High-strength and high-air-permeability woven fabric and vamp with high-strength and high-air-permeability woven fabric

Abstract

The utility model provides a high strength high air permeability tatting fabric and a vamp with the fabric, including the fabric body, the fabric body includes a plurality of weft yarn and a plurality of warp yarn groups interwoven with the weft yarn, the warp yarn group includes the cross warp and four ground warp, the cross warp is woven with the ground warp, and the cross warp is woven with the ground warp. The doup warps comprise a first doup warp, a second doup warp, a third doup warp and a fourth doup warp, the four ground warps extend in the direction perpendicular to the extending direction of the weft yarns and float upwards to penetrate through the odd-numbered weft yarns, and the four ground warps extend in the direction perpendicular to the extending direction of the weft yarns and sink to penetrate through the even-numbered weft yarns; the first doup warp, the second doup warp, the third doup warp and the fourth doup warp are respectively wound on the plurality of weft yarns from two sides of the ground warp, and the first doup warp, the second doup warp and the ground warp are wound on the plurality of weft yarns in opposite directions.

Description

Technical Field

[0001] This utility model relates to the field of fabric technology, specifically to a high-strength, highly breathable woven fabric and a shoe upper made of the fabric. Background Technology

[0002] Woven fabrics are fabrics made by interlacing two or more sets of mutually perpendicular yarns (i.e., warp and weft yarns) according to a specific weaving pattern. The basic structural unit is the interlacing point of the warp and weft yarns. They have the characteristics of stable structure, flat surface, firmness, crispness, and resistance to deformation. They are also not easy to unravel and the edges are not easy to curl. After the fabric is formed, its appearance and function can be significantly changed through finishing. They are widely used in various clothing and footwear fields.

[0003] While the aforementioned existing technologies can solve the corresponding technical problems, they still have certain drawbacks: existing woven fabrics typically use one skein warp and one ground warp, wound and woven along the weft direction to form a basic wound weave structure. By arranging multiple such structures along the weft, a woven fabric can be constructed. However, since each wound weave unit consists of only one skein warp and one ground warp, its tensile strength is relatively weak, and it is prone to deformation under large surface forces. At the same time, due to the simple yarn structure, individual yarns are prone to breakage when encountering friction, resulting in poor fabric durability in harsh usage environments. Especially when used in shoe uppers, its deformation restraint is limited, and its protective performance is insufficient; in addition, the fabric surface is relatively flat, lacking three-dimensionality, and the visual effect is also relatively monotonous. Utility Model Content

[0004] The purpose of this invention is to address the shortcomings and deficiencies of the existing technology by providing a durable, three-dimensional, high-strength, and highly breathable woven fabric, as well as a shoe upper made of the fabric.

[0005] To achieve the above objectives, the present invention adopts the following technical solution: a high-strength, high-breathability woven fabric, comprising a fabric body, the fabric body comprising a plurality of weft yarns and a plurality of warp yarn groups woven with the weft yarns, the warp yarn groups comprising skein warps and four ground warps, the skein warps comprising a first skein warp, a second skein warp, a third skein warp, and a fourth skein warp, the four ground warps extending perpendicular to the weft yarn extension direction and rising above and passing through the odd-numbered weft yarns, the four ground warps extending perpendicular to the weft yarn extension direction and sinking below and passing through the even-numbered weft yarns, the first skein warp, the second skein warp, the third skein warp, and the fourth skein warp... The warp threads are wound around several weft yarns from both sides of the ground warp. The first and second warp threads are wound around several weft yarns in the opposite direction to the ground warp. The first and second warp threads extend at an angle towards the ground warp at the interval between every two weft yarns. The third and fourth warp threads are wound around several weft yarns in the same direction as the ground warp. The third and fourth warp threads extend at an angle towards the ground warp at the interval between every two weft yarns. A section of the ground warp between every two weft yarns interweaves and twists with a section of the first, second, third, and fourth warp threads.

[0006] A further improvement is that the first, second, third, and fourth twisted warps intersect and intertwine with the four ground warps to form a three-dimensional protrusion, and the fabric body forms ventilation holes on both sides of the three-dimensional protrusion.

[0007] A further improvement is that the ground warp is made of TPEE yarn.

[0008] A further improvement is that the first, second, third, and fourth warps are made of TPU yarn.

[0009] A further improvement is that the weft yarn is composed of several elastic or non-elastic yarns.

[0010] A further improvement is that the weft yarn surface is provided with a hot-melt coating.

[0011] To achieve the above objectives, the present invention may also adopt the following technical solution: a shoe upper, comprising a shoe upper body, wherein the shoe upper body is cut and formed using a high-strength and high-breathability woven fabric as described above, and wherein a plurality of jacquard reinforcing blocks are formed on the shoe upper body by a jacquard process, wherein the jacquard reinforcing blocks are composed of a plurality of leaf-shaped jacquard blocks evenly distributed around each other.

[0012] A further improvement is that the upper body is also formed with reinforcing protrusions through a jacquard process at the position between the jacquard reinforcing blocks.

[0013] The beneficial effects of this utility model after adopting the above technical solution are as follows: This utility model uses weft yarns to work with the first, second, third, and fourth twisted warps to twist into the four ground warps from both sides, and they intertwine and wrap around each other. This creates a higher three-dimensional protrusion at the position where the weft yarns intertwine with the ground warps, twisted warps, and ground warps, thereby making the woven fabric more three-dimensional. At the same time, the first, second, third, and fourth twisted warps twist and shrink with the four ground warps, and the twisted positions overlap each other, resulting in high connection strength. At the same time, larger diameter pores are generated on both sides of the twisted positions, achieving better breathability. Furthermore, the warp yarn group composed of the four ground warps and the four twisted warps has higher tensile strength and abrasion resistance. It is not easy to completely break and disintegrate when subjected to friction. When subjected to surface force, it has higher strength and less deformation, which not only improves the service life but also enhances the wrapping effect and provides better protection when used in shoe uppers. Attached Figure Description

[0014] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0015] Figure 1 This is a schematic diagram of the weaving structure of the woven fabric portion of this utility model;

[0016] Figure 2 This is a schematic diagram of the structure of the shoe upper after it is unfolded. Detailed Implementation

[0017] The present invention will now be further described in conjunction with the accompanying drawings and specific embodiments.

[0018] See Figure 1-2As shown, the technical solution adopted in this specific embodiment is: a high-strength and highly breathable woven fabric, including a fabric body, the fabric body including a plurality of weft yarns 1 and a plurality of warp yarn groups woven with the weft yarns 1, the warp yarn groups including skein warps and four ground warps 2, the skein warps including a first skein warp 31, a second skein warp 32, a third skein warp 33 and a fourth skein warp 34, the four ground warps 2 extending perpendicular to the extension direction of the weft yarns 1 and floating upward through the odd-numbered weft yarns 1, the four ground warps 2 extending perpendicular to the extension direction of the weft yarns 1 Extending and sinking through the even-numbered weft yarn 1, the first twist warp 31, the second twist warp 32, the third twist warp 33, and the fourth twist warp 34 are respectively wound around several weft yarns 1 from both sides of the ground warp 2. The first twist warp 31 and the second twist warp 32 are wound around several weft yarns 1 in the opposite direction to the ground warp 2. The first twist warp 31 and the second twist warp 32 extend obliquely towards the ground warp 2 at the interval between every two weft yarns 1. The third twist warp 33 and the fourth twist warp 34 are wound around several weft yarns in the same direction as the ground warp 2. On the 1st warp, the third twist warp 33 and the fourth twist warp 34 extend obliquely towards the ground warp 2 at the intervals between every two weft yarns 1. A section of ground warp 2 between every two weft yarns 1 interweaves and twists with a section of the first twist warp 31, a section of the second twist warp 32, a section of the third twist warp 33, and a section of the fourth twist warp 34. In this embodiment, there can be several weft yarns 1, and each warp group has four twist warps: the first twist warp 31, the second twist warp 32, the third twist warp 33, and the fourth twist warp 34. The ground warp... 2. There are four ground warp threads 2. The ground warp 2 rises vertically downwards along the surface of the first weft yarn 1 and sinks at the position of the next weft yarn 1, continuing to extend vertically downwards along the surface of the weft yarn 1. This process is repeated, thus passing through multiple weft yarns 1. Specifically, at odd-numbered weft yarns, such as the 1st, 3rd, 5th... weft yarns, the ground warp 2 is above that weft yarn 1, i.e., it rises; at the next even-numbered weft yarns, such as the 2nd, 4th, 6th... weft yarns, the ground warp 2 passes below that weft yarn 1, i.e., it sinks. This pattern repeats cyclically during the weaving process. Therefore, on the projection plane perpendicular to the fabric surface, the paths of the four ground warp threads 2 form a regular wavy shape and are parallel to each other.

[0019] Subsequently, the first twisted warp 31 and the second twisted warp 32, as the first twisted warp group, are woven in from the side of the ground warp 2, and the weaving surface is in the opposite direction to the ground warp 2, that is, they are woven in downward relative to the first weft yarn 1. After passing the first weft yarn 1, when they reach the middle interval between the first weft yarn 1 and the next weft yarn 1, they extend obliquely towards the ground warp 2 and the first twisted warp 31 and the second twisted warp 32 float upward. Even though the first twisted warp 31 and the second twisted warp 32 are above the ground warp 2, they are woven together with the upper surface of the ground warp 2. Then they continue to extend downward. In the interval area between the second and third weft yarns 1, the above-mentioned oblique movement and cross-wrapping action are repeated, but in the opposite direction, that is, they pass through the second weft yarn 1 from above and the ground warp 2 from below, and then come to the bottom of the third weft yarn 1. This cycle is repeated, thus forming the effect of the first twisted warp group formed by the first twisted warp 31 and the second twisted warp 32 being woven into the ground warp 2.

[0020] The third warp 33 and the fourth warp 34, as the second warp group, are woven vertically downwards from the other side of the ground warp 2, along the surface of the first weft yarn 1. The weaving surface is in the same direction as the ground warp 2, meaning they are woven upwards relative to the first weft yarn 1. After passing the first weft yarn 1, when they reach the midpoint between the first and next weft yarn 1, they extend towards the ground warp 2 and sink the third warp 33 and the fourth warp 34 downwards, so that the third warp 33 and the fourth warp 34 are located below the ground warp 2, aligning with the ground warp... 2. The bottom surface is wound and twisted, and the first twisted warp 31, the second twisted warp 32, the third twisted warp 33, and the fourth twisted warp 34 are intertwined in a cross shape. Then, it continues to extend downward. In the area between the second and third weft yarns 1, the above-mentioned tilting movement and cross-wrapping action are repeated, but in the opposite direction, that is, passing under the second weft yarn 1 and passing over the ground warp 2, and then coming to the top of the third weft yarn 1. This cycle is repeated, so as to form the effect of the second twisted warp group formed by the third twisted warp 33 and the fourth twisted warp 34 being twisted into the ground warp 2.

[0021] Specifically, the first twisted warp group formed by the first twisted warp 31 and the second twisted warp 32, and the second twisted warp group formed by the third twisted warp 33 and the fourth twisted warp 34, intersect each other in the middle position of the four earth meridians 2 within the interval area, and each completes one loop around the four earth meridians 2. This three lines, namely the first twisted warp group, the second twisted warp group, and the four earth meridians as a whole, intersect, wrap around and twist together in space, forming a tight four-twisted four-dimensional twisted weaving node.

[0022] Repeat the above weaving steps to twist and weave the first warp 31, the second warp 32, the third warp 33, the fourth warp 34 with the four ground warps 2 and the weft yarns 1. By twisting and combining multiple warp yarn groups between several weft yarns 1, the fabric body can be formed. The first warp 31, the second warp 32, the third warp 33, the fourth warp 34 and the four ground warps 2 twist and shrink with each other. The twisted positions overlap each other, resulting in high connection strength. At the same time, larger diameter pores are generated on both sides of the twisted positions to achieve better breathability. The warp yarn group composed of the four ground warps 2 and the four twisted warps has higher tensile strength and abrasion resistance. It is not easy to completely break and disintegrate when subjected to friction. When subjected to surface force, it has high strength and small deformation, which not only improves the service life, but also has stronger wrapping and better protection when used in shoe uppers.

[0023] To clearly describe the weaving method, the weaving direction is defined as from top to bottom, with weft yarns 1 arranged horizontally and numbered as the 1st, 2nd, 3rd...Nth yarns. "Floating" of ground warp 2 and twist warp means passing over the weft yarn, "sinking" means passing under the weft yarn, and "winding" means that the yarn is spirally coiled around another yarn or yarn group.

[0024] The first twist warp 31, the second twist warp 32, the third twist warp 33, and the fourth twist warp 34 intersect and intertwine with the four ground warp 2 to form a three-dimensional protrusion 5. The fabric body forms ventilation holes 4 on both sides of the three-dimensional protrusion 5. Specifically, due to the crossing and wrapping of the yarns at the aforementioned weaving nodes, the yarn bundles at that location—namely, the four ground warp 2 and the first twist warp 31, the second twist warp 32, the third twist warp 33, and the fourth twist warp 34 wrapped around them—are forced to accumulate and bulge in a direction perpendicular to the fabric plane, thereby forming regular three-dimensional protrusions 5 on the fabric surface. Simultaneously, due to the first twist warp 3... 1. When the second twisted warp 32, the third twisted warp 33, and the fourth twisted warp 34 are twisted in, they move from both sides of the ground warp 2 toward the middle and cross. In the area between the twisted warp nodes, gaps will naturally form between the ground warp 2 and the twisted warps on both sides. With the fixing effect of the weft yarn 1 on the warp yarn group, these gaps are stably maintained, thus forming microscopic ventilation holes 4 on both sides of the three-dimensional protrusion 5 on the fabric. The three-dimensional protrusion 5 enhances the three-dimensionality of the fabric surface, while the ventilation holes 4 enhance the breathability, so that the fabric can fully dissipate the heat when wearing it while having a three-dimensional aesthetic.

[0025] The ground warp 2 is TPEE yarn with a fineness of 150D to 300D, a breaking strength of ≥4.5cN / dtex, and a heat shrinkage rate of ≤5% (180℃×10min). Its excellent elasticity and recovery properties enable it to provide the necessary support and maintain its shape when forming the three-dimensional protrusions 5. At the same time, it can rebound well after the fabric is stretched, which enhances the durability and fit of the fabric.

[0026] The first sliver 31, the second sliver 32, the third sliver 33, and the fourth sliver 34 are TPU yarns with a fineness of 75D to 150D, a breaking elongation of 20% to 40%, and an initial modulus ≥20cN / dtex. They have high abrasion resistance and strength, and can withstand repeated friction and interlacing stress during the weaving process, significantly improving the firmness of the weaving nodes and the overall tensile and abrasion resistance of the fabric.

[0027] The weft yarn 1 is composed of several elastic or non-elastic yarns. The elastic yarn is spandex-covered yarn with a spandex core yarn fineness of 20D to 70D and an outer covering yarn of polyester or nylon filament. The non-elastic yarn is polyester industrial yarn or nylon 66 filament with a fineness of 200D to 600D. When using elastic yarn, the elasticity of the fabric can be significantly improved, making the fabric more skin-friendly and reducing the feeling of restriction when wearing it. When using non-elastic yarn, the strength of the fabric can be effectively improved, further enhancing its tensile strength.

[0028] The weft yarn 1 has a hot melt coating on its surface. The hot melt coating is a hot melt adhesive powder coating. The hot melt adhesive powder is selected from copolyamide (PA) or copolyester (PES) hot melt adhesive with a melting point of 90℃~120℃. It is uniformly attached to the weft yarn surface by powdering or impregnation. The coating amount is controlled at 5~15g / m². After weaving and forming, the coating is heated to melt and bond the contact points of adjacent warp and weft yarns, thereby improving the structural stability and anti-unraveling ability of the fabric.

[0029] The fabric formed through the above steps and processes has the characteristics of large air-permeable pores and good breathability. At the same time, the intertwining of multiple yarns brings extremely high abrasion resistance and deformation resistance. Therefore, this fabric is very suitable for the manufacture of various outdoor products, such as the uppers of outdoor shoes, outdoor backpacks, clothing, etc.

[0030] This application also provides a shoe upper, including a shoe upper body 10. The shoe upper body 10 is cut and formed from a high-strength and highly breathable woven fabric as described above. Several jacquard reinforcing blocks 20 are formed on the shoe upper body 10 by a jacquard process. The jacquard reinforcing blocks 20 are composed of several leaf-shaped jacquard blocks 201 that are evenly distributed around the center. There are four leaf-shaped jacquard blocks 201, which are evenly distributed radially around the center. The overall diameter of the jacquard reinforcing blocks 20 is 8-15mm. This is beneficial to further improve the strength of the shoe upper through the jacquard reinforcing blocks 20. At the same time, the leaf-shaped jacquard blocks 201 can significantly improve the aesthetics of the shoe upper and make the shoe upper more beautiful.

[0031] The upper body 10 is also formed with reinforcing protrusions 30 through jacquard process at the position between the jacquard reinforcing blocks 20. The reinforcing protrusions 30 are elliptical protrusions with a diameter of 2-4 mm and a height of 1-2 mm. The spacing between adjacent reinforcing protrusions 30 is 5-10 mm, which helps to further improve the deformation resistance of the upper body 10 and improve its scratch resistance.

[0032] The woven fabric is woven on a rapier loom or an air-jet loom at a speed of 350–500 rpm. The warp tension is controlled at 20–30 cN, and the weft tension at 15–25 cN. The weaving environment temperature is 20–28°C, and the relative humidity is 65%–75%. After weaving, the fabric is heat-set at 180–200°C for 30–60 seconds to melt the hot-melt coating and bond it to the yarn interlacing points, while simultaneously eliminating internal stress.

[0033] The forming process of the shoe upper is as follows: First, the fabric is cut according to the preset shoe upper pattern using a CNC cutting machine to obtain the shoe upper body 10; then, the shoe upper body 10 is placed on the jacquard machine worktable, and the jacquard needle is controlled by the jacquard head to form jacquard reinforcing blocks 20 and reinforcing protrusions 30 at designated positions; the jacquard shoe upper is hot-pressed and shaped in a hot press at a temperature of 110-130℃ and a pressure of 0.2-0.4MPa for 15-25 seconds to stabilize the jacquard shape and enhance the three-dimensional effect; finally, the edges are trimmed to obtain the finished shoe upper.

[0034] The working principle of this invention is as follows: During fabric formation, the ground warp 2 rises vertically downwards along the surface of the first weft yarn 1 and sinks at the position of the next weft yarn 1, continuing to extend vertically downwards along the surface of the weft yarn 1. This process is repeated, thus repeatedly passing through multiple weft yarns 1. Specifically, at odd-numbered weft yarns, such as the 1st, 3rd, 5th... positions, the ground warp 2 is above that weft yarn 1, i.e., rising; at the next even-numbered weft yarns, such as the 2nd, 4th, 6th... positions, the ground warp 2 passes below that weft yarn 1, i.e., sinking. This pattern repeats cyclically during the weaving process. Therefore, on the projection plane perpendicular to the fabric surface, the paths of the four ground warp 2 form a regular wavy shape and are parallel to each other.

[0035] Subsequently, the first twisted warp 31 and the second twisted warp 32, as the first twisted warp group, are woven in from the side of the ground warp 2, and the weaving surface is in the opposite direction to the ground warp 2, that is, they are woven in downward relative to the first weft yarn 1. After passing the first weft yarn 1, when they reach the middle interval between the first weft yarn 1 and the next weft yarn 1, they extend obliquely towards the ground warp 2 and the first twisted warp 31 and the second twisted warp 32 float upward. Even though the first twisted warp 31 and the second twisted warp 32 are above the ground warp 2, they are woven together with the upper surface of the ground warp 2. Then they continue to extend downward. In the interval area between the second and third weft yarns 1, the above-mentioned oblique movement and cross-wrapping action are repeated, but in the opposite direction, that is, they pass through the second weft yarn 1 from above and the ground warp 2 from below, and then come to the bottom of the third weft yarn 1. This cycle is repeated, thus forming the effect of the first twisted warp group formed by the first twisted warp 31 and the second twisted warp 32 being woven into the ground warp 2.

[0036] The third warp 33 and the fourth warp 34, as the second warp group, are woven vertically downwards from the other side of the ground warp 2, along the surface of the first weft yarn 1. The weaving surface is in the same direction as the ground warp 2, meaning they are woven upwards relative to the first weft yarn 1. After passing the first weft yarn 1, when they reach the midpoint between the first and next weft yarn 1, they extend towards the ground warp 2 and sink the third warp 33 and the fourth warp 34 downwards, so that the third warp 33 and the fourth warp 34 are located below the ground warp 2, aligning with the ground warp... 2. The bottom surface is wound and twisted, and the first twisted warp 31, the second twisted warp 32, the third twisted warp 33, and the fourth twisted warp 34 are intertwined in a cross shape. Then, it continues to extend downward. In the area between the second and third weft yarns 1, the above-mentioned tilting movement and cross-wrapping action are repeated, but in the opposite direction, that is, passing under the second weft yarn 1 and passing over the ground warp 2, and then coming to the top of the third weft yarn 1. This cycle is repeated, so as to form the effect of the second twisted warp group formed by the third twisted warp 33 and the fourth twisted warp 34 being twisted into the ground warp 2.

[0037] Specifically, the first twisted warp group formed by the first twisted warp 31 and the second twisted warp 32, and the second twisted warp group formed by the third twisted warp 33 and the fourth twisted warp 34, intersect each other in the middle position of the four earth meridians 2 within the interval area, and each completes one loop around the four earth meridians 2. This three lines, namely the first twisted warp group, the second twisted warp group, and the four earth meridians as a whole, intersect, wrap around and twist together in space, forming a tight four-twisted four-dimensional twisted weaving node.

[0038] Repeat the above weaving steps to twist and weave the first warp 31, second warp 32, third warp 33, fourth warp 34 with the four ground warps 2 and the weft yarns 1. By twisting and combining multiple warp yarn groups between several weft yarns 1, the fabric body is formed. The first warp 31, second warp 32, third warp 33, fourth warp 34 and the four ground warps 2 twist and shrink with each other, and the twisted positions overlap each other, resulting in high connection strength. At the same time, larger diameter pores are generated on both sides of the twisted positions to achieve better breathability. The warp yarn group composed of the four ground warps 2 and the four twisted warps has higher tensile strength and abrasion resistance. It is not easy to completely break and disintegrate when subjected to friction. When subjected to surface force, it has high strength and small deformation, which not only improves the service life, but also has stronger wrapping and better protection when used in shoe uppers.

[0039] This utility model aims to protect the structure of the product. The model numbers of the components are not the focus of this utility model's protection, as they are common technology. Any component on the market that can achieve the functions described above can be used as an option. Therefore, the model numbers and other parameters of the components are not described in detail in this utility model. The contribution of this utility model lies in the scientific combination of the various components.

[0040] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions provided are merely illustrative of the principles of this utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope, and all such changes and modifications fall within the scope of protection of this utility model as defined by the appended claims and their equivalents. Any aspects of this utility model not detailed herein are well-known to those skilled in the art.

Claims

1. A high-strength, highly breathable woven fabric, comprising a fabric body, characterized in that: The fabric body includes several weft yarns (1) and several warp yarn groups woven with the weft yarns (1). The warp yarn groups include skein warps and four ground warps (2). The skein warps include a first skein warp (31), a second skein warp (32), a third skein warp (33), and a fourth skein warp (34). The four ground warps (2) extend perpendicularly to the extension direction of the weft yarns (1) and float upwards through the odd-numbered weft yarns (1). The four ground warps (2) extend perpendicularly to the extension direction of the weft yarns (1) and sink downwards through the even-numbered weft yarns (1). The first skein warp (31), the second skein warp (32), the third skein warp (33), and the fourth skein warp (34) are respectively wound around the several weft yarns (1) from both sides of the ground warp (2). The first skein warp (31) The second twisted warp (32) is wound around several weft yarns (1) in opposite directions to the ground warp (2). The first twisted warp (31) and the second twisted warp (32) extend obliquely toward the ground warp (2) at the interval between every two weft yarns (1). The third twisted warp (33) and the fourth twisted warp (34) are wound around several weft yarns (1) in the same direction as the ground warp (2). The third twisted warp (33) and the fourth twisted warp (34) extend obliquely toward the ground warp (2) at the interval between every two weft yarns (1). A section of ground warp (2) between every two weft yarns (1) is interwoven with a section of the first twisted warp (31), a section of the second twisted warp (32), a section of the third twisted warp (33), and a section of the fourth twisted warp (34).

2. The high-strength, high-breathability woven fabric according to claim 1, characterized in that: The first twisted warp (31), the second twisted warp (32), the third twisted warp (33), the fourth twisted warp (34) and the four ground warps (2) intersect and intertwine to form a three-dimensional protrusion (5), and the fabric body forms ventilation holes (4) on both sides of the three-dimensional protrusion (5).

3. A high-strength, high-breathability woven fabric according to claim 1 or 2, characterized in that: The ground diameter (2) is TPEE yarn.

4. A high-strength, high-breathability woven fabric according to claim 1 or 2, characterized in that: The first twisted warp (31), the second twisted warp (32), the third twisted warp (33), and the fourth twisted warp (34) are TPU yarns.

5. The high-strength, high-breathability woven fabric according to claim 1, characterized in that: The weft yarn (1) is composed of several elastic yarns or non-elastic yarns.

6. A high-strength, high-breathability woven fabric according to claim 1 or 5, characterized in that: The weft yarn (1) has a hot melt coating on its surface.

7. A shoe upper, characterized in that: The shoe includes an upper body (10), which is cut and formed using a high-strength and high-breathability woven fabric as described in any one of claims 1-6. The upper body (10) has a plurality of jacquard reinforcing blocks (20) formed by jacquard process. The jacquard reinforcing blocks (20) are composed of a plurality of leaf-shaped jacquard blocks (201) evenly distributed around each other.

8. The shoe upper according to claim 7, characterized in that: The upper body (10) is also formed with reinforcing protrusions (30) by jacquard process at the position between the jacquard reinforcing blocks (20).

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