracted by the adjacent second structure 200, the first float 101 is carried by the second structure 200 and floats on the second structure 200. Then, by squeezing it, it is biased to a position with a larger space. As a result, multiple first floats 101 slide to the second surface 700 of the fabric and are arranged side by side. In other words, the opposite side of the first surface 600 is covered by the second weft yarn 204, thus forming a second surface 700 with a loose structure. Therefore, the second surface 700 has a delicate and soft texture, good moisture absorption, and makes it more comfortable for the human body to wear. In addition, the number of monofilaments in the first weft yarn 104 is higher than that in the first warp yarn 500 and the second weft yarn 204, which makes the second weft yarn 700 softer and the second weft yarn 204 has a larger specific surface area and better moisture absorption.

[0022] Preferably, the weave cycle further includes a third weave 300 and a fourth weave 400 connected sequentially. The third weave 300 and the fourth weave 400 are arranged below the second weave 200 along the warp direction. The third weave 300 includes a first warp 500 and a third weft 304, and the fourth weave 400 includes a first warp 500 and a fourth weft 404. The elasticity of the fourth weft 404 is greater than that of the third weft 304. The third weft 304 floats on the inside side of the fabric above the first warp 500 to form a second float 301, which is also along the weft direction. The extended weft floats, while the fourth weave 400 is set as a tightly interwoven structure, the second float 301 is carried by the tightly interwoven structure and floats on the second weave 200 or the fourth weave 400. Then, by squeezing, it is biased to a position with a larger space, and then the second float 301 slides to the second surface 700 of the fabric. The second float 301 and the first float 101 are arranged in an alternating manner in the warp direction, that is, the first float 101 and the second float 301 are staggered in the warp direction, rather than aligned, to avoid continuous superposition in the warp direction.

[0023] The purpose of this structure is to ensure a uniform distribution of the loose structure on the second side 700 of the fabric, preventing localized excessive looseness, wrinkling, or structural weakness caused by the concentrated arrangement of the first float 101 and the second float 301. Simultaneously, it maintains the tightly interwoven characteristics of the first side 600 without interference. This results in a delicate, uniform, and soft texture on the second side 700. Furthermore, the staggered arrangement of the floats increases the specific surface area of ​​the fabric, significantly improving its moisture absorption and providing a comfortable, smooth feel when worn. In addition, the overall fabric structure is more stable, avoiding localized deformation caused by float alignment. Thus, while meeting the requirements for crispness and durability in workwear, it maximizes wearing comfort and functionality.

[0024] It should be noted that the simultaneous weft weaving of the high abrasion-resistant and high-strength woven fabric of this invention results in a denser structure, increased coverage coefficient, and reduced surface porosity, thus enhancing dust protection when used as tooling. The first weft yarn 104 and the third weft yarn 304 are made of the same material, while the second weft yarn 204 and the fourth weft yarn 404 are made of a different material. This allows the surface and inner yarns to share the load, improving the fabric's abrasion resistance. Furthermore, a single weaving process can create two layers of fabric with different properties, saving subsequent lamination, bonding, and adhesive bonding processes, reducing production costs. Compared to existing double-layer bonded structures, the high abrasion-resistant and high-strength woven fabric of this invention is 15-20% lighter for the same thickness.

[0025] Furthermore, both the second weave 200 and the fourth weave 400 are set as plain weaves. The warp and weft yarns in the plain weave interweave once each time they intersect, so that the second weave 200 and the fourth weave 400 form a highly regular and tight interweaving network, which effectively fixes the highly elastic first warp yarn 500, second weft yarn 204 and fourth weft yarn 404, preventing them from shrinking or shifting excessively in the fabric, and providing stable support points for the first float 101 and the second float 301, ensuring that they can slide to the second surface 700 of the fabric. A first warp weft point 102 is formed on the first weft 100, and a second warp weft point 302 is formed on the third weft 300. In the warp direction, the first warp weft point 102 corresponds to the middle area of ​​the second float 301, and the second warp weft point 302 corresponds to the middle area of ​​the first float 101. By setting these relative positions, the second float 301 and the first float 101 are arranged in an alternating pattern in the warp direction. This precisely controls the sliding path of the first float 101 and the second float 301 on the second surface 700 of the fabric, preventing the two floats from sliding to the same position simultaneously in the warp direction. This prevents the second surface 700 from becoming too loose, striped, or structurally uneven. At the same time, it ensures that the floats are stably guided by the plain weave structure during the sliding process, forming a uniform and delicate loose structure on the second surface 700 of the fabric.

[0026] Furthermore, in one weft cycle, the ratio of the first weft yarn 104 to the second weft yarn 204 is 1:2 or 1:3, and the ratio of the third weft yarn 304 to the fourth weft yarn 404 is 1:2 or 1:3. The purpose of configuring the number of weft yarns in the above ratio is that a smaller number of the first weft yarn 104 and the third weft yarn 304 creates sufficient space for the floating long yarns to slide during interlacing, while a larger number of the second weft yarn 204 and the fourth weft yarn 404 forms a densely interlaced and stable structure, effectively fixing the elastic warp yarns and guiding the floating long yarns to move in a regular manner. This allows the first weft yarn 104 and the third weft yarn 304 to evenly cover the plain weave structure, avoiding the concentrated accumulation of floating long yarns on the second side 700 of the fabric.

[0027] Furthermore, in one weave cycle, the second weave 200 includes one first weft yarn 104 and two second weft yarns 204, and the fourth weave 400 includes one third weft yarn 304 and two fourth weft yarns 404. By setting the number of second weft yarns 204 and fourth weft yarns 404 to two each, the situation where the first weft yarn 104 and third weft yarn 304 cannot be completely covered due to the excessive number of second weft yarns 204 and fourth weft yarns 404, thus failing to form an effective float, is avoided. At the same time, the tight interlacing structure of the second weave 200 and the fourth weave 400 can stably fix the elastic first warp yarn 500 and the second weft yarns 204 and fourth weft yarns 404, providing just the right interlacing density for the slippage of the float, achieving a balance between the stiffness and abrasion resistance of the first face 600 and the softness and moisture absorption of the second face 700, thus optimizing the practicality and wearing comfort of the workwear.

[0028] Preferably, the number of first warp yarns 500 in the weave cycle is set to 6 to 8, and the first and second floats float on 5 to 7 of the first warp yarns to ensure that the first float 101 and the second float 301 of appropriate length are formed in the weft direction. If the number of first warp yarns 500 is less than 6, the floats will be too short, the slippage will be insufficient, or the structure will be unstable. If the number of first warp yarns 500 is greater than 8, the floats will be too long, the second weft yarn 204 and the fourth weft yarn 404 will be excessively covered, and the structure of the second face 700 will be too loose. Under the action of external force, the yarns will be difficult to return to their original position after displacement, which will reduce the wrinkle resistance of the fabric. The floats are also prone to causing the fabric surface to bulge, affecting the overall aesthetics of the second face 700. In addition, the floats are more likely to break due to increased friction, reducing the durability of the fabric.

[0029] Furthermore, the number of first warp yarns 500 in the weft loop is set to 8. The first float and the second float both float on 7 first warp yarns to form a first float 101 and a second float 301 of appropriate length in the weft direction. This avoids the problems of floats being too short, insufficient slippage, and unstable structure caused by fewer than 6 floats, and also prevents floats being too long, the second weft yarn 204 and the fourth weft yarn 404 being overly covered, and the second face 700 structure being too loose and wrinkle resistance being reduced due to more than 8 floats.

[0030] Preferably, the first warp yarn 500, the second weft yarn 204, and the fourth weft yarn 404 are all made of XLA (polyolefin elastic fiber) spandex, while the first weft yarn 104 and the third weft yarn 304 are made of polyester. Polyolefin elastic fiber spandex has high elasticity, with an elongation rate of 300% to 500%, allowing the first warp yarn 500, the second weft yarn 204, and the fourth weft yarn 404 to fully shrink when tightly interwoven in a plain weave, forming a crisp and abrasion-resistant structure on the first surface.

[0031] Polyolefin spandex, an elastic fiber, is heat-resistant, capable of withstanding dry heat up to 220℃. It does not require temperature reduction during setting, pressing, and baking processes. Furthermore, it is resistant to strong acids, strong alkalis, chlorine bleach, and hydrogen peroxide. No special protection is needed after dyeing, facilitating production and processing. In addition, polyolefin spandex has a higher initial modulus than ordinary spandex, resulting in advantages such as no tightness or stiffness, lower moisture absorption, good wet shape retention, and excellent wrinkle-free properties. Polyester gives the first weft yarn (104) low elasticity or no elasticity, ensuring the stability of the float yarn while forming a slippery float yarn. Polyester's high strength, toughness, and large moisture-absorbing surface area provide the second weft yarn (700) with a delicate and soft touch and excellent moisture absorption.

[0032] Furthermore, the polyolefin elastic fiber spandex undergoes a pre-forming treatment, which includes setting the temperature to 190 to 200°C and the time to 15 to 25 seconds. This process activates the elasticity of the polyolefin elastic fiber spandex and maintains the dimensional stability of the fabric. The shrinkage rate is controlled to ≤2%, lower than the industry standard requirement of 3% to 5%. The resilience is above 95%, and the elongation in both the warp and weft directions is above 30%. This provides reliable elastic support for the first 600-sided fabric to achieve a crisp structure. After the pre-forming treatment, the polyolefin elastic fiber spandex is not easily deformed and has strong resilience. The fabric maintains dimensional stability after repeated wear and washing, extending the service life of the workwear. This achieves the effect of the first 600-sided fabric being stiff and wear-resistant while the second 700-sided fabric is soft and moisture-wicking.

[0033] Furthermore, the first warp yarn 500 uses 150D / 96F recycled physical method polyester machine-wrapped 75D, 3.2 times polyolefin elastic fiber spandex 550T / MZ yarn; the first weft yarn 104 and the third weft yarn 304 use 300D / 288F recycled physical method polyester lightweight web stretch textured yarn 200T / MZ yarn; the second weft yarn 204 and the fourth weft yarn 404 use 75D / 36F recycled physical method polyester loose-wrapped 75D, 3.2 times polyolefin elastic fiber spandex yarn. The first warp yarn 500 has a high single filament count of 96F, which, combined with the 3.2 times spandex elasticity, ensures high elasticity in the plain weave structure. The shrinkage capacity and polyester covering structure maintain the stability of the fabric dimensions. The first weft yarn 104 and the third weft yarn 304 have an ultra-high monofilament count of 288F, which, combined with the lightweight web stretch textured yarn structure, form a low-elasticity, highly flexible float yarn. The second weft yarn 204 and the fourth weft yarn 404 have a moderate monofilament count of 36F and a spandex empty-wrapped structure, which ensures a tight interlacing density when shrinking in conjunction with the first warp yarn 500. This ensures that the first face 600 is stiff and abrasion-resistant while maximizing the softness and moisture absorption of the second face 700, significantly improving the wearing comfort, durability and functionality of workwear, and meeting the multi-dimensional needs of workwear scenarios.

[0034] It should be emphasized that the above-mentioned polyolefin elastic fiber spandex, as well as the first warp yarn of 500 machine-wrapped yarn with 550 twist and Z-twist direction, and the second weft yarn of 204 and the fourth weft yarn of 404 are used in an unwrapped manner without twisting, to meet the tooling requirements for the first surface of 600 abrasion resistance and elastic strength. Its abrasion resistance can reach ≥25,000 revolutions with Cordura and Martindale abrasion resistance, which is higher than the 15,000 revolutions that the existing technology can achieve. The breaking strength in both the warp and weft directions can be greater than 800N, which is higher than the breaking strength of ≥450N in the existing technology.

[0035] The specific manufacturing process of this high-wear-resistant and high-strength woven fabric is as follows: Fabric preparation: The fabric is processed by the fabric preparation machine so that it enters the main machine at a speed of 20 to 80 m / min in a flat, centered, and low-tension state, thereby avoiding wrinkles, weft skew, uneven tension, etc.

[0036] Condensation: Degreasing and dewaxing are carried out using a condensation mill, during which degreasing agents and chelating dispersants are added.

[0037] Desizing: A loose desizing machine is used to remove sizing agents, oils and impurities from the fabric without stretching, providing a uniform, low-shrinkage and high-penetration greige fabric for subsequent dyeing and setting processes.

[0038] Pre-setting: The pre-setting machine stabilizes the fabric width, hand feel, and function, relaxes the fiber molecular chain segments, increases crystallinity, and improves dyeability. The pre-setting temperature is set to 190 to 200°C, and the time is set to 15 to 25 seconds, preferably 195°C, so that the elasticity of the polyolefin elastic fiber spandex is stimulated and the fabric size stability is maintained.

[0039] Dyeing: The fabric is dyed using an overflow dyeing machine, which disperses the dye.

[0040] Drying: A tension-free dryer is used to dry the fabric in a state of zero elongation and no tension. The drying time is 5 to 40 m / min and the temperature is 110 to 160 °C to maintain the elasticity of the polyolefin elastic fiber spandex and the dimensional stability of the fabric.

[0041] Setting: When the fabric passes through the oven, it will be dried and set under the action of high temperature hot air. After setting, the fabric has a good hand feel and stable dimensions. The setting temperature is set to 140 to 160℃, 30m / min. Setting at this temperature can maintain the hand feel and physical properties of the fabric.

[0042] This invention relates to a high-wear-resistant and high-strength woven fabric using recycled yarn, which has environmental advantages. Recycled yarn has poorer physical properties than virgin yarn, and the aforementioned woven structure achieves a balance between environmental protection and wear resistance. Furthermore, a fluorine-free waterproofing agent is added during the finishing process. Leveraging the safety, compliance, environmental friendliness, biodegradability, process-friendly nature, and cost-effectiveness of this agent, the fabric achieves a waterproof rating of 4.5 or higher, maintaining a rating of 3.5 or higher after five washes. Considering wear characteristics, the fabric's anti-snagging performance also reaches a rating of 4.

[0043] The terms “above,” “below,” and “within” as used above include the number itself; the terms “exceeding” and “excluding” do not include the number itself.

[0044] The present invention has been further described above with reference to specific embodiments. However, it should be understood that the specific description herein should not be construed as limiting the substance and scope of the present invention. Various modifications made to the above embodiments by those skilled in the art after reading this specification are all within the scope of protection of the present invention. The various specific technical features described in the above embodiments can be combined in any suitable manner without contradiction. To avoid unnecessary repetition, the embodiments of the present invention will not further describe various possible combinations.

[0045] If the embodiments of this utility model involve directional indicators (such as up, down, left, right, front, back, etc.), the directional indicators are only used to explain the relative positional relationship and movement of each component in a certain specific posture (as shown in the figure). If the specific posture changes, the directional indicators will also change accordingly.

Claims

1. A high abrasion high strength woven fabric having a face and a back, characterized in that, The fabric includes multiple weave cycles, each including a second weave and a first weave connected to one side of the second weave. The first weave includes a first warp and a first weft, and the second weave includes a first warp and a second weft. The elasticity of the first warp and the second weft is greater than that of the first weft. The first warp and the second weft are tightly interwoven to form a tight structure on the surface side of the fabric. The first weft floats on the inside side of the fabric above the first warp to form a first float. The first float is squeezed and contracted by the adjacent second weave and then floats on the second weave. Multiple first floats are arranged side by side to form a loose structure on the inside of the fabric.

2. The high abrasion high strength woven fabric of claim 1, wherein, The weave cycle also includes a third and a fourth weave connected sequentially on the other side of the second weave. The third weave includes a first warp and a third weft, and the fourth weave includes a first warp and a fourth weft. The elasticity of the fourth weft is greater than that of the third weft. The third weft floats on the inside side of the fabric above the first warp to form a second float. The first warp and the fourth weft are tightly interwoven to form a tight structure on the surface side of the fabric. The second float and the first float are staggered in the warp direction. Multiple first floats and multiple second floats together constitute a loose structure inside the fabric.

3. The high abrasion high strength woven fabric of claim 2, wherein, Both the second and fourth weaves are plain weaves. The first weave has a first warp weave point, and the third weave has a second warp weave point. In the warp direction, the first warp weave point corresponds to the middle area of ​​the second float, and the second warp weave point corresponds to the middle area of ​​the first float.

4. The high abrasion high strength woven fabric of claim 2 or 3, wherein, In one weft cycle, the ratio of the first weft yarn to the second weft yarn is 1:2 or 1:3, and the ratio of the third weft yarn to the fourth weft yarn is 1:2 or 1:

3.

5. The high abrasion high strength woven fabric of claim 4, wherein, In a weave cycle, the first weave includes one first weft yarn, the second weave includes two second weft yarns, the third weave includes one third weft yarn, and the fourth weave includes two fourth weft yarns.

6. The high abrasion high strength woven fabric of claim 2 or 3, wherein, Both the first and second floats float on 5 to 7 of the first warp yarns.

7. The high abrasion high strength woven fabric of claim 6, wherein, Both the first and second floats float on the 7 first warp yarns.

8. The high abrasion high strength woven fabric of claim 2 or 3, wherein, The first warp, second weft, and fourth weft yarns are all made of polyolefin elastic fiber spandex, while the first and third weft yarns are made of polyester.

9. The high abrasion high strength woven fabric of claim 8, wherein, The first warp, second weft, and fourth weft yarns are all made of polyolefin elastic fiber spandex that has undergone a pre-treatment process at a temperature of 190 to 200°C for 15 to 25 seconds.

10. The high abrasion-resistant and high-strength woven fabric as described in claim 9, characterized in that, The first warp yarn is made of 150D / 96F recycled physical method polyester machine-wrapped 75D, 3.2 times polyolefin elastic fiber spandex 550T / MZ yarn. The first and third weft yarns are made of 300D / 288F recycled physical method polyester lightweight web stretch textured yarn 200T / MZ yarn. The second and fourth weft yarns are made of 75D / 36F recycled physical method polyester empty-wrapped 75D, 3.2 times polyolefin elastic fiber spandex yarn.

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