Multifunctional modular special protective workwear

Abstract

This application relates to the field of special protective clothing technology, and in particular to a multifunctional modular special protective workwear, comprising a garment body and a heating module. The heating module includes multiple detachable transparent flexible tubes mounted on the garment body, each containing multiple electric heating bands located in the non-joint movement areas of the garment body. A conductive wire is positioned between adjacent electric heating bands within the transparent flexible tubes. A light-emitting module is also located within the transparent flexible tubes. The garment body includes a cooling module for temperature reduction and an anti-static module for static electricity removal. This application is suitable for extreme cold environment insulation, wilderness forest search and rescue, nighttime emergency rescue, high-risk chemical operations, flammable and explosive explosion-proof and anti-static working conditions, high-temperature outdoor operations, and low-visibility underground operations. It is also applicable to robot insulation and home temperature control, and is a multi-purpose modular special wearable equipment integrating temperature control, warning, ventilation, and static electricity protection.

Description

Technical Field

[0001] This application relates to the field of special protective clothing technology, and in particular to a multifunctional modular special protective work suit. Background Technology

[0002] Special clothing refers to clothing with special functions or uses, mainly used to protect or enhance the human body in specific work scenarios.

[0003] Existing protective clothing has several technical shortcomings: 1. Traditional electric heating thermal clothing mostly adopts a double-layer structure of inner liner and outer jacket, which has poor reusability, limited heating area (mostly vest-style, unable to cover low-temperature areas such as hands, legs, and feet), and the double-layer structure of the outer jacket makes it difficult to disassemble and assemble the heating element. The clothing cannot be washed independently; the cables at the joints are severely pulled, restricting movement.

[0004] 2. Traditional air-conditioning cooling clothing only cools the upper body, while gloves, lower limbs, and shoes lack airflow structures, resulting in stuffiness and sweat accumulation in many parts of the body; heavy protective gloves and enclosed work shoes retain heat severely inside, causing hands to sweat and slip, affecting operational safety.

[0005] 3. Ordinary protective clothing lacks a full-body active light-emitting warning structure, resulting in low visibility for workers in nighttime, forest search and rescue, and dimly lit chemical workshop environments, which can easily lead to collisions and personnel loss of contact.

[0006] 4. In explosion-proof conditions, ordinary antistatic clothing relies solely on the fabric for antistatic properties, resulting in unstable contact resistance. Antistatic gloves and antistatic shoes are independent of each other, making it difficult to form a stable and continuous discharge circuit. Static discharge is easily interrupted, and the accumulation of static sparks on the body can easily ignite flammable and explosive media, posing a significant safety hazard.

[0007] Existing protective suits cannot be flexibly equipped with functions according to different working conditions, and have weak scene adaptability, which are shortcomings. Summary of the Invention

[0008] To improve the applicability of protective clothing in different scenarios, this application provides a multifunctional modular special protective work suit.

[0009] The multifunctional modular special protective workwear provided in this application adopts the following technical solution: A multifunctional modular special protective work suit includes a main body and a heating module. The heating module includes multiple transparent flexible tubes detachably mounted on the main body. The main body is equipped with a fixing component for securing the transparent flexible tubes. Multiple electric heating bands are installed inside the transparent flexible tubes, located in the non-joint movement area of ​​the main body. A conductive wire is installed between two adjacent electric heating bands inside the transparent flexible tubes. A power supply component for supplying power to the electric heating bands is installed on the main body. A light-emitting module for emitting light is installed inside the transparent flexible tubes. A cooling module for cooling and an anti-static module for removing static electricity are installed on the main body.

[0010] Optionally, the main body of the garment includes a top, gloves, trousers, and work shoes. One of the transparent tubes extends from the work shoes upward through the trouser leg to the hip of the trousers, then through the waist of the top to the front pocket of the top. Another transparent tube extends from the gloves through the wrist, across the arm and shoulder of the top, and then through the transition between the collar and shoulder of the top to the front pocket of the top.

[0011] By adopting the above technical solution, when heating and insulation are required in extreme low-temperature environments, the power supply component supplies power to the electric heating band. Simultaneously, with the connection of conductive flexible wires, the electric heating band, located in a transparent flexible tube on the main body of the clothing, heats the upper garment, gloves, trousers, and work shoes simultaneously through radiation, convection, and heat conduction, thereby maintaining a stable body temperature. At the same time, the conductive flexible wires corresponding to the joint movement areas of the main body of the clothing allow the human body to move freely, reducing the possibility of damage to the electric heating band caused by human movement. In addition, the light-emitting module enables the wearer to work in low-visibility environments, the cooling module enables the wearer to work in high-temperature environments, and the anti-static module enables the wearer to work in anti-static working environments, greatly improving the applicability of the protective clothing in different scenarios.

[0012] Optionally, the fixing component includes a zipper sewn onto the outside of the fabric in the non-joint movable area of ​​the garment body, forming a continuous narrow cavity between the zipper and the outer fabric of the garment body, through which the transparent flexible tube passes. Fixing blocks are sewn onto both ends of the zipper, and the fixing blocks are provided with slots for clamping the transparent flexible tube.

[0013] By adopting the above technical solution, the zipper design makes it convenient for the wearer to put on the garment and also facilitates the disassembly and replacement of the transparent hose, thereby enabling the main body of the garment to be washed independently. At the same time, the zipper makes it easy to adjust and fix the heating position of the electric heating belt inside the transparent hose, thus achieving the effect of directional heat conduction to the human body.

[0014] Optionally, the power assembly includes a heat-insulating protective plate disposed in the front chest pocket of the garment, a battery pack disposed on the heat-insulating protective plate, a first magnetic conductive connector disposed between the conductive wire and the electrodes of the battery pack, and a protective component disposed on the heat-insulating protective plate for fixing the battery pack.

[0015] Optionally, the protective component includes low-melting-point plastic strips fitted at both ends of the battery pack, a compression spring supporting the battery pack and the heat insulation plate, and receiving grooves for accommodating the plastic strips on both the battery pack and the heat insulation plate.

[0016] By adopting the above technical solution, the wearer can control whether to heat the device using the first magnetic conductive connector, without a complex control unit. This greatly reduces the possibility of device damage. At the same time, the heat insulation plate can effectively protect the body, reducing the possibility of the battery pack being damaged and overheating, which could harm the human body. Furthermore, the low-melting-point plastic strip is easily melted by the damaged and overheated battery pack. After the plastic strip melts, it will be quickly ejected from the body by the compression spring. At this time, the first magnetic conductive connector will also quickly disconnect, greatly protecting the wearer's personal safety.

[0017] Optionally, the light-emitting module includes a flexible light strip disposed within the transparent flexible tube, and a second magnetic conductive connector is disposed between the flexible light strip and the electrodes of the battery pack.

[0018] By adopting the above technical solutions, flexible light strips can effectively enable wearers to carry out operations in low-visibility environments.

[0019] Optionally, the cooling module includes an air pump located in the front chest pocket of the garment, a transparent hose connected to the air outlet of the air pump, a third magnetic conductive connector between the air pump and the electrodes of the battery pack, several air holes on the transparent hose at the zipper, and through holes on the fabric of the garment body at the zipper.

[0020] By adopting the above technical solution, when cooling is required in a high-temperature environment, the wearer supplies power to the air pump through the third magnetic conductive connector. The air pumped out by the air pump flows along the transparent hose and cools the wearer through the air holes on the transparent hose and the through holes in the main fabric of the clothing. This allows the body parts of the upper garment, gloves, trousers and work shoes to cool down simultaneously, reducing the problems of stuffiness, sweat accumulation and slipping, and greatly improving the wearer's suitability for working in high-temperature environments.

[0021] Optionally, the antistatic module includes a conductive network layer disposed on the glove and a conductive substrate disposed on the work shoe, wherein the conductive network layer is in direct contact with the skin of the palm and the conductive substrate is in contact with the skin of the sole.

[0022] By adopting the above technical solution, the static charge generated by friction during human activity is discharged to the ground through the conductive network in the palm and the conductive substrate on the sole of the foot, avoiding the accumulation of static electricity in the human body that could generate discharge sparks. The entire circuit is automatically connected when worn, without the need for external grounding wiring.

[0023] In summary, this application includes at least one of the following beneficial technical effects: When heating and insulation are required in extremely low-temperature environments, the power supply unit supplies power to the electric heating band. Simultaneously, with the connection of conductive flexible wires, the electric heating band, located in a transparent flexible tube on the main body of the clothing, heats the upper garment, gloves, trousers, and work shoes simultaneously through radiation, convection, and heat conduction, thereby maintaining a stable body temperature. At the same time, the conductive flexible wires corresponding to the joint movement areas of the main body of the clothing allow the wearer to move freely, reducing the possibility of damage to the electric heating band caused by human movement. In addition, the light-emitting module enables the wearer to work in low-visibility environments, the cooling module enables the wearer to work in high-temperature environments, and the anti-static module enables the wearer to work in anti-static working environments, greatly improving the applicability of the protective clothing in different scenarios. The zipper design makes it easy for the wearer to put on and take off, and also makes it easy to remove and replace the transparent tube, thus enabling the main body of the garment to be washed independently. At the same time, the zipper makes it easy to adjust and fix the heating position of the electric heating belt inside the transparent tube, thereby achieving the effect of directional heat conduction to the human body. The wearer controls the heating process using a first magnetic conductive connector, eliminating the need for a complex control unit. This significantly reduces the likelihood of device damage. Meanwhile, the heat-insulating protective plate effectively protects the body, minimizing the possibility of the battery pack overheating and harming the wearer. Furthermore, the low-melting-point plastic strip is easily melted by a damaged or overheated battery pack. Once melted, the plastic strip is quickly released from the body by a spring, causing the first magnetic conductive connector to disconnect rapidly, thus greatly protecting the wearer's safety. When cooling is required in a high-temperature environment, the wearer powers the air pump through the third magnetic conductive connector. The air pumped out by the air pump flows along the transparent hose and cools the wearer through the air holes on the transparent hose and the through holes in the main fabric of the clothing. This allows the body parts of the upper garment, gloves, trousers and work shoes to cool down simultaneously, reducing the problems of stuffiness, sweat accumulation and slipping, and greatly improving the wearer's suitability for working in high-temperature environments. Attached Figure Description

[0024] Figure 1 This is a structural schematic diagram of an embodiment of this application.

[0025] Figure 2 This is a structural schematic diagram used in the embodiments of this application to illustrate the positional relationship between the zipper, the transparent hose, and the fixed tube block.

[0026] Figure 3 This is a cross-sectional view used in the embodiments of this application to illustrate the positional relationship between the electric heating belt, the transparent hose, and the solid block.

[0027] Figure 4 This is a partial cross-sectional view in the embodiments of this application used to illustrate the positional relationship between the battery pack, the heat insulation plate, and the plastic strip.

[0028] Figure 5 This is a structural schematic diagram illustrating the positional relationship between the air pump, the heat insulation plate, and the battery pack in the embodiments of this application.

[0029] Explanation of reference numerals in the attached drawings: 1. Main body of clothing; 11. Top; 12. Gloves; 13. Trousers; 14. Work shoes; 2. Heating module; 21. Transparent flexible tube; 22. Fixing fitting; 221. Zipper; 222. Fixing block; 223. Slot; 23. Electric heating strip; 24. Conductive flexible wire; 3. Power supply assembly; 31. Heat insulation and protective plate; 32. Battery pack; 33. First magnetic conductive connector; 34. Protective component; 341. Plastic strip; 342. Compression spring; 343. Receiving slot; 4. Light-emitting module; 41. Flexible light strip; 42. Second magnetic conductive connector; 5. Cooling module; 51. Air pump; 52. Third magnetic conductive connector; 53. Air hole; 54. Through hole; 61. Conductive network layer; 62. Conductive substrate; 7. Installation slot. Detailed Implementation

[0030] The following is in conjunction with the appendix Figures 1-5 This application will be described in further detail.

[0031] This application discloses a multifunctional modular special protective work suit.

[0032] Reference Figure 1 , Figure 2 and Figure 3 A multifunctional modular special protective work suit includes a main body 1 and a heating module 2. The main body 1 includes a top 11, gloves 12, trousers 13 and work shoes 14. The heating module 2 includes multiple transparent flexible tubes 21 that are detachably arranged on the main body 1. The cross-section of the transparent flexible tubes 21 can be of any geometric shape.

[0033] Reference Figure 1 , Figure 2 and Figure 3Multiple transparent tubes 21 are symmetrically distributed on both sides of the human body. One transparent tube 21 extends from the work shoe 14 through the trouser leg of the trousers 13 to the hip of the trousers 13, then through the waist of the shirt 11 to the armpit of the shirt 11, and finally to the front pocket of the shirt 11. Another transparent tube 21 extends from the glove 12 through the wrist, through the arm and shoulder of the shirt 11, and then through the collar and shoulder of the shirt 11 to the front pocket of the shirt 11.

[0034] Reference Figure 2 The main body of the garment 1 is provided with a fixing fitting 22 for fixing the transparent flexible tube 21.

[0035] Reference Figure 1 and Figure 2 The fastener 22 includes a zipper 221 sewn onto the outside of the fabric in the non-joint moving area of ​​the garment body 1, such as a zipper 221 sewn onto the back of the glove 12, the forearm, upper wrist, side of the chest and shoulder of the shirt 11, and the middle of the lower leg and thigh of the trousers 13. Here, the zipper 221 can also be replaced with Velcro.

[0036] Reference Figure 2 A continuous, narrow cavity is formed between the zipper 221 and the outer fabric of the garment body 1. The transparent tube 21 passes through the continuous, narrow cavity. Both ends of the zipper 221 are sewn with tube blocks 222. The tube blocks 222 can be made of flexible plastic material. The tube blocks 222 have slots 223 for clamping the transparent tube 21.

[0037] Reference Figure 1 , Figure 2 and Figure 3 Multiple electric heating bands 23 are threaded inside the transparent flexible tube 21, or a single electric heating band 23 can be used. The electric heating bands 23 are located in the non-joint movement area of ​​the main body of the garment 1. A conductive wire 24 is connected between two adjacent electric heating bands 23 inside the transparent flexible tube 21.

[0038] The design of the zipper 221 facilitates the wearer's wearing and disassembly and replacement of the transparent hose 21, thereby enabling the garment body 1 to be washed independently. At the same time, the zipper 221 facilitates the adjustment and fixation of the heating position of the electric heating band 23 inside the transparent hose 21, thereby achieving the effect of directional heat conduction to the human body. Meanwhile, the slot 223 on the tube fixing block 222 can clamp, fix and seal the transparent hose 21, reducing the possibility of rainwater accidentally entering the garment body 1.

[0039] Reference Figure 1 and Figure 4 The main body of the garment 1 is equipped with a power supply component 3 that supplies power to the electric heating belt 23.

[0040] Reference Figure 1 and Figure 4 The power assembly 3 includes a heat-insulating protective plate 31 sewn into the front chest pocket of the jacket 11. The heat-insulating protective plate 31 may be made of aluminum alloy. A battery pack 32 is arranged on the heat-insulating protective plate 31. A first magnetic conductive connector 33 is arranged between the conductive wire 24 and the electrodes of the battery pack 32. A protective member 34 for fixing the battery pack 32 is arranged on the heat-insulating protective plate 31.

[0041] Reference Figure 1 and Figure 4 The protective component 34 includes a low-melting-point plastic strip 341 sleeved on both ends of the battery pack 32. Multiple compression springs 342 are supported between the battery pack 32 and the heat insulation plate 31. Multiple mounting slots 7 for accommodating the compression springs 342 are provided on the heat insulation plate 31. The compression springs 342 correspond one-to-one with the mounting slots 7. Both the battery pack 32 and the heat insulation plate 31 are provided with receiving slots 343 for accommodating the plastic strips 341.

[0042] When heating and heat preservation are required, the wearer connects the first magnetic conductive connector 33 to the electrode of the battery pack 32. The electric heating belt 23 is energized and generates heat. The heat is simultaneously heated to the upper garment 11, gloves 12, trousers 13 and work shoes 14 through radiation, convection and heat conduction, so that the human body can maintain a stable body temperature in a low-temperature environment. At the same time, whether to heat is controlled by the wearer, without a complicated control unit, thus greatly reducing the possibility of equipment damage.

[0043] Meanwhile, the conductive flexible wires 24 corresponding to the joint movement area of ​​the main body of the clothing 1 allow for free movement of the human body without affecting walking, climbing, or grasping operations. They can be worn by personnel, used for robot wrapping and insulation, and can also be used for home temperature control and warmth, making them applicable to a wide range of scenarios.

[0044] Moreover, the heat insulation plate 31 can effectively protect the body. When the battery pack 32 is damaged and heats up, the low melting point plastic strip 341 is easily melted by the damaged and heated battery pack 32. After the plastic strip 341 melts, it will be quickly popped away from the human body by the compression spring 342. At this time, the first magnetic conductive connector 33 will also be quickly disconnected, thereby protecting the wearer's personal safety.

[0045] Reference Figure 3 and Figure 4 The transparent flexible tube 21 contains a light-emitting module 4 for emitting light. The light-emitting module 4 includes multiple flexible light strips 41 that pass through the transparent flexible tube 21. The flexible light strips 41 and the electric heating strip 23 can be woven together on a wire harness, or they can be used separately. The flexible light strips 41 can be flexible waterproof LED light strips in the prior art. A second magnetic conductive connector 42 is arranged between the flexible light strips 41 and the electrodes of the battery pack 32.

[0046] When working in low-visibility environments, the wearer connects the second magnetic conductive connector 42 to the electrodes of the battery pack 32, thereby energizing the flexible light strip 41 and enabling the exposed part of the transparent flexible tube 21 to be illuminated, thus facilitating the wearer's work. Furthermore, the flexible light strip 41 can be equipped with a control unit to switch between constant-on and strobe modes, actively illuminating the location of the worker in low-visibility conditions, and achieving the functions of safety warning and search and rescue positioning.

[0047] Reference Figure 5 The main body of the garment 1 is equipped with a cooling module 5 for cooling down.

[0048] Reference Figure 2 , Figure 3 and Figure 4 The cooling module 5 includes an air pump 51 located in the front chest pocket of the jacket 11, a transparent hose 21 connected to the air outlet of the air pump 51, a third magnetic conductive connector 52 arranged between the air pump 51 and the electrode of the battery pack 32, several air holes 53 opened on the transparent hose 21 at the zipper 221, and through holes 54 opened on the fabric of the garment body 1 at the zipper 221.

[0049] When cooling is needed, the wearer connects the third magnetic conductive connector 52 to the electrode of the battery pack 32 to supply air to the transparent hose 21 of the air pump 51. The air pumped out by the air pump 51 flows along the transparent hose 21 and cools the wearer through the air holes 53 on the transparent hose 21 and the through holes 54 on the fabric of the main body of the clothing 1. This allows the body parts of the upper garment 11, gloves 12, trousers 13 and work shoes 14 to cool down simultaneously, reducing the problem of stuffiness and sweat accumulation in high-temperature environments.

[0050] At the same time, when rapid heating is required, the first magnetic conductive connector 33 and the third magnetic conductive connector 52 can be connected simultaneously, and the airflow can quickly deliver heat to the wearer's whole body, thereby improving the heating efficiency.

[0051] Reference Figure 1 The main body of the garment 1 is equipped with an anti-static module for removing static electricity.

[0052] Reference Figure 1 The antistatic module includes a conductive network layer 61 arranged on the glove 12 and a conductive substrate 62 arranged on the work shoe 14. The conductive network layer 61 is made of conductive polymer composite material, conductive fabric or metal conductive mesh and is in direct contact with the skin of the palm. The conductive substrate 62 is made of conductive polymer material or conductive fabric and is in contact with the skin of the foot.

[0053] The static charge generated by friction during human activity is discharged to the ground through the conductive network in the palm and the conductive substrate 62 on the sole of the foot, preventing the accumulation of static electricity in the human body from generating discharge sparks. The entire circuit is automatically connected when worn, without the need for external grounding wiring, making it suitable for chemical, oil and gas, and dust explosion-proof scenarios with strict static electricity control.

[0054] The implementation principle of a multifunctional modular special protective work clothes in this application embodiment is as follows: The design of the zipper 221 is convenient for the wearer to put on, and also convenient for the disassembly, replacement and maintenance of the transparent hose 21, so that the main body of the clothing 1 can be washed independently. At the same time, the zipper 221 makes it easy to adjust and fix the heating position of the electric heating belt 23 inside the transparent hose 21, thereby achieving the effect of directional heat conduction to the human body.

[0055] When heating and heat preservation are required, the wearer connects the first magnetic conductive connector 33 to the electrode of the battery pack 32. The electric heating belt 23 is energized and generates heat. The heat is simultaneously heated to the upper garment 11, gloves 12, trousers 13 and work shoes 14 through radiation, convection and heat conduction, so that the human body can maintain a stable body temperature in a low-temperature environment. At the same time, whether to heat is controlled by the wearer, without a complicated control unit, thus greatly reducing the possibility of equipment damage.

[0056] Meanwhile, the conductive flexible wires 24 corresponding to the joint movement area of ​​the main body of the clothing 1 allow for free movement of the human body without affecting walking, climbing, or grasping operations. They can be worn by personnel, used for robot wrapping and insulation, and can also be used for home temperature control and warmth, making them applicable to a wide range of scenarios.

[0057] Moreover, the heat insulation plate 31 can effectively protect the body. When the battery pack 32 is damaged and heats up, the low melting point plastic strip 341 is easily melted by the damaged and heated battery pack 32. After the plastic strip 341 melts, it will be quickly popped away from the human body by the compression spring 342. At this time, the first magnetic conductive connector 33 will also be quickly disconnected, thereby protecting the wearer's personal safety.

[0058] When working in low-visibility environments, the wearer connects the second magnetic conductive connector 42 to the electrodes of the battery pack 32, thereby energizing the flexible light strip 41 and enabling the exposed part of the transparent flexible tube 21 to be illuminated, thus facilitating the wearer's work. Furthermore, the flexible light strip 41 can be equipped with a control unit to switch between constant-on and strobe modes, actively illuminating the location of the worker in low-visibility conditions, and achieving the functions of safety warning and search and rescue positioning.

[0059] When cooling is needed, the wearer connects the third magnetic conductive connector 52 to the electrode of the battery pack 32 to supply air to the transparent hose 21 of the air pump 51. The air pumped out by the air pump 51 flows along the transparent hose 21 and cools the wearer through the air holes 53 on the transparent hose 21 and the through holes 54 on the fabric of the main body of the clothing 1. This allows the body parts of the upper garment 11, gloves 12, trousers 13 and work shoes 14 to cool down simultaneously, reducing the problem of stuffiness and sweat accumulation in high-temperature environments.

[0060] At the same time, when rapid heating is required, the first magnetic conductive connector 33 and the third magnetic conductive connector 52 can be connected simultaneously, and the airflow can quickly deliver heat to the wearer's whole body, thereby improving the heating efficiency.

[0061] The static charge generated by friction during human activity is discharged to the ground through the conductive network in the palm and the conductive substrate 62 on the sole of the foot, preventing the accumulation of static electricity in the human body from generating discharge sparks. The entire circuit is automatically connected when worn, without the need for external grounding wiring, making it suitable for chemical, oil and gas, and dust explosion-proof scenarios with strict static electricity control.

[0062] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A multifunctional modular special protective work suit, characterized in that: The garment includes a main body (1) and a heating module (2). The heating module (2) includes multiple transparent flexible tubes (21) detachably mounted on the main body (1). The main body (1) is provided with a fixing fitting (22) for fixing the transparent flexible tubes (21). Multiple electric heating bands (23) are provided inside the transparent flexible tubes (21). The electric heating bands (23) are located in the non-joint movement area of ​​the main body (1). A conductive flexible wire (24) is provided between two adjacent electric heating bands (23) inside the transparent flexible tubes (21). A power supply assembly (3) for supplying power to the electric heating bands (23) is provided on the main body (1). A light-emitting module (4) for emitting light is provided inside the transparent flexible tubes (21). A cooling module (5) for cooling and an anti-static module for removing static electricity are provided on the main body (1).

2. The multifunctional modular special protective work suit according to claim 1, characterized in that: The main body of the garment (1) includes a shirt (11), gloves (12), trousers (13) and work shoes (14). One of the transparent hoses (21) extends from the work shoes (14) through the trouser leg of the trousers (13) to the hip of the trousers (13), and then through the waist of the shirt (11) to the front pocket of the shirt (11). Another transparent hose (21) extends from the gloves (12) through the wrist, through the arm and shoulder of the shirt (11), and then through the collar and shoulder of the shirt (11) to the front pocket of the shirt (11).

3. The multifunctional modular special protective work suit according to claim 2, characterized in that: The fixing component (22) includes a zipper (221) sewn onto the outside of the fabric of the non-joint movable area of ​​the garment body (1). A continuous narrow cavity is formed between the zipper (221) and the outer fabric of the garment body (1). The transparent tube (21) passes through the continuous narrow cavity. Fixing blocks (222) are sewn onto both ends of the zipper (221). The fixing blocks (222) are provided with slots (223) for clamping the transparent tube (21).

4. The multifunctional modular special protective work suit according to claim 2, characterized in that: The power assembly (3) includes a heat-insulating protective plate (31) disposed in the front chest pocket of the jacket (11), a battery pack (32) disposed on the heat-insulating protective plate (31), a first magnetic conductive connector (33) disposed between the conductive wire (24) and the electrodes of the battery pack (32), and a protective member (34) for fixing the battery pack (32) disposed on the heat-insulating protective plate (31).

5. A multifunctional modular special protective work suit according to claim 4, characterized in that: The protective component (34) includes a low-melting-point plastic strip (341) sleeved on both ends of the battery pack (32), a compression spring (342) supporting the battery pack (32) and the heat insulation plate (31), and a receiving groove (343) for accommodating the plastic strip (341) is provided on both the battery pack (32) and the heat insulation plate (31).

6. The multifunctional modular special protective work suit according to claim 4, characterized in that: The light-emitting module (4) includes a flexible light strip (41) disposed in the transparent flexible tube (21), and a second magnetic conductive connector (42) is disposed between the flexible light strip (41) and the electrode of the battery pack (32).

7. A multifunctional modular special protective work suit according to claim 4, characterized in that: The cooling module (5) includes an air pump (51) located in the front chest pocket of the top (11), a transparent hose (21) connected to the air outlet of the air pump (51), a third magnetic conductive connector (52) between the air pump (51) and the electrode of the battery pack (32), a plurality of air holes (53) on the transparent hose (21) at the zipper (221), and a through hole (54) on the fabric of the garment body (1) at the zipper (221).

8. A multifunctional modular special protective work suit according to claim 2, characterized in that: The static elimination module includes a conductive network layer (61) disposed on the glove (12) and a conductive substrate (62) disposed on the work shoe (14). The conductive network layer (61) is in direct contact with the skin of the palm, and the conductive substrate (62) is in contact with the skin of the foot.

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