High-strength hoisting woven belt and production process thereof

Abstract

The invention relates to the technical field of high-strength hoisting woven belts and production processes thereof, in particular to a high-strength hoisting woven belt and a production process thereof.The high-strength hoisting woven belt comprises a woven belt body, the woven belt body comprises a plurality of first woven belts and second woven belts, and the first woven belts and the second woven belts are fixedly sewn in sequence; a plurality of bent faces are arranged on one side face of each first braid and one side face of each second braid, a buckle is fixedly connected between every two adjacent bent faces on each first braid or each second braid, a plurality of friction faces are arranged on the inner side face of each first braid or each second braid, and each friction face is arranged on one side of the corresponding bent face. The buckles are used for tightly abutting two friction faces with the parallel surfaces, the bent face of the first woven belt is flush with the buckles on the adjacent second woven belt, and a plurality of connecting belts are fixedly connected to the woven belt body. According to the technical scheme, the tensile property and the strength of the woven belt body are improved, and the service life of the woven belt is further prolonged.

Description

Technical Field

[0001] The invention relates to the technical field of a high-strength lifting braided belt and a production process thereof, and specifically, to a high-strength lifting braided belt and a production process thereof. Background Art

[0002] Lifting braid is an important lifting tool widely used in the fields of industry and logistics. Due to its lightness, flexibility and high strength, the braid is an ideal choice for lifting heavy objects. It is mainly made of synthetic fibers such as polyester or nylon, with excellent tensile strength and wear resistance. During the production process, the materials of the lifting braid are strictly screened to ensure that it can bear great weight and withstand the influence of harsh environments. Through the fine weaving process, the structure of the belt is enhanced, providing good safety and stability. The use scenarios of lifting braid are very wide. It is often used in construction sites, manufacturing, warehousing and logistics, etc., which can effectively improve the handling efficiency. Whether it is lifting large machinery and equipment, building materials, or transporting heavy goods, the braid can provide reliable support. In addition, due to its light weight and easy operation, workers are also safer when using it. Due to its durability and reusability, the lifting braid not only reduces operating costs, but also helps to reduce environmental impact. With the advancement of technology, modern lifting braids are constantly innovating in design and materials, further improving their performance and safety, and meeting the growing industrial needs.

[0003] The existing braided belts are generally woven by a braiding machine, and the ductility and tensile strength of the braided belts are adjusted by improving the warp and weft lines of the braiding. That is to say, when the braided belt is subjected to a pulling force, the tensile force is resisted by the staggered warp and weft lines. When this tensile-resistant structure is used in industrial lifting operations, the braided belt will be subjected to a large pulling force. Relying solely on this structure will cause the braided belt to break suddenly during use, which will greatly reduce the service life of the braided belt. Summary of the invention

[0004] The present invention provides a high-strength lifting braided belt, which improves the tensile resistance and strength of the braided belt body, thereby increasing the service life of the braided belt.

[0005] The technical solution of the present invention is as follows: A high-strength lifting braided belt, comprising a braided belt body; The braided belt body comprises a plurality of first braids and a second braid, each of which is fixedly sewn in sequence, a plurality of curved surfaces are provided on one side of each first braid and each second braid, a buckle is fixedly connected between two adjacent curved surfaces on each first braid or each second braid, a plurality of friction surfaces are provided on the inner side of each first braid or each second braid, each friction surface is provided on one side of the curved surface, and the buckle is used to tightly abut the two parallel friction surfaces; The curved surface of the first webbing is flush with the buckle on the adjacent second webbing; A plurality of connecting belts are fixedly connected to the braided belt body, and two ends of each connecting belt are respectively fixedly connected to the buckle side surfaces which are flush with the two side edges.

[0006] Furthermore, two ends of the braided belt body are rotatably connected with receiving rings respectively, and two connecting rings are rotatably connected to the braided belt body, and elastic fabric is fixedly wrapped between each connecting ring and the adjacent receiving ring.

[0007] The beneficial effects of the present invention are: When the braided belt body is subjected to an action force, the action force pulls the braided belt body to one side, and this pulling force is dispersed and offset by the tightly abutting friction surfaces between the several curved surfaces. The connection between these friction surfaces reduces the damage to the braided belt body caused by the pulling force, so that the braided belt body can withstand the action force, and when the pulling force cannot move the several friction surfaces, the several curved surfaces are not actually subjected to excessive pulling force, and thus will not be deformed or damaged. When the pulling force moves a pair or several groups of friction surfaces, the curved surfaces adjacent to the friction surfaces will be straightened, so that these curved surfaces will also be included in the load of the braided belt body to cope with the pulling force, so that the braided belt body can cope with a higher pulling force, that is, the tensile resistance and strength of the braided belt body are improved, and the service life of the braided belt body is increased.

[0008] Another object of the present invention is to provide a high-strength lifting braided belt production process to improve the production efficiency of the braided belt body, facilitate workers to make the braided belt body, and reduce the difficulty of production.

[0009] The following steps are involved: S100: Material selection: High-strength polyester or nylon fiber is selected to ensure good load-bearing capacity and durability; S200: Wire drawing: Stretch the fiber material to form filaments to improve strength and toughness; S300: Weaving and manufacturing: the selected high-strength material is stretched to form filaments, the filaments are woven into a plurality of first webbings and a second webbing by a weaving device, and then the plurality of first webbings or the second webbings are put on a forming device for manufacturing; S400: Dyeing treatment: The braid is dyed to give it a bright color to increase visibility and improve UV resistance; S500: Surface treatment: anti-wear and water-repellent treatment to enhance the durability and service life of the braided belt; S600: Testing and Inspection: Conduct tensile tests and safety inspections on finished products to ensure they meet relevant standards and load-bearing requirements; S700: Packaging: Finally, the qualified lifting braids are packaged and prepared for shipment and storage.

[0010] Further, step S300 weaving production includes: S310: Put buckles on the plurality of first webbings or the second webbings, extrude curved surfaces on the plurality of first webbings or the second webbings through a forming device, and provide friction surfaces on the inner sides of the plurality of first webbings or the second webbings, then slide the plurality of buckles along the first webbings or the second webbings in sequence, so that each buckle slides between the two curved surfaces, and pressurizes the side surfaces of the buckles through a pressurizing device, so that the deformed buckles fix the plurality of curved surfaces on the first webbings or the second webbings, and the friction surfaces on both sides are in close contact with each other; S320: sequentially removing the first or second webbings that have been manufactured, sequentially fixing and sewing the first or second webbings that have been manufactured adjacent to each other, and then fixing the connecting straps to the webbing body by heat pressing on one side of the sewn webbing body; S330: Sew two receiving rings on both sides of the braided belt body, then sew two connecting rings on the side of the braided belt body away from the connecting belt, and then wrap elastic fabric around the adjacent receiving rings and connecting rings.

[0011] Another beneficial effect of the present invention is: The appearance features on the first webbing or the second webbing can be quickly processed, the production efficiency of the webbing body is improved, and the subsequent processes of the webbing body are facilitated, thereby facilitating the workers to make the webbing body and reducing the difficulty of making it. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] The present invention will be further described in detail below in conjunction with the accompanying drawings and specific embodiments.

[0013] Figure 1 It is a schematic diagram of the main axis of the braided belt body of the present invention; Figure 2 This is a partial explosion enlarged schematic diagram of the braided belt body of the present invention. Figure 1 ; Figure 3 This is a partial explosion enlarged schematic diagram of the braided belt body of the present invention. Figure 2 ; Figure 4 It is a partial enlarged schematic diagram of the braided belt body of the present invention; Figure 5 It is a schematic diagram of the positive axis of the molding device of the present invention; Figure 6 It is a partial enlarged schematic diagram of the molding device of the present invention; Figure 7 A partial explosion enlarged schematic diagram of the molding device of the present invention Figure 1 ; Figure 8 A partial explosion enlarged schematic diagram of the molding device of the present invention Figure 2 .

[0014] In the figure: 1. webbing body; 11. first webbing; 12. second webbing; 13. bending surface; 14. buckle; 15. friction surface; 16. receiving ring; 17. connecting ring; 18. elastic cloth; 19. connecting belt; 21. workbench; 22. limiting sleeve; 23. limiting column; 24. lifting plate; 241. limiting groove; 25. control console; 31. extrusion cylinder; 32. supporting sleeve; 33. first cylinder; 34. transmission seat; 35. electric soldering iron; 36. transmission plate; 37. second cylinder; 41. linkage seat; 42. tensioning column; 43. turning cylinder; 44. linkage gear; 45. linkage rack; 46. receiving seat. DETAILED DESCRIPTION

[0015] The following will be combined with the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention. Example 1

[0016] like Figure 1~Figure 5 As shown, this embodiment provides a high-strength lifting braided belt, including a braided belt body 1; The braided belt body 1 includes a plurality of first braids 11 and a second braid 12, each of which is fixedly sewn in sequence, a plurality of curved surfaces 13 are respectively provided on one side of the first braid 11 or the second braid 12, a buckle 14 is fixedly connected between two adjacent curved surfaces 13, a plurality of friction surfaces 15 are provided on the inner side surface, each friction surface 15 is provided on one side of the curved surface 13, and the buckle 14 is used to closely abut the two parallel friction surfaces 15; The curved surface 13 of the first webbing 11 is flush with the buckle 14 on the adjacent second webbing 12; A plurality of connecting straps 19 are fixedly connected to the braided strap body 1, and the two ends of each connecting strap 19 are respectively fixedly connected to the side surfaces of the buckles 14 flush with the two side edges; When the friction surfaces 15 on both sides of the first webbing 11 or the second webbing 12 abut against each other through the friction surface 15, the friction force can be increased, and then under the action of the deformed buckle 14, the friction surfaces 15 on both sides further abut against each other to maintain the formed state of the curved surface 13, and the curved surface 13 can be used as a connecting ring 17 for limiting connection. At the same time, when the braided belt body 1 is subjected to a pulling force to one side, this force can be weakened by a plurality of curved surfaces 13; When the braid body 1 is subjected to an action force, the action force pulls the braid body 1 to one side, and this pulling force is dispersed and offset by the friction surfaces 15 that are tightly abutted between the plurality of curved surfaces 13. The connection between these friction surfaces 15 reduces the damage to the braid body 1 caused by the pulling force, so that the braid body 1 can withstand the action force, and when the pulling force cannot move the plurality of friction surfaces 15, the plurality of curved surfaces 13 are not actually subjected to excessive pulling force, and thus will not be deformed or damaged. When the pulling force moves a pair or a plurality of groups of friction surfaces 15, the curved surfaces 13 adjacent to the friction surfaces 15 will be straightened, so that these curved surfaces 13 will also be put into the load of the braid body 1 to cope with the pulling force, so that the braid body 1 can cope with a higher pulling force, that is, the tensile resistance and strength of the braid body 1 are improved.

[0017] like Figure 1~Figure 5 As shown, two receiving rings 16 are rotatably connected to the two ends of the braided belt body 1, and two connecting rings 17 are rotatably connected to the braided belt body 1, and each elastic fabric 18 is fixedly wrapped between each connecting ring 17 and the adjacent receiving ring 16; Through the elastic potential energy of the elastic fabric 18 itself, the force acting on the woven belt body 1 when it is subjected to pulling force is dispersed, so that the woven belt body 1 can withstand more force, thereby improving the strength of the woven belt body 1, and when the elastic fabric 18 is damaged, it can be replaced or disassembled in time to ensure the use of the woven belt body 1. Example 2

[0018] like Figure 1 to Figure 8 As shown, this embodiment is based on Embodiment 1 and proposes a high-strength lifting braided belt production process, comprising the following steps: S100: Material selection: High-strength polyester or nylon fiber is selected to ensure good load-bearing capacity and durability; S200: Wire drawing: Stretch the fiber material to form filaments to improve strength and toughness; S300: Weaving and manufacturing: the selected high-strength material is stretched to form filaments, the filaments are woven into a plurality of first webbings 11 and second webbings 12 by a weaving device, and then the plurality of first webbings 11 or second webbings 12 are put on a forming device for manufacturing; The appearance features of the first webbing 11 or the second webbing 12 can be quickly processed, thereby improving the production efficiency of the webbing body 1 and facilitating the subsequent processes of the webbing body 1, thereby facilitating the workers to make the webbing body 1 and reducing the difficulty of making it; S400: Dyeing treatment: The braid is dyed to give it a bright color to increase visibility and improve UV resistance; S500: Surface treatment: anti-wear and water-repellent treatment to enhance the durability and service life of the braided belt; S600: Testing and Inspection: Conduct tensile tests and safety inspections on finished products to ensure they meet relevant standards and load-bearing requirements; S700: Packaging: Finally, the qualified lifting braids are packaged and prepared for shipment and storage.

[0019] like Figure 1 to Figure 8 As shown, step S300 weaving production includes: S310: Put buckles 14 on the plurality of first webbings 11 or the second webbings 12, extrude curved surfaces 13 on the plurality of first webbings 11 or the second webbings 12 through a forming device, and set friction surfaces 15 on the inner sides of the plurality of first webbings 11 or the second webbings 12, then slide the plurality of buckles 14 along the first webbings 11 or the second webbings 12 in sequence, so that each buckle 14 slides between the two curved surfaces 13, and pressurizes the side surfaces of the buckles 14 through a pressurizing device, so that the deformed buckles 14 fix the plurality of curved surfaces 13 on the first webbings 11 or the second webbings 12, and the friction surfaces 15 on both sides are in close contact; Through this step, the first webbing 11 or the second webbing 12 can be quickly processed with its own features, and the features at different positions are matched and connected in sequence through the buckle 14, so as to strengthen the function of the features, improve the strength of the first webbing 11 or the second webbing 12, and improve the production efficiency. S320: sequentially removing the first webbings 11 or the second webbings 12 that have been manufactured, sequentially fixing and sewing the first webbings 11 or the second webbings 12 in a sequentially adjacent manner, and then fixing the connecting belts 19 on one side of the sewn webbing body 1 by heat pressing; Through this step, the first webbing 11 and the second webbing 12 with increased strength are sewn in sequence, thereby increasing the overall strength of the webbing body 1. Then, through the connection of the connecting belt 19, the connection strength between the first webbing 11 and the second webbing 12 can be increased, thereby increasing the service life of the webbing body 1. S330: sewing two receiving rings 16 on both sides of the braided belt body 1, and then sewing two connecting rings 17 on the side of the braided belt body 1 away from the connecting belt 19, and then wrapping the adjacent receiving rings 16 and connecting rings 17 with elastic fabric 18; Through this step, the strength of the braid body 1 is further improved, and part of the pulling force on the braid body 1 is offset by the elastic fabric 18, thereby improving the tensile resistance of the braid body 1 itself, that is, increasing the strength of the braid body 1.

[0020] like Figure 1 to Figure 6 As shown, the forming device in the weaving production of step S300 includes a workbench 21, two limiting sleeves 22 are fixedly connected to the workbench 21, each limiting sleeve 22 is slidably connected to each limiting column 23, each limiting column 23 is fixedly connected to the lifting plate 24 away from the side of the workbench 21, and an extrusion component for extruding the surface of the first webbing 11 or the second webbing 12 is connected to the lifting plate 24; The lifting plate 24 is limited in upward and downward movement by the sliding connection between the limiting sleeve 22 and the limiting column 23, so that the movement of the lifting plate 24 is more stable, even when the extrusion assembly processes the first webbing 11 or the second webbing 12, it can be more stable; A tensioning assembly that cooperates with the extrusion assembly to tighten the first webbing 11 or the second webbing 12 is connected to both sides of the lifting plate 24; A control console 25 for controlling the extrusion assembly or the tensioning assembly is fixedly connected to the workbench 21; Through the workbench 21, workers can control the extrusion component more intelligently. The extrusion component can extrude the surface of the first webbing 11 or the second webbing 12, so that the first webbing 11 or the second webbing 12 extrude a curved surface 13 for connecting or increasing the strength of the woven belt body 1, and then cooperate with the tensioning component to clamp the first webbing 11 or the second webbing 12, so that a number of curved surfaces 13 can be quickly formed, while facilitating better alignment of the friction surface 15 between two adjacent curved surfaces 13, and then cooperate with the pressurizing effect of the buckle 14 on the buckle 14, and the curved surface 13 is shaped through the deformation of the buckle 14 itself, so that the sleeved first webbing 11 or the second webbing 12 can be quickly processed and produced.

[0021] like Figure 1 to Figure 8As shown, the extrusion assembly includes a plurality of extrusion cylinders 31, each of which is rotatably connected to the lifting plate 24, a plurality of support sleeves 32 are fixedly connected to the lifting plate 24, each support sleeve 32 abuts against each extrusion cylinder 31, a first cylinder 33 is connected to the lower side of the lifting plate 24, and a telescopic shaft of the first cylinder 33 is fixedly connected to the lower side of the lifting plate 24; The lifting plate 24 is directly driven to move by the first cylinder 33, so that the first webbing 11 or the second webbing 12 attached to each extrusion cylinder 31 is extruded to form a curved surface 13, and the first webbing 11 or the second webbing 12 is limited by the upward movement of the lifting plate 24; Each transmission seat 34 is slidably connected between two adjacent extrusion cylinders 31, each transmission seat 34 is fixedly connected to each electric soldering iron 35, a transmission plate 36 is fixedly connected to the lower side of a plurality of transmission seats 34, the transmission plate 36 is slidably abutted against the lower side of the lifting plate 24, a second cylinder 37 is connected to one side of the transmission plate 36, the second cylinder 37 is fixedly connected to the lower side of the lifting plate 24, and a telescopic shaft of the second cylinder 37 is fixedly connected to the transmission plate 36; The extension and retraction of the second cylinder 37 can drive the plurality of transmission seats 34 to move through the transmission plate 36, so that after each electric soldering iron 35 heats the friction surface 15 on the inner wall of the first webbing 11 or the second webbing 12, it can be separated from the first webbing 11 or the second webbing 12 in time to prevent the first webbing 11 or the second webbing 12 from being damaged.

[0022] like Figure 6~Figure 7 As shown, a plurality of limit grooves 241 are provided on the lifting plate 24; It is used to limit the sliding movement of the transmission plate 36 on the lower side of the lifting plate 24, making the transmission plate 36 more stable.

[0023] like Figure 1 to Figure 8 As shown, the tensioning assembly includes two linkage seats 41, and the two linkage seats 41 are respectively connected to both sides of the lifting plate 24, and each linkage seat 41 is fixedly connected to the upper side of the workbench 21; The tensioning column 42 is rotatably connected to the linkage seat 41, and the turning cylinder 43 is rotatably connected to the tensioning column 42. One end of the tensioning column 42 away from the turning cylinder 43 is fixedly connected to the linkage gear 44. One side of the linkage gear 44 is meshed with the linkage rack 45. The side of each linkage rack 45 away from the linkage gear 44 is fixedly connected to the receiving seat 46. Each receiving seat 46 is fixedly connected to the lower side of the lifting plate 24. When the lifting plate 24 moves upward, the meshing action of the linkage gear 44 and the linkage rack 45 will drive the tensioning columns 42 on both sides to flip to both sides, so that the first webbing 11 or the second webbing 12 wrapped around the flip cylinders 43 on both sides will be tightened, which is used to facilitate the extrusion component to operate the first webbing 11 or the second webbing 12, and when the first webbing 11 or the second webbing 12 is processed, it is convenient for workers to remove it.

[0024] The working principle of this embodiment is: The first step is to stretch high-strength polyester or nylon fibers into filaments, and then use a weaving device to weave these filaments into a plurality of first webbings 11 and a second webbing 12, and then put a buckle 14 on the woven first webbing 11 or the second webbing 12, and then put the first webbing 11 or the second webbing 12 with the buckle 14 on the two flip cylinders 43 in turn, and push the buckles 14 to one side, and then start the first cylinder 33 to drive the lifting plate 24 to slide along the two limiting sleeves 22, so that the lifting plate 24 can slide up and down stably, and then the lifting plate 24 can drive the plurality of extrusion cylinders 31 to squeeze the lower side of the first webbing 11 or the second webbing 12, and then the upward movement of the lifting plate 24 can also bring The linkage gears 44 on both sides are turned over to open the tightening columns 42 on both sides to tighten the first webbing 11 or the second webbing 12 sleeved on the limiting sleeves 22 on both sides, so as to facilitate the extrusion of the side by the extrusion cylinder 31, and then the second cylinder 37 is started to drive a plurality of electric soldering irons 35 to slide into one side of the inner circle of the first webbing 11 or the second webbing 12, and then the electric soldering irons 35 are started to perform hot ironing operation on one side of the inner circle of the first webbing 11 or the second webbing 12, so that one side of the inner circle of the first webbing 11 or the second webbing 12 forms a plurality of friction surfaces 15 parallel to each other and not parallel to the surface of one side of the inner circle of the first webbing 11 or the second webbing 12, and the two parallel friction surfaces 15 are used for alignment; Then, the second air cylinder 37 is reset, the electric soldering iron 35 is moved out of the inner circle of the first webbing 11 or the second webbing 12, and then each buckle 14 is moved to the position of two mutually parallel friction surfaces 15 in turn, and the buckles 14 are pressed against the two mutually parallel friction surfaces 15 in turn by the pressure device, and the two mutually parallel friction surfaces 15 are closely abutted by the deformation of the buckles 14 themselves; Next, the first webbing 11 and the second webbing 12 are fixedly sewn in sequence, and finally sewn into the webbing body 1, and then the receiving ring 16 and the connecting ring 17 are connected to the webbing body 1, and the elastic fabric 18 is fixedly connected between the adjacent receiving rings 16 and connecting rings 17, so as to offset the pulling bearing force of the webbing body 1 through the elastic fabric 18; When the braid body 1 is subjected to an action force, the action force pulls the braid body 1 to one side, and this pulling force is dispersed and offset by the friction surfaces 15 that are tightly abutted between the plurality of curved surfaces 13. The connection between these friction surfaces 15 reduces the damage to the braid body 1 caused by the pulling force, so that the braid body 1 can withstand the action force, and when the pulling force cannot move the plurality of friction surfaces 15, the plurality of curved surfaces 13 are not actually subjected to excessive pulling force, and thus will not be deformed or damaged. When the pulling force moves a pair or a plurality of groups of friction surfaces 15, the curved surfaces 13 adjacent to the friction surfaces 15 will be straightened, so that these curved surfaces 13 will also be put into the load of the braid body 1 to cope with the pulling force, so that the braid body 1 can cope with a higher pulling force, that is, the tensile resistance and strength of the braid body 1 are improved.

[0025] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A high-strength lifting braided belt, comprising a braided belt body (1), characterized in that: The braided belt body (1) comprises a plurality of first braids (11) and second braids (12), each of the first braids (11) and the second braids (12) being fixedly sewn in sequence, a plurality of curved surfaces (13) being provided on one side of each first braid (11) and each second braid (12), a buckle (14) being fixedly connected between two adjacent curved surfaces (13) on each first braid (11) or each second braid (12), a plurality of friction surfaces (15) being provided on the inner side of each first braid (11) or each second braid (12), each of the friction surfaces (15) being provided on one side of the curved surface (13), and the buckle (14) being used to tightly abut two parallel friction surfaces (15); The curved surface (13) of the first webbing (11) is flush with the buckle (14) on the adjacent second webbing (12); A plurality of connecting straps (19) are fixedly connected to the braided strap body (1), and two ends of each connecting strap (19) are respectively fixedly connected to the side surfaces of two buckles (14) flush with the side edges.

2. The high-strength lifting braided belt according to claim 1, characterized in that: The two ends of the braided belt body (1) are rotatably connected to receiving rings (16), and the braided belt body (1) is rotatably connected to two connecting rings (17), and elastic fabric (18) is fixedly wrapped between each connecting ring (17) and the adjacent connecting ring (16).

3. A high-strength lifting braided belt production process, characterized in that: The high-strength lifting braided belt according to any one of claims 1 to 2 is characterized in that it includes the following steps: S100: Material selection: High-strength polyester or nylon fiber is selected to ensure good load-bearing capacity and durability; S200: Wire drawing: Stretch the fiber material to form filaments to improve strength and toughness; S300: Weaving and manufacturing: the selected high-strength material is stretched to form filaments, the filaments are woven into a plurality of first webbings (11) and a second webbing (12) by a weaving device, and then the plurality of first webbings (11) or the second webbings (12) are put on a forming device for manufacturing; S400: Dyeing treatment: The braid is dyed to give it a bright color to increase visibility and improve UV resistance; S500: Surface treatment: anti-wear and water-repellent treatment to enhance the durability and service life of the braided belt; S600: Testing and Inspection: Conduct tensile tests and safety inspections on finished products to ensure they meet relevant standards and load-bearing requirements; S700: Packaging: Finally, the qualified lifting braids are packaged and prepared for shipment and storage.

4. The high-strength lifting braided belt production process according to claim 3 is characterized in that: Step S300 weaving production includes: S310: Put buckles (14) on a plurality of first webbings (11) or second webbings (12), extrude curved surfaces (13) on the plurality of first webbings (11) or second webbings (12) through a forming device, and provide friction surfaces (15) on the inner side surfaces of the plurality of first webbings (11) or second webbings (12), then slide the plurality of buckles (14) along the first webbings (11) or second webbings (12) in sequence, so that each buckle (14) slides between two curved surfaces (13), and applies pressure to the side surfaces of the buckles (14) through a pressure device, so that the deformed buckles (14) fix the plurality of curved surfaces (13) on the first webbing (11) or second webbing (12), and the friction surfaces (15) on both sides are in close contact with each other; S320: removing the plurality of first webbings (11) or second webbings (12) that have been manufactured in sequence, and fixing and sewing the plurality of first webbings (11) or second webbings (12) in sequence in an adjacent manner, and then fixing the plurality of connecting straps (19) on the braided belt body (1) by heat pressing on one side of the sewn braided belt body (1); S330: Two receiving rings (16) are sewn on both sides of the braided belt body (1), and then two connecting rings (17) are sewn on the side of the braided belt body (1) away from the connecting belt (19), and then the elastic fabric (18) is wrapped around the adjacent receiving rings (16) and connecting rings (17).

5. The high-strength lifting braided belt production process according to claim 4 is characterized in that: The forming device in the weaving production of step S310 comprises a workbench (21), two limiting sleeves (22) are fixedly connected to the workbench (21), each limiting sleeve (22) is slidably connected to a limiting column (23), each limiting column (23) is fixedly connected to a lifting plate (24) on a side away from the workbench (21), and the lifting plate (24) is connected to an extrusion component for extruding the surface of the first webbing (11) or the second webbing (12); The lifting plate (24) is connected to two sides thereof with tensioning components that cooperate with the extrusion components to tighten the first webbing (11) or the second webbing (12); A control console (25) for controlling the extrusion component or the tensioning component is fixedly connected to the workbench (21).

6. The high-strength lifting braided belt production process according to claim 5 is characterized in that: The extrusion assembly comprises a plurality of extrusion cylinders (31), each of the extrusion cylinders (31) is rotatably connected to a lifting plate (24), a plurality of support sleeves (32) are fixedly connected to the lifting plate (24), each of the support sleeves (32) abuts against each of the extrusion cylinders (31), a first cylinder (33) is connected to the lower side of the lifting plate (24), and a telescopic shaft of the first cylinder (33) is fixedly connected to the lower side of the lifting plate (24); A transmission seat (34) is slidably connected between two adjacent extrusion cylinders (31), and an electric soldering iron (35) is fixedly connected to each of the transmission seats (34). A transmission plate (36) is fixedly connected to the lower side of a plurality of transmission seats (34), and the transmission plate (36) is slidably abutted against the lower side of the lifting plate (24). A second cylinder (37) is connected to one side of the transmission plate (36), and the second cylinder (37) is fixedly connected to the lower side of the lifting plate (24). The telescopic shaft of the second cylinder (37) is fixedly connected to the transmission plate (36).

7. The high-strength lifting braided belt production process according to claim 5 is characterized in that: The lifting plate (24) is provided with a plurality of limiting grooves (241).

8. The high-strength lifting braided belt production process according to claim 5 is characterized in that: The tensioning assembly comprises two linkage seats (41), the two linkage seats (41) are respectively connected to two sides of the lifting plate (24), and each linkage seat (41) is fixedly connected to the upper side of the workbench (21); A tensioning column (42) is rotatably connected to the linkage seat (41), and a turning cylinder (43) is rotatably connected to the tensioning column (42). One end of the tensioning column (42) away from the turning cylinder (43) is fixedly connected to a linkage gear (44), and one side of the linkage gear (44) is meshed with a linkage rack (45). Each linkage rack (45) is fixedly connected to a receiving seat (46) on one side away from the linkage gear (44), and each receiving seat (46) is fixedly connected to the lower side of the lifting plate (24).

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