High-voltage static flame-retardant garment and processing technology thereof

Abstract

The invention discloses a high-voltage static flame-retardant garment and a processing technology thereof. The flame-retardant garment comprises a garment body, a reinforcing layer is arranged on the front face of the garment body, a transparent base is fixed to the reinforcing layer, a transparent installation base is detachably installed on the transparent base, a containing cavity is formed in the installation base, the opening end of the containing cavity is hidden and shielded after assembly, and water prevention, damage prevention and convenient replacement of an information board are achieved. The structure is not provided with exposed metal pieces, and point discharge in a high-voltage environment is avoided; the reinforcing layer is independent of the garment body, so that the anti-static and flame-retardant coating is prevented from being damaged. The manufacturing process comprises the steps of high-precision punching, standardized cutting, edge bending and reinforcing and triple sealing assembly (screws, sealing washers and waterproof glue), and it is guaranteed that the assembly is firm and sealed, and main fabric is not damaged. And the transparent part is made of flame-retardant engineering plastics, so that the requirements of safety, reliability and attractiveness in a high-pressure and inflammable working environment are integrally met.

Description

Technical Field

[0001] This invention belongs to the field of protective equipment technology, and in particular relates to a high-pressure static resistance flame-retardant suit and its processing technology. Background Technology

[0002] In existing technologies, protective clothing worn by high-voltage workers or hazardous chemical handlers typically needs to meet multiple safety requirements simultaneously, including flame retardancy, antistatic properties, and liquid penetration resistance. However, such protective clothing has significant shortcomings in terms of additional functions such as identification and information display. Traditional methods often involve directly sewing fabric nameplates or temporarily fixing paper information cards using pins or Velcro. This not only makes them susceptible to rain or chemical liquid corrosion, leading to blurred or detached information, but also damages the functional coating of the garment itself when frequently replaced, compromising its waterproof and flame-retardant integrity. Furthermore, existing structures lack effective protection and concealment design for the information tags; exposed metal parts may pose a risk of electrical discharge; the appearance is unsightly; and both safety and practicality are poor. Summary of the Invention

[0003] The purpose of this invention is to solve the aforementioned technical problems existing in the prior art, and to provide a high-pressure static resistance flame-retardant suit and its processing technology. This application sets a reinforcing layer on the front of the protective suit and fixes a transparent base, and then uses a detachable transparent mounting seat to place safety signs or information signs in the internal placement cavity. This achieves durable protection and convenient replacement of the information carrier in outdoor rain or high-risk environments. It protects the information carrier from liquid corrosion and physical wear, and avoids damage to the functional coating of the protective suit body by frequent disassembly and assembly. Moreover, the processing technology of this application realizes high-precision punching, standardized cutting, edge reinforcement and waterproof assembly of the reinforcing layer on the protective suit in an integrated operation, realizing efficient, precise and modular production of the reinforcing layer and transparent base components. While ensuring the accuracy of the connection hole, the sealing of the component assembly and the strength of the sewing, it significantly improves the safety and reliability of the product in high-pressure and flammable environments and the overall aesthetics.

[0004] To solve the above-mentioned technical problems, the present invention adopts the following technical solution: A high-pressure static flame-retardant garment includes a garment body with a reinforcing layer on the front side. The reinforcing layer is sewn to the garment body. A transparent base is provided on the reinforcing layer and is fixedly connected to the reinforcing layer. A transparent mounting seat is detachably installed on the transparent base. The transparent mounting seat has a placement cavity, one end of which is an open end located on the side wall of the transparent mounting seat. When the transparent mounting seat is installed on the transparent base, the open end is hidden and covered.

[0005] Furthermore, the transparent base is provided with mounting holes, and the reinforcing layer is provided with connecting holes. The connecting holes correspond one-to-one with the mounting holes. Screws pass through the mounting holes and connecting holes and connect with the sealing washers and nuts. The screws and nuts, together with the sealing washers, achieve mechanical fastening between the transparent base and the reinforcing layer, realizing a high-strength and high-reliability connection between the two. Since the connection acts on the independent reinforcing layer rather than directly on the garment body, damage to the functional coating is avoided, which not only ensures the overall structural strength but also maintains the original waterproof integrity of the garment.

[0006] Furthermore, the transparent base has an installation cavity, into which the transparent mounting seat is embedded. Positioning grooves are circumferentially distributed on the side wall of the installation cavity, including a sliding cavity and a snap-fit ​​groove that are connected together. Positioning blocks are circumferentially distributed on the side wall of the transparent mounting seat, with a limit baffle on one side. The positioning blocks match the sliding cavity and snap-fit ​​groove. The positioning block snaps into the sliding cavity, and then the transparent mounting seat is rotated circumferentially to slide the positioning block from the sliding cavity into the snap-fit ​​cavity until the limit baffle abuts against the intersection of the sliding cavity and the snap-fit ​​groove. The transparent mounting seat is then in place. The circumferentially distributed sliding cavity and snap-fit ​​groove, combined with the rotating snap-fit ​​structure of the positioning block, allow the transparent mounting seat to be quickly installed and locked through a simple "insert-rotate" action. The contact between the limit baffle and the intersection ensures the accuracy of the installation position. Operation is convenient and requires no auxiliary tools, facilitating frequent replacement of information signs. After installation, the entire connection structure is completely embedded and hidden, without affecting the neat appearance or rainproof performance.

[0007] Furthermore, the top edge of the transparent mounting base has grooves distributed around its perimeter, each groove corresponding to a positioning block. The end face of the groove is flush with the top surface of the positioning block, and the edge of the groove protrudes upward to form a convex handle. The convex handle is fixedly connected to the positioning block, and the convex handle provides a clear point of force for rotation operation, which facilitates the assembly and disassembly of the transparent mounting base and significantly improves convenience and operational efficiency.

[0008] Based on the above-mentioned garment processing technology, the following steps are included: Step 1: Cut various types of garment pieces according to design requirements, and sew these pieces together to obtain the initial garment product; this provides a structural reference for the subsequent positioning and installation of functional components. Step Two: Cut the initial reinforcement layer sheet according to the design requirements. Perform punching operations on the initial reinforcement layer sheet using a punching device. The punching device includes a mounting bracket, a processing table, and a punching assembly. Processing tables are symmetrically installed on both sides of the mounting bracket. The processing tables are fixed to the mounting bracket with screws, making installation and disassembly convenient. A clamping device is provided on the processing table. A guide hopper is provided below the mounting bracket. An outlet slot is provided on the mounting bracket, located directly above the guide hopper. A punching assembly is provided on each processing table. A pad is installed on the processing table, and then the initial reinforcement layer sheet is laid flat on the pad. Adjust the clamping device to clamp and fix the initial reinforcement layer sheet to the pad. The initial reinforcement layer sheet is punched using a dedicated punching device. The symmetrically arranged processing tables and clamping devices enable simultaneous processing at two stations, improving production efficiency. The design of the guide hopper and outlet slot of the punching device facilitates the centralized collection of the punched reinforcement layer sheet for subsequent processing. Step 3: Install the template plate. Press and fix the template plate onto the initial sheet of the reinforcement layer. The template plate has template holes, and each template hole has a guide cone hole on its top surface. The pad plate has several through holes, which correspond one-to-one with the template holes. The guide cone hole is a cone-shaped structure that is larger at the top and smaller at the bottom. It guides the punch head into the hole, providing precise initial guidance for the punch head and ensuring that the punching position is strictly aligned with the subsequent transparent base mounting hole. The through holes on the pad plate cooperate with the template holes to further ensure the stability of the material and the perpendicularity of the punching during the punching process. Step 4: The stamping assembly includes a linear module, a lifting frame, and a stamping head. The linear module is fixedly connected to the mounting bracket, and the lifting frame is fixed to the slider screw of the linear module. The lifting frame is equipped with stamping heads that correspond one-to-one with the template holes. When the linear module is activated, the slider drives the lifting frame to descend as a whole. The lifting frame then drives the stamping head to descend, inserting it into the guide cone hole and then into the corresponding positioning hole. The stamping head gradually moves downwards, passing through the reinforcing layer pre-piece and punching holes in it to form connecting holes, until the end of the stamping head protrudes from the reinforcing layer pre-piece. It extends 1.5-5mm into the through hole; multiple connecting holes can be formed in one go on the initial sheet of the reinforcing layer through the stamping assembly, ensuring the consistency of hole positions in batch production, effectively improving punching efficiency, while ensuring that the end of the stamping head extends 1.5-5mm into the through hole, ensuring that the stamping head completely penetrates the initial sheet of the reinforcing layer to form an effective connecting hole, and avoiding excessive downward movement of the punch head that could damage the equipment, thus improving punching quality and tool life. Moreover, the stamping process of the punching operation is automated, reducing manual labor intensity and human error. Step 5: The linear module starts, driving the lifting frame and the stamping head to move up and reset. The second scribing plate is attached to the outside of the template plate. A second marking line is formed on the reinforcing layer piece by scribing along the outer edge of the second scribing plate. The second scribing plate is removed, and the first scribing plate is attached to the outside of the template plate. The reinforcing layer piece is cut out along the edge of the first scribing plate. The first scribing plate and the template plate are removed. The reinforcing layer piece is taken out and put into the outlet slot of the mounting bracket. The reinforcing layer piece falls into the collection box through the outlet slot and the guide hopper for centralized collection. After punching, the stamping assembly is reset to facilitate the next stamping operation and also facilitate the subsequent scribing operation. With the cooperation of the scribing plate and the template plate, the cutting and folding baseline is quickly and accurately marked on the reinforced layer after punching, realizing the standard scribing of the functional area. Through the guidance of the outlet slot and the guide hopper, the cut reinforcing layer is automatically collected, reducing manual transfer links and improving the continuity of the production process. Step Six: For the collected reinforcing sheet, fold the edge of the reinforcing sheet to the back of the reinforcing sheet along the second marked line, so that the edge of the reinforcing sheet forms a reinforcing edge, and fix it with overlock stitch; perform folding and overlock stitching along the marked line to form a structurally reinforced "reinforcing edge", which not only enhances the wear resistance and deformation resistance of the reinforcing layer itself, but also provides a more secure and neat joint edge for subsequent sewing with the garment body; Step 7: Align the mounting holes on the transparent base with the connecting holes on the reinforcing layer. Pass the end of the screw through the mounting hole and connecting hole in sequence, extending to the back of the reinforcing layer to connect with the sealing washer and nut. Apply waterproof sealant to the screw head and around the nut. The waterproof sealant is an organic silicone sealant. The waterproof sealant covers the gap between the screw head and the transparent base, and also wraps the contact surface between the nut and the sealing washer to prevent rainwater from seeping in. The cooperation of the screw, sealing washer and nut achieves mechanical fastening between the transparent base and the reinforcing layer. The application of waterproof sealant at the connection point forms a double seal, effectively preventing rainwater from seeping in from the gaps in the mounting holes. Step 8: Sew the reinforcing layer to the left chest area of ​​the initial garment according to the design requirements, with the seam located at the reinforcing edge. Then screw the transparent mounting bracket into the transparent base, precisely sewing the reinforcing layer component to the designated position on the initial garment, and confining the seam to the reinforcing edge area to prevent the needle from directly piercing the waterproof fabric body, thus maximizing the protection of the garment's waterproof integrity. Finally, assemble the transparent mounting bracket to complete the integration of the entire functional component, realizing the concealment, replaceability, and waterproof protection functions of the information label carrier.

[0009] Furthermore, in step two, the clamping device clamps as follows: (1) The clamping device includes a clamping seat, a clamping plate and an adjusting screw. The clamping seat is provided with a sliding groove. The clamping seat is slidably engaged with the mounting bracket through the sliding groove. The clamping seat is also abutted and fixed with the mounting bracket by a clamping screw. The adjusting screw is threaded through the clamping seat. The bottom end of the adjusting screw is connected to the clamping plate through a bearing. The clamping plate is provided with a limit block. The clamping seat is provided with a limit groove. The limit block is slidably engaged in the limit groove. The top end of the adjusting screw is provided with an operating handle. The clamping seat is adjusted along the mounting bracket through the sliding groove, so as to adapt to different sizes and specifications of the initial reinforcement layer sheet, expand the application range of the clamping device, and make adjustment convenient. The clamping device position can be quickly adjusted by loosening the clamping screw. The clamping plate can be adjusted by rotating the adjusting screw. It can be adjusted according to the thickness of the initial reinforcement layer sheet to meet different clamping requirements. The limit groove and the limit block can prevent the clamping plate from deflecting or tilting during the adjustment process. (2) Two sets of clamping devices are set on each processing table. Loosen the clamping screws and slide along the mounting bracket to move the two sets of clamping devices to the two ends of the reinforcing layer sheet respectively. Rotate the adjusting screw through the operating handle. The adjusting screw drives the clamping plate to move down until the clamping plate is pressed and limited at the end face of the reinforcing layer sheet. The clamping plate is always guided and limited by the limiting slide groove during the movement. The adjusting screw drives the clamping plate to move down until the clamping plate is pressed and limited at the end face of the reinforcing layer sheet. The two sets of clamping devices clamp and fix the two ends of the reinforcing layer sheet to ensure the firmness and stability of the reinforcing layer sheet on the processing table and to ensure that the reinforcing layer sheet has no displacement or deformation during the stamping process. (3) A dovetail groove is provided on the sliding slot, and a dovetail slider is provided on the bottom surface of the processing table. The dovetail slider matches the dovetail groove, and the clamping seat is slidably clamped on the dovetail slider through the dovetail groove. During the adjustment of the clamping device, the clamping seat is always guided and limited by the dovetail slider.

[0010] The clamping device of this application adopts a combination of sliding groove and clamping screw, which allows the clamping seat to be quickly adjusted along the mounting bracket to adapt to different sizes of reinforcement layer initial sheets, significantly improving the versatility of the equipment. The adjusting screw is connected to the clamping pressure plate through a bearing, achieving vertical downward pressure and smooth rotation. With the guide structure of the limit block and limit slide, it effectively prevents the pressure plate from deflecting or tilting during the clamping process, ensuring that the clamping force is evenly applied to the end face of the workpiece. The double clamping device is symmetrically arranged at both ends of the reinforcement layer initial sheet to form a stable clamping, completely avoiding material displacement or deformation during punching. The precise cooperation between the dovetail slide and the dovetail slider further improves the guiding accuracy and resistance to lateral forces during the sliding process, ensuring the stability and repeatability of the clamping device during long-term use.

[0011] Furthermore, in step two above, the installation steps for the pad and the processing table are as follows: (1) Positioning holes are provided on all four corners of the pad, and positioning pins are provided on the processing table. The positioning pins and positioning holes are matched one by one. The positioning pins are inserted through and into the corresponding positioning holes, and the fastening nuts are screwed into the through end of the positioning pins and tightened. (2) At the same time, the bottom surface of the pad is provided with a boss, and the processing table is provided with a relief groove. The boss is limited and locked in the relief groove, and the boss is provided with a cavity, and the through hole is connected to the cavity.

[0012] The pad achieves rapid and precise positioning through the insertion and engagement of the positioning pin and positioning hole, and the locking and limiting of the boss and clearance groove. It is then locked by the fastening nut, which ensures the stability and alignment accuracy of the pad installation and ensures that it does not loosen during the stamping process. The boss has a cavity that is connected to the through hole, providing sufficient clearance space for the stamping head to pass through, avoiding damage or rebound caused by the end of the stamping head hitting the hard table surface, thus protecting the mold and ensuring the stamping quality.

[0013] Furthermore, in step four above, the lifting frame includes a frame body and a positioning plate. The frame body is connected to the linear module, and the positioning plate is fixed to the frame body. A drive motor is fixedly installed on the frame body. The motor shaft of the drive motor is connected to a drive gear. The bottom end of the drive gear is rotatably connected to the positioning plate through a bearing. The drive gear meshes with several driven gears along its circumference. The driven gears are fixed on the mounting sleeve. The top end of the mounting sleeve is rotatably connected to the frame body through a bearing. A guide sleeve is fixed through the positioning plate. The guide sleeve matches the mounting sleeve. The bottom end of the mounting sleeve extends through the guide sleeve to the bottom of the positioning plate and is connected to the punch head. The punch head is inserted into the mounting sleeve and fixed by a bolt assembly. When the linear module moves the lifting frame downward, the drive motor drives the drive gear to rotate. The drive gear drives the driven gear to rotate synchronously. The driven gear then drives the corresponding mounting sleeve to rotate. The mounting sleeve then drives the punch head fixed to it to rotate synchronously, so that the punch head also rotates during the punching process and the downward movement of the punch head. The lifting frame of this application integrates a drive motor and a gear transmission system. While the linear module drives the whole structure to move downward, the drive gear drives multiple driven gears to rotate synchronously, thereby driving each punch head to move downward and rotate simultaneously, realizing rotary punching. This "rotary punching" method can significantly reduce punching resistance, reduce single-point wear of the punch cutting edge, and extend the die life. At the same time, the rotary shearing action makes the hole edge smoother and burr-free, improving the geometric accuracy and structural integrity of the connecting hole.

[0014] Furthermore, in step three above, the sample plate installation steps are as follows: (1) A positioning boss is provided on the pad, an anti-rotation groove is provided on the positioning boss, a threaded hole is provided in the anti-rotation groove, a positioning slot is provided on the template plate, the positioning slot matches the positioning boss, an anti-rotation block is provided in the positioning slot, the anti-rotation block matches the anti-rotation groove, and a through hole is provided on the anti-rotation block. (2) Place the sample plate on the pad, insert the positioning boss into the positioning slot, and at the same time insert the anti-rotation block into the anti-rotation slot; (3) Next, install the clamping part. A screw is provided below the clamping part. The screw passes through the through hole and is screwed into the threaded hole until the pressure block on the clamping part abuts and presses against the positioning boss and template plate.

[0015] The template plate achieves initial centering through the engagement of the positioning boss and the positioning slot, and is further fixed by the cooperation of the anti-rotation block and the anti-rotation groove. Finally, the template plate is firmly pressed onto the pad by the screw of the clamping part, ensuring that the template plate is absolutely stable and does not wobble during the punching process, and ensuring the precise alignment of the template hole and the punching head. At the same time, installation and disassembly only require screwing in or out the screw, which is simple and efficient.

[0016] Furthermore, in step six above, the disassembly steps for the sample plate are as follows: rotate the disassembly clamping member to completely remove the screw from the threaded hole and through hole, and then remove the sample plate from the pad. The sample plate can be easily removed by simply rotating the clamping member in the opposite direction to completely remove the screw from the threaded hole and through hole. This achieves tool-free quick disassembly and assembly, greatly shortening the changeover time. At the same time, since all positioning and locking are completed through the same clamping member, the reliability of operation and the convenience of equipment maintenance are improved.

[0017] The present invention, by adopting the above-described technical solution, has the following beneficial effects: This invention features a reinforcing layer on the front of the garment and a fixed transparent base, along with a detachable transparent mounting bracket, placing the information tag within an internal cavity. This achieves durable protection against outdoor rain and allows for convenient replacement of the tag. It protects the information carrier from rain erosion and physical wear, while avoiding damage to the garment's functional coating caused by frequent disassembly and reassembly. Simultaneously, the concealed design enhances the overall aesthetics and practicality, effectively solving the technical problems of traditional labeling methods being easily damaged, not waterproof, inconvenient to replace, and affecting the integrity of the garment.

[0018] Most importantly, because the information sign installation structure is completely embedded and has no exposed metal fasteners, it effectively avoids safety accidents caused by tip discharge or static electricity accumulation in high-voltage electric field environments. At the same time, the separate connection design between the reinforcement layer and the garment body prevents the antistatic coating from being damaged due to the installation hole penetrating the main fabric, ensuring the continuity of static electricity discharge of the entire garment and meeting the structural integrity requirements of the antistatic clothing standard.

[0019] This invention's processing technology achieves integrated high-precision punching, standardized cutting, edge reinforcement, and waterproof assembly of the garment's reinforcing layer. It enables efficient, precise, and modular production of the garment's reinforcing layer and transparent base components. While ensuring the accuracy of connection hole positions, component assembly sealing, and sewing strength, it significantly improves the product's waterproof durability and overall aesthetics. The process utilizes template guidance and precise punching with straight-line modules to ensure consistent connection hole positions. Double marking plates and marking lines ensure unified cutting and folding benchmarks. The automated flow of clamping, punching, marking, and blanking improves efficiency. Bending and reinforcing edges, along with locking seams, enhance structural durability. Bolts, sealing gaskets, and waterproof adhesive provide triple sealing to ensure waterproof reliability. Ultimately, without damaging the garment's coating, it efficiently and stably integrates the transparent information installation module, significantly improving product consistency, waterproof performance, and production automation. Attached Figure Description

[0020] The present invention will be further described below with reference to the accompanying drawings: Figure 1 This is a schematic diagram of the structure of the garment of the present invention; Figure 2 This is a schematic diagram of the installation structure of the transparent base and the reinforcing layer in this invention; Figure 3 This is a schematic diagram of the assembly structure of the transparent base and the transparent mounting base in this invention; Figure 4 This is a schematic diagram of the transparent base in this invention; Figure 5 This is a schematic diagram of the transparent mounting base in this invention; Figure 6 This is a schematic diagram of the punching device in this invention; Figure 7 This is a schematic diagram showing the position and structure of the clearance groove on the processing table in this invention; Figure 8 for Figure 7 A structural diagram from another perspective; Figure 9 This is a schematic diagram of the structure of the pad in this invention; Figure 10 for Figure 9 A structural diagram from another perspective; Figure 11 This is a schematic diagram of the clamping device in the present invention; Figure 12 for Figure 11 A structural diagram from another perspective; Figure 13 This is a schematic diagram of the stamping assembly in this invention; Figure 14 for Figure 13 A structural diagram from another perspective; Figure 15 This is a schematic diagram of the installation structure of the sample plate on the pad in this invention; Figure 16 This is a schematic diagram of the installation structure between the marking plate and the sample plate in this invention; Figure 17 This is a schematic diagram of the installation structure between the marking plate 2 and the sample plate in this invention; Figure 18 This is a schematic diagram of the structure of the sample plate in this invention; Figure 19 for Figure 18 A structural diagram from another perspective; Figure 20 This is a schematic diagram of the clamping component in this invention.

[0021] In the diagram: 1-Clothing body; 2-Reinforcing layer; 3-Transparent base; 4-Transparent mounting seat; 5-Placement cavity; 6-Open end; 7-Mounting hole; 8-Through hole; 9-Bolt assembly; 10-Screw; 11-Sealing washer; 12-Nut; 13-Mounting cavity; 14-Positioning groove; 15-Sliding cavity; 16-Snap-in groove; 17-Positioning block; 18-Limiting baffle; 19-Groove; 20-Protruding shank; 21-Punching device; 22-Mounting bracket; 23-Processing table; 24-Guide hopper; 25-Padded plate; 26-Clamping device; 27-Punching assembly; 28-Clamping seat; 29-Clamping pressure plate; 30-Adjusting screw; 31-Sliding slot; 32-Clamping screw; 33-Outlet slot; 34-Bearing; 35-Limiting block 36-Limiting groove; 37-Operating handle; 38-Dovetail groove; 39-Dovetail slider; 40-Positioning hole; 41-Positioning post; 42-Fastening nut; 43-Boss; 44-Cavity; 45-Allowing groove; 46-Lifting frame; 47-Linear module; 48-Punching head; 49-Template hole; 50-Guide cone hole; 51-Frame body one; 52-Positioning plate; 53-Drive motor; 54-Driving gear; 55-Driven gear; 56-Mounting sleeve; 57-Guide sleeve; 58-Template plate; 59-Positioning boss; 60-Anti-rotation groove; 61-Threaded hole; 62-Positioning slot; 63-Anti-rotation block; 64-Through hole; 65-Securing part; 66-Screw; 67-Pressure block; 68-Marking plate one; 69-Marking plate two. Detailed Implementation

[0022] like Figures 1 to 5As shown, the garment of this invention includes a garment body 1, which is made of flame-retardant fabric such as aramid or acrylic fiber, with an antistatic coating and a waterproof coating on the surface. A reinforcing layer 2 is provided on the front of the garment body 1, and the reinforcing layer 2 is sewn to the garment body 1. A transparent base 3 is provided on the reinforcing layer 2, and the transparent base 3 is fixedly connected to the reinforcing layer 2. A transparent mounting seat 4 is detachably installed on the transparent base 3. Both the transparent base 3 and the transparent mounting seat 4 are made of transparent material. A placement cavity 5 is provided inside the transparent mounting seat 4, with one end of the placement cavity 5 being an open end 6 located on the side wall of the transparent mounting seat 4. When the transparent mounting seat 4 is installed on the transparent base 3, the open end 6 is hidden and covered. Both the transparent base 3 and the transparent mounting seat 4 are made of transparent engineering plastic, allowing the information board content inside the placement cavity 5 to be clearly seen from the outside, facilitating quick identification of identity information while maintaining a neat and uniform appearance.

[0023] The transparent base 3 has mounting holes 7, and the reinforcing layer 2 has connecting holes. The connecting holes correspond one-to-one with the mounting holes 7. Screws pass through the mounting holes 7 and connecting holes to connect with the sealing washer 11 and nut 12. The screws 10 and nut 12, together with the sealing washer 11, achieve mechanical fastening between the transparent base 3 and the reinforcing layer 2, realizing a high-strength and high-reliability connection between the two. Since the connection acts on the independent reinforcing layer 2 rather than directly on the garment body 1, it avoids damage to the functional coating, ensuring the overall structural integrity and maintaining the original waterproof integrity of the garment.

[0024] The transparent base 3 has a mounting cavity 13, and the transparent mounting seat 4 is embedded in the mounting cavity 13. The side wall of the mounting cavity 13 has circumferentially distributed positioning grooves 14, which include a sliding cavity 15 and a snap-in groove 16 that are connected to each other. The side wall of the transparent mounting seat 4 has circumferentially distributed positioning blocks 17, and a limit baffle 18 is provided on one side of the positioning block 17. The positioning block 17 matches the sliding cavity 15 and the snap-in groove 16. The positioning block 17 snaps into the sliding cavity 15, and then the transparent mounting seat 4 is rotated circumferentially to slide the positioning block 17 from the sliding cavity 15 into the snap-in groove until it reaches the limit. The baffle 18 abuts against the intersection of the sliding cavity 15 and the locking groove 16, and the transparent mounting base 4 is installed in place. The circumferentially distributed sliding cavity 15 and locking groove 16 cooperate with the rotation locking structure of the positioning block 17, so that the transparent mounting base 4 can be quickly installed and locked through a simple "insert-rotate" action. The abutment between the limiting baffle 18 and the intersection ensures the accuracy of the installation position. The operation is convenient and does not require auxiliary tools, which is convenient for users to frequently change the information board. After installation, the entire connection structure is completely embedded and hidden, which does not affect the appearance and rainproof performance.

[0025] The top edge of the transparent mounting base 4 has grooves 19 distributed around it. The grooves 19 correspond one-to-one with the positioning blocks 17. The end face of the groove 19 is flush with the top face of the positioning block 17. The edge of the groove 19 protrudes upward to form a convex handle 20. The convex handle 20 is fixedly connected to the positioning block 17. The convex handle 20 provides a clear force application point for rotation operation, which facilitates the assembly and disassembly of the transparent mounting base 4 and significantly improves convenience and operation efficiency. The fixed connection between the convex handle 20 and the positioning block 17 makes the overall shape unique and beautiful.

[0026] like Figures 6 to 20 As shown, the garment processing technology described above includes the following steps: Step 1: Cut various types of garment pieces according to design requirements, sew the garment pieces together to obtain the initial garment product, which provides a structural reference for the subsequent positioning and installation of functional components, and injection mold the transparent mounting base 4 and transparent base 3 according to design requirements. Step 2: Cut the initial reinforcement layer sheet according to the design requirements, and perform punching operations on the initial reinforcement layer sheet on the punching device 21. The punching device 21 includes a mounting bracket 22, a processing table 23, and a stamping assembly 27. The processing tables 23 are symmetrically installed on both sides of the mounting bracket 22 and are fixed to the mounting bracket 22 with screws for easy installation and disassembly. A clamping device 26 is provided on the processing table 23. A guide hopper 24 is provided below the mounting bracket 22, and an outlet slot 33 is provided on the mounting bracket 22. The outlet slot 33 is located directly above the guide hopper 24. Each processing table 23 is equipped with a stamping assembly 27. A pad 25 is installed on the processing table 23, and the initial reinforcing layer sheet is laid flat on the pad 25. The clamping device 26 is adjusted to clamp and fix the initial reinforcing layer sheet on the pad 25. The initial reinforcing layer sheet is punched by a special punching device 21. The processing table 23 and the clamping device 26 are symmetrically arranged to achieve synchronous processing in two stations, which improves production efficiency. The guide hopper 24 and the outlet slot 33 of the punching device 21 are designed to facilitate the centralized collection of the two reinforcing layer sheets after punching for subsequent processing. The installation steps for the pad 25 and the processing table 23 are as follows: (1) Positioning holes 40 are provided on all four corners of the pad 25, and positioning pins 41 are provided on the processing table 23. The positioning pins 41 and positioning holes 40 are matched one by one. The positioning pins 41 are inserted through into the corresponding positioning holes 40, and the fastening nut 42 is screwed into the through end of the positioning pin 41 and tightened. (2) At the same time, the bottom surface of the pad 25 is provided with a boss 43, the processing table 23 is provided with a relief groove 45, the boss 43 is limited and locked in the relief groove 45, and the boss 43 is provided with a cavity 44, and the through hole 8 on the pad 25 is connected to the cavity 44.

[0027] The pad 25 achieves rapid and accurate positioning through the insertion and engagement of the positioning pin 41 and the positioning hole 40, and the locking and limiting of the boss 43 and the clearance groove 45. It is then locked by the fastening nut 42, which ensures the stability and alignment accuracy of the pad 25 installation and ensures that it does not loosen during the stamping process. The boss 43 has a cavity 44 that communicates with the through hole 8, providing sufficient clearance space for the stamping head after it passes through, avoiding damage or rebound caused by the end of the stamping head hitting the hard table surface, thus protecting the mold and ensuring the stamping quality.

[0028] The clamping steps of clamping device 26 are as follows: (1) The clamping device 26 includes a clamping seat 28, a clamping pressure plate 29, and an adjusting screw 30. The clamping seat 28 is provided with a sliding groove 31. The clamping seat 28 is slidably engaged with the mounting bracket 22 through the sliding groove 31, and the clamping seat 28 is abutted and fixed to the mounting bracket 22 by abutting screws 32. The adjusting screw 30 is threaded through the clamping seat 28. The bottom end of the adjusting screw 30 is connected to the clamping pressure plate 29 through a bearing 34. The clamping pressure plate 29 is provided with a limit block 35, and the clamping seat 28 is provided with a limit groove 36. The limit block 35 is slidably engaged in the limit groove 36. The top of the adjusting screw 30 is provided with an operating handle 37. The clamping seat 28 is adjusted in position along the mounting bracket 22 via the sliding groove 31, so as to adapt to the reinforcement layer initial sheet of different sizes and specifications, expand the application range of the clamping device 26, and make adjustment convenient. The position of the clamping device 26 can be quickly adjusted by loosening the clamping screw 32. The adjusting screw 30 can be rotated to adjust the clamping plate 29, which can be adjusted according to the thickness of the reinforcement layer initial sheet to meet different clamping requirements. The limiting groove 36 and the limiting block 35 can prevent the clamping plate 29 from deflecting or tilting during the adjustment process. (2) Two sets of clamping devices 26 are provided on each processing table 23. Loosen the clamping screws 32 and slide along the mounting bracket 22 to move the two sets of clamping devices 26 to the two ends of the reinforcing layer sheet respectively. Rotate the adjusting screw 30 through the operating handle 37. The adjusting screw 30 drives the clamping plate 29 to move down until the clamping plate 29 is pressed and limited to the end face of the reinforcing layer sheet. The clamping plate 29 is always guided and limited by the limiting slide groove 36 during the movement. The adjusting screw 30 drives the clamping plate 29 to move down until the clamping plate 29 is pressed and limited to the end face of the reinforcing layer sheet. The two sets of clamping devices 26 clamp and fix the two ends of the reinforcing layer sheet to ensure the firmness and stability of the reinforcing layer sheet on the processing table 23 and to ensure that the reinforcing layer sheet has no displacement or deformation during the stamping process. (3) A dovetail groove 38 is provided on the sliding slot 31, and a dovetail slider 39 is provided on the bottom surface of the processing table 23. The dovetail slider 39 matches the dovetail groove 38. The clamping seat 28 is slidably clamped on the dovetail slider 39 through the dovetail groove 38. When the clamping device 26 is adjusted, the clamping seat 28 is always guided and limited by the dovetail slider 39.

[0029] The clamping device 26 of this application adopts a combination of sliding groove 31 and clamping screw 32, which allows the clamping seat 28 to be quickly adjusted along the mounting bracket 22 to adapt to different sizes of reinforcement layer initial sheets, significantly improving the versatility of the equipment. The adjusting screw 30 is connected to the clamping pressure plate 29 through the bearing 34 to achieve vertical downward pressure and smooth rotation. With the guide structure of the limiting block 35 and the limiting slide groove 36, the pressure plate is effectively prevented from deflecting or tilting during the clamping process, ensuring that the clamping force is evenly applied to the end face of the workpiece. The double clamping device 26 is symmetrically arranged at both ends of the reinforcement layer initial sheet to form a stable clamping, completely avoiding material displacement or deformation during punching. The precise cooperation between the dovetail slide groove 38 and the dovetail slider 39 further improves the guiding accuracy and resistance to lateral forces during the sliding process, ensuring the stability and repeatability of the clamping device 26 during long-term use.

[0030] Step 3: Install the template plate 58 and press it firmly onto the initial sheet of the reinforcing layer. The template plate 58 is provided with template holes 49, and each template hole 49 has a guide cone hole 50 on its top surface. The pad plate 25 is provided with several through holes 8, which correspond one-to-one with the template holes 49. The guide cone hole 50 is a cone-shaped structure that is larger at the top and smaller at the bottom. It guides the punching head into the hole, providing precise initial guidance for the punching head and ensuring that the punching position is strictly aligned with the subsequent transparent base 3 mounting hole 7. The through holes 8 on the pad plate 25 cooperate with the template holes 49 to further ensure the stability of the material and the perpendicularity of the punching during the punching process. The installation steps for sample plate 58 are as follows: (1) A positioning boss 59 is provided on the pad 25, an anti-rotation groove 60 is provided on the positioning boss 59, a threaded hole 61 is provided in the anti-rotation groove 60, a positioning slot 62 is provided on the template plate 58, the positioning slot 62 matches the positioning boss 59, an anti-rotation block 63 is provided in the positioning slot 62, the anti-rotation block 63 matches the anti-rotation groove 60, and a through hole 64 is provided on the anti-rotation block 63; (2) Place the sample plate 58 on the pad 25, and the positioning boss 59 is inserted into the positioning slot 62. At the same time, the anti-rotation block 63 is inserted into the anti-rotation slot 60. In this state, the through hole 64 and the threaded hole 61 are connected vertically. (3) Next, install the clamping part 65. A screw 66 is provided below the clamping part 65. The screw 66 passes through the through hole 64 and is screwed into the threaded hole 61 until the pressure block 67 on the clamping part 65 abuts and presses against the positioning boss 59 and the template plate 58.

[0031] The template plate 58 is initially aligned by the engagement of the positioning boss 59 and the positioning slot 62, and then further fixed by the cooperation of the anti-rotation block 63 and the anti-rotation groove 60. Finally, the template plate 58 is firmly pressed onto the pad plate 25 by the screw 66 of the clamping member 65, ensuring that the template plate 58 is absolutely stable and does not wobble during the punching process, and ensuring the precise alignment of the template hole 49 and the punching head 48. At the same time, installation and disassembly only require screwing in or out the screw 66, which is simple and efficient.

[0032] Step 4: The stamping assembly 27 includes a linear module 47, a lifting frame 46, and a stamping head 48. The linear module 47 is fixedly connected to the mounting bracket 22. The lifting frame 46 is fixed to the slider screw of the linear module 47. The lifting frame 46 is equipped with stamping heads 48 that correspond one-to-one with the template holes 49. When the linear module 47 is activated, the slider drives the lifting frame 46 to descend as a whole. The lifting frame 46 drives the stamping head 48 to descend. The stamping head 48 extends into the guide cone hole 50 and then into the corresponding positioning hole 40, and gradually moves down through the reinforcing layer initial sheet to punch holes in the reinforcing layer initial sheet to form connecting holes, until the punching head 48 is inserted into the template hole 50. The end of the press head 48 extends through the reinforcing layer sheet and into the through hole 8 by 1.5-5mm. Multiple connecting holes can be formed on the reinforcing layer sheet in one go through the stamping assembly 27, ensuring the consistency of hole positions in batch production and effectively improving punching efficiency. At the same time, it ensures that the end of the press head 48 extends into the through hole 8 by 1.5-5mm, ensuring that the press head 48 completely penetrates the reinforcing layer sheet to form an effective connecting hole, and avoids excessive downward movement of the punch head that could damage the equipment. This improves punching quality and tool life. Furthermore, the punching process is automated, reducing manual labor intensity and human error. The lifting frame 46 includes a frame body 51 and a positioning plate 52. The frame body 51 is connected to the linear module 47, and the positioning plate 52 is fixed to the frame body 51. A drive motor 53 is fixedly mounted on the frame body 51. The motor shaft of the drive motor 53 is connected to a drive gear 54. The bottom end of the drive gear 54 is rotatably connected to the positioning plate 52 through a bearing 34. Several driven gears 55 mesh with the drive gear 54 circumferentially. The driven gears 55 are fixed on the mounting sleeve 56, and the top end of the mounting sleeve 56 is rotatably connected to the frame body 51 through a bearing 34. A guide sleeve 57 is fixedly fixed through the positioning plate 52. The guide sleeve 57 matches the mounting sleeve 56. The bottom end of the mounting sleeve 56 extends through the guide sleeve 57 to the bottom of the positioning plate 52 and connects with the punch head 48. The punch head 48 is inserted into the mounting sleeve 56 and fixed by the bolt assembly 9. When the linear module 47 drives the lifting frame 46 to move down, the drive motor 53 drives the drive gear 54 to rotate. The drive gear 54 drives the driven gear 55 to rotate synchronously. The driven gear 55 then drives the corresponding mounting sleeve 56 to rotate. The mounting sleeve 56 then drives the punch head 48 fixed to it to rotate synchronously, so that the punch head 48 also rotates during the punching process as it moves down. The lifting frame 46 of this application integrates a drive motor 53 and a gear transmission system. While the linear module 47 drives the whole to move downward, the drive gear 54 drives multiple driven gears 55 to rotate synchronously, thereby driving each punch head 48 to move downward and rotate at the same time to achieve rotary punching. This "rotary punching" method can significantly reduce punching resistance, reduce single-point wear of punch cutting edge, and extend mold life. At the same time, the rotary shearing action makes the hole edge smoother and burr-free, improving the geometric accuracy and structural integrity of the connecting hole. Step 5: The linear module 47 is activated, driving the lifting frame 46 and the stamping head 48 to move upward and reset. The second scribing plate 69 is attached to the outside of the template plate 58. A marking line is formed on the reinforcing layer 2 along the outer edge of the second scribing plate 69. The second scribing plate 69 is removed, and the first scribing plate 68 is attached to the outside of the template plate 58. The reinforcing layer is cut out along the edge of the first scribing plate 68. The first scribing plate 68 and the template plate 58 are removed. The reinforcing layer is taken out and inserted into the outlet slot 33 of the mounting bracket 22. The reinforcing layer 2 passes through the outlet slot 33 and guide... The material hopper 24 falls into the collection box (not shown in the figure) for centralized collection; after punching, the stamping component 27 is reset to facilitate the next stamping operation, and also to facilitate the subsequent marking operation. With the cooperation of the marking plate and the template plate 58, the cutting and folding baseline is quickly and accurately marked on the reinforced layer 2 after punching, realizing the standard marking of the functional area. Through the guidance of the outlet slot 33 and the guide hopper 24, the cut reinforced layer 2 is automatically gathered and collected, reducing the manual transfer links and improving the continuity of the production process; Step Six: For the collected reinforcing layer sheet, fold the edge of the reinforcing layer sheet to the back of the reinforcing layer sheet along the second marked line, so that the edge of the reinforcing layer sheet forms a reinforcing edge, and fix it with overlock stitch; perform folding and overlock stitching along the marked line to form a structurally reinforced "reinforcing edge" on the edge of the reinforcing layer 2, which not only enhances the wear resistance and deformation resistance of the reinforcing layer 2 body, but also provides a more solid and neat joint edge for subsequent sewing with the garment body; The disassembly steps for sample plate 58 are as follows: Rotate the disassembly clamping member 65 to completely remove the screw 66 from the threaded hole 61 and the through hole 64, and then remove sample plate 58 from the pad 25. Disassembling sample plate 58 only requires rotating the clamping member 65 in the opposite direction to completely remove the screw 66 from the threaded hole 61 and the through hole 64, and sample plate 58 can be easily removed. This achieves tool-free quick disassembly and assembly, greatly shortening the changeover time. At the same time, since all positioning and locking are completed through the same clamping member 65, the reliability of operation and the convenience of equipment maintenance are improved.

[0033] Step 7: Align the mounting holes 7 on the transparent base 3 with the connecting holes on the reinforcing layer. The end of the screw 10 passes through the mounting holes 7 and connecting holes in sequence, extending to the back of the reinforcing layer and connecting with the sealing washer 11 and nut 12. Apply waterproof sealant to the head of the screw 10 and around the nut 12. The waterproof sealant is an organic silicone sealant. The waterproof sealant covers the gap between the head of the screw 10 and the transparent base 3, and at the same time wraps the contact surface between the nut 12 and the sealing washer 11 to prevent rainwater from seeping in. The mechanical fastening of the transparent base 3 and the reinforcing layer 2 is achieved through the cooperation of the screw 10, the sealing washer 11 and the nut 12. The application of waterproof sealant at the connection point forms a double seal protection, effectively preventing rainwater from seeping in from the gaps in the mounting holes 7. Step 8: Sew the two reinforcing layers to the left chest area of ​​the initial garment according to the design requirements, with the seam located at the reinforcing edge. Then, screw the transparent mounting base 4 onto the transparent base 3, precisely sewing the reinforcing layer 2 component to the designated position on the initial garment, and confining the seam to the reinforcing edge area to prevent the needle from directly piercing the waterproof fabric body, thus maximizing the protection of the waterproof integrity of the garment body 1. Finally, assemble the transparent mounting base 4 to complete the integration of the entire functional component, realizing the functions of concealment, replaceability, and waterproof protection of the information label carrier.

[0034] This invention features a reinforcing layer 2 on the front of the garment and a fixed transparent base 3, along with a detachable transparent mounting bracket 4, placing the information tag within an internal cavity 5. This achieves durable protection and convenient replacement of the information tag in outdoor rainy conditions, protecting the information carrier from rain erosion and physical wear, while avoiding damage to the functional coatings (including waterproof and antistatic coatings) of the garment body 1 from frequent disassembly and reassembly. Simultaneously, the concealed design enhances the overall aesthetics and practicality, effectively solving the technical problems of traditional labeling methods being easily damaged, not rainproof, inconvenient to replace, and affecting the integrity of the garment. Furthermore, the transparent base 3 and transparent mounting bracket 4 are made of transparent engineering plastic, preferably flame-retardant polycarbonate (PC) or modified PMMA material, ensuring that the overall garment meets relevant fire and antistatic safety requirements, and allowing the information tag content to be read intuitively without disassembly, improving ease of use and information recognition efficiency.

[0035] The processing technology of this invention achieves high-precision punching, standardized cutting, edge reinforcement, and waterproof assembly of the two reinforcing layers on the garment in an integrated manner. It enables efficient, precise, and modular production of the garment's reinforcing layer 2 and the transparent base 3 components. While ensuring the accuracy of the connection holes, the sealing of the component assembly, and the strength of the stitching, it significantly improves the product's waterproof durability and overall aesthetics. This process utilizes a template plate 58 for guidance and a straight-line module 47 for precise punching to ensure consistent connection hole positions. Double marking plates and marking lines ensure unified cutting and folding benchmarks. The automatic flow of clamping, punching, marking, and blanking improves efficiency. Bending and reinforcing the edges, along with locking the edges for stitching, enhances structural durability. Bolts, sealing washers 11, and waterproof adhesive provide triple sealing to ensure waterproof reliability. Finally, without damaging the coating of the garment body 1, it efficiently and stably completes the secure integration of the transparent information installation module, significantly improving product consistency, waterproof performance, and production automation.

[0036] The above are merely specific embodiments of the present invention, but the technical features of the present invention are not limited thereto. Any simple changes, equivalent substitutions, or modifications made based on the present invention to solve essentially the same technical problems and achieve essentially the same technical effects are all covered within the protection scope of the present invention.

Claims

1. A high-pressure static resistance flame-retardant suit, comprising the suit body; Its features are: A reinforcing layer is provided on the front of the garment body, and the reinforcing layer is sewn to the garment body; A transparent base is provided on the reinforcing layer, and the transparent base is fixedly connected to the reinforcing layer. A transparent mounting seat is detachably installed on the transparent base. A placement cavity is provided inside the transparent mounting seat, and one end of the placement cavity is an open end, which is located on the outer wall of the transparent mounting seat. When the transparent mounting bracket is installed on the transparent base, the opening end is hidden and blocked.

2. The high-pressure static resistance flame-retardant suit according to claim 1, characterized in that: The transparent base is provided with mounting holes, and the reinforcing layer is provided with connecting holes. The connecting holes correspond one-to-one with the mounting holes. The screw passes through the mounting holes and connecting holes and connects with the sealing washer and the nut.

3. The high-pressure static resistance flame-retardant suit according to claim 2, characterized in that: The transparent base has an installation cavity, and the transparent mounting seat is embedded in the installation cavity. The side wall of the installation cavity has positioning grooves distributed circumferentially. The positioning grooves include a sliding cavity and a snap-in groove that are connected to each other. The side wall of the transparent mounting seat has positioning blocks distributed circumferentially. One side of the positioning block is provided with a limit baffle. The positioning block matches the sliding cavity and the snap-in groove. The positioning block is inserted into the sliding cavity, and then the transparent mounting base is rotated circumferentially to slide the positioning block from the sliding cavity into the locking cavity until the limiting baffle abuts against the intersection of the sliding cavity and the locking groove, at which point the transparent mounting base is installed in place.

4. The high-pressure static resistance flame-retardant suit according to claim 2, characterized in that: The top surface of the transparent mounting base has grooves distributed circumferentially, each groove corresponding to a positioning block. The end face of the groove is flush with the top surface of the positioning block, and the edge of the groove protrudes upward to form a convex handle, which is fixedly connected to the positioning block.

5. The processing technology of a high-pressure static resistance flame-retardant suit as described in any one of claims 1 to 4, characterized in that, Includes the following steps: Step 1: Cut various types of garment pieces according to the design requirements, sew the garment pieces together to obtain the initial garment product, and injection mold the transparent mounting base and transparent base according to the design requirements. Step 2: Cut out the initial reinforcement layer sheet according to the design requirements, and perform punching operation on the initial reinforcement layer sheet on the punching device. The punching device includes a mounting bracket, a processing table and a stamping component. Processing tables are symmetrically installed on both sides of the mounting bracket. Clamping devices are set on the processing tables. A guide hopper is set below the mounting bracket. An outlet slot is set on the mounting bracket. A stamping component is set on each processing table. A pad is installed on the processing table, and then the initial reinforcement layer sheet is laid flat on the pad. The clamping device is adjusted to clamp and fix the initial reinforcement layer sheet on the pad. Step 3: Install the template plate and press it firmly onto the initial sheet of the reinforcement layer. The template plate has template holes, and each template hole has a guide cone hole on its top surface. The pad plate has through holes, which correspond one-to-one with the template holes. Step 4: The stamping assembly includes a linear module, a lifting frame, and a stamping head. The linear module is fixedly connected to the mounting bracket, and the lifting frame is fixed to the slider screw of the linear module. The lifting frame is equipped with stamping heads that correspond one-to-one with the template holes. When the linear module is started, the slider drives the lifting frame to descend as a whole. The lifting frame drives the stamping head to descend. The stamping head extends into the guide cone hole and then into the corresponding positioning hole. It gradually moves down and passes through the initial reinforcing layer to punch holes in the initial reinforcing layer to form connecting holes until the end of the stamping head passes through the initial reinforcing layer and extends into the through hole by 1.5-5mm. Step 5: Start the linear module to drive the lifting frame and the stamping head to move up and reset. Attach the second scribing plate to the outside of the sample plate. Draw a line along the outer edge of the second scribing plate to form the second marking line on the reinforcing layer. Remove the second scribing plate and attach the first scribing plate to the outside of the sample plate. Cut out the reinforcing layer along the edge of the first scribing plate. Remove the first scribing plate and the sample plate. Take out the reinforcing layer and put it into the outlet slot of the mounting bracket. The reinforcing layer falls into the collection box through the outlet slot and the guide hopper for centralized collection. Step Six: For the collected reinforcing sheets, fold the edges of the reinforcing sheets along the second mark to the back of the reinforcing sheets, so that the edges of the reinforcing sheets form a reinforcing edge, and then fix it with the overlock stitch. Step 7: Align the mounting holes on the transparent base with the connecting holes on the reinforcing layer one by one. Pass the end of the screw through the mounting hole and connecting hole in sequence to the back of the reinforcing layer and connect with the sealing washer and nut. Apply waterproof sealant around the screw head and nut. Step 8: Sew the reinforcing layer to the left chest area of ​​the initial garment according to the design requirements, with the seam at the reinforcing edge. Then screw the transparent mounting bracket into the transparent base.

6. The processing technology of a high-pressure static resistance flame-retardant suit according to claim 5, characterized in that: In step two, the clamping steps of the clamping device are as follows: (1) The clamping device includes a clamping seat, a clamping plate and an adjusting screw. The clamping seat is provided with a sliding groove. The clamping seat is slidably engaged with the mounting bracket through the sliding groove. The clamping seat is also abutted and fixed with the mounting bracket by a clamping screw. The adjusting screw is threaded through the clamping seat. The bottom end of the adjusting screw is connected to the clamping plate through a bearing. The clamping plate is provided with a limit block. The clamping seat is provided with a limit groove. The limit block is slidably engaged in the limit groove. The top end of the adjusting screw is provided with an operating handle. (2) Two sets of clamping devices are set on each processing table. Loosen the clamping screws and slide along the mounting bracket to move the two sets of clamping devices to the two ends of the initial sheet of the reinforcement layer. Rotate the adjusting screw through the operating handle. The adjusting screw drives the clamping plate to move down until the clamping plate is pressed and limited at the end face of the initial sheet of the reinforcement layer. The clamping plate is always guided and limited by the limiting slide groove during movement. (3) A dovetail groove is provided on the sliding slot, and a dovetail slider is provided on the bottom surface of the processing table. The dovetail slider matches the dovetail groove, and the clamping seat is slidably clamped on the dovetail slider through the dovetail groove. During the adjustment of the clamping device, the clamping seat is always guided and limited by the dovetail slider.

7. The processing technology of a high-pressure static resistance flame-retardant suit according to claim 5, characterized in that: In step two above, the installation steps for the pad and the processing table are as follows: (1) Positioning holes are provided on all four corners of the pad, and positioning pins are provided on the processing table. The positioning pins and positioning holes are matched one by one. The positioning pins are inserted through and into the corresponding positioning holes, and a fastening nut is screwed into the through end of the positioning pin and tightened. (2) At the same time, the bottom surface of the pad is provided with a boss, and the processing table is provided with a relief groove. The boss is limited and locked in the relief groove, and the boss is provided with a cavity, and the through hole is connected to the cavity.

8. The processing technology of a high-pressure static resistance flame-retardant suit according to claim 5, characterized in that: In step four above, the lifting frame includes a frame body and a positioning plate. The frame body is connected to the linear module, and the positioning plate is fixed to the frame body. A drive motor is fixedly installed on the frame body. The motor shaft of the drive motor is connected to a drive gear. The bottom end of the drive gear is rotatably connected to the positioning plate through a bearing. The drive gear meshes with several driven gears along its circumference. The driven gears are fixed on the mounting sleeve. The top end of the mounting sleeve is rotatably connected to the frame body through a bearing. A guide sleeve is fixed through the positioning plate. The guide sleeve matches the mounting sleeve. The bottom end of the mounting sleeve extends through the guide sleeve to the bottom of the positioning plate and is connected to the punch head. The punch head is inserted into the mounting sleeve and fixed by a bolt assembly. When the linear module moves the lifting frame downward, the drive motor drives the drive gear to rotate. The drive gear drives the driven gear to rotate synchronously. The driven gear then drives the corresponding mounting sleeve to rotate. The mounting sleeve then drives the punch head fixed to it to rotate synchronously, so that the punch head also rotates during the punching process and the downward movement of the punch head.

9. The processing technology of a high-pressure static resistance flame-retardant suit according to claim 5, characterized in that: In step three above, the sample plate installation steps are as follows: (1) A positioning boss is provided on the pad, an anti-rotation groove is provided on the positioning boss, a threaded hole is provided in the anti-rotation groove, a positioning slot is provided on the template plate, the positioning slot matches the positioning boss, an anti-rotation block is provided in the positioning slot, the anti-rotation block matches the anti-rotation groove, and a through hole is provided on the anti-rotation block. (2) Place the sample plate on the pad, insert the positioning boss into the positioning slot, and at the same time insert the anti-rotation block into the anti-rotation slot; (3) Next, install the clamping part. A screw is provided below the clamping part. The screw passes through the through hole and is screwed into the threaded hole until the pressure block on the clamping part abuts and presses against the positioning boss and template plate.

10. A high-pressure static resistance flame-retardant suit according to claim 9, characterized in that: In step six above, the disassembly steps of the sample plate are as follows: rotate the disassembly clamping part, completely remove the screw from the threaded hole and through hole, and then remove the sample plate from the pad.

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