Human body static electricity leading-out platform for photovoltaic module production and use method of human body static electricity leading-out platform

Abstract

The invention discloses a human body static electricity guiding-out platform for photovoltaic module production and a using method, and relates to the field of photovoltaic module machining, the human body static electricity guiding-out platform comprises an operation table mechanism, the operation table mechanism is used for guiding out static electricity on the body of an operator, the operation table mechanism comprises a terrace and an operation table assembly, and a rubber mat panel is arranged on the upper surface of the operation table; the static shoe mechanism is used for being worn by an operator, the static shoe mechanism comprises a shoe body, a wrist strap and a sole assembly, and the sole assembly is made of a conductive material. The platform is improved, an operator can directly walk on the operating table only by wearing the static shoes, a rubber mat panel on the operating table provides a comfortable treading effect, the operator cannot be tired after standing for a long time, the static shoes are provided with static rings at wrist straps, the static rings make contact with the skin of the human body, and the static shoes are more comfortable to wear. The static electricity is directly guided into the sole assembly, is transmitted to the operation table and is transferred to the ground, the static electricity shoe does not need additional wired connection, and an operator can walk more flexibly.

Description

Technical Field

[0001] The present invention relates to the technical field of photovoltaic component processing, and in particular to a human body static electricity extraction platform for photovoltaic component production and a use method thereof. Background Art

[0002] During the production of photovoltaic modules, there is a problem of junction box diode breakdown in the junction box area; since the diode inside the junction box is an electronic component with unidirectional conductivity. In the fields of industrial automation, electric power, etc., high-power rectifier diodes are often used. The breakdown of the junction box in the photovoltaic industry is mainly caused by excessive current.

[0003] Therefore, the corresponding required positions have been changed from the original floor mats to galvanized plates and wired shoe straps are worn. However, people will experience physical discomfort (such as numbness of the legs) if they stand on the galvanized plates for a long time. In the component manufacturing process, there are problems such as people lying on the components and operating errors, as well as major risks such as hidden cracks in the process and scratches on the back panel and wet leakage. There are also cases of tripping over the wires of the wire shoe straps, and there is a risk that the components are blocked by the connecting wires during rotation, causing injuries to people. The above platforms have greatly reduced work efficiency. Summary of the invention

[0004] The present invention aims to solve one of the technical problems in the related art at least to a certain extent.

[0005] To this end, the purpose of the present invention is to provide a human body static electricity extraction platform and a method of use for photovoltaic module production. By improving the platform, a comfortable stepping effect is provided, and people will not feel tired when standing for a long time. The static electricity shoes directly transfer the static electricity to the ground, and no additional wired connection is required, so the operator can walk more flexibly.

[0006] To achieve the above-mentioned purpose, the present invention proposes a human body static electricity extraction platform for photovoltaic module production, including an operating table mechanism, wherein the operating table mechanism is used to extract static electricity from the operator's body, the operating table mechanism includes a floor and an operating table assembly, wherein the operating table assembly is arranged on the floor, the operating table assembly includes a grounding pile and an operating table, wherein the operating table is arranged on the floor, the grounding pile is arranged through the floor, and the grounding pile is electrically connected to the operating table, the upper surface of the operating table is provided with a rubber pad panel, and also includes an electrostatic shoe mechanism, the electrostatic shoe mechanism is used for operators to wear and use, the electrostatic shoe mechanism includes a shoe body, a wristband and a sole assembly, wherein the wristband is arranged at the ankle of the shoe body, an electrostatic ring is arranged on the inner wall of the wristband, the sole assembly is arranged at the bottom of the shoe body, the sole assembly and the operating table match each other, and the sole assembly is made of conductive material.

[0007] Furthermore, a connecting wire is provided between the wristband and the sole assembly, the top end of the connecting wire is electrically connected to the electrostatic ring, and the bottom end of the connecting wire is electrically connected to the sole assembly.

[0008] Furthermore, the sole assembly includes an outsole, an insole and an insole, wherein the outsole is arranged at the bottom of the shoe body, the insole is arranged on the inner side of the outsole, the insole is arranged on the upper surface of the insole, a conductive filling is arranged inside the outsole, the bottom of the connecting wire is connected to the conductive filling, and a conductive fabric is arranged on the upper surface of the insole, and the edge portion of the conductive fabric is in contact with the conductive filling.

[0009] Furthermore, a galvanized anti-skid groove is provided at the bottom of the outer sole, and a galvanized anti-skid tooth is provided on the upper surface of the operating table. The galvanized anti-skid tooth is adapted to the galvanized anti-skid groove, the galvanized anti-skid groove is in contact with the conductive filling, and the galvanized anti-skid tooth is electrically connected to the operating table.

[0010] Furthermore, a rubber pad panel is provided on the upper surface of the operating table, the galvanized anti-skid teeth are provided on the rubber pad panel, a buffer block is provided inside the rubber pad panel, a galvanized sandwich panel is provided on the buffer block, the bottom of the galvanized anti-skid teeth is connected to the galvanized sandwich panel, the bottom of the galvanized sandwich panel is connected to a conductive wire, the conductive wire is connected to the operating table, the galvanized sandwich panel is made of anti-fatigue galvanized sheet, and the rubber pad panel is made of anti-fatigue soft rubber pad.

[0011] Furthermore, a ground pile connecting line is provided between the operating platform and the ground pile, an indication aisle is also provided on the floor, an electrostatic pile mechanism is provided on one side of the indication aisle, the electrostatic pile mechanism is used to remove static electricity carried on the body of the operator when entering the site, the electrostatic pile mechanism includes an electrostatic pile, a lampshade and a touch panel, wherein the electrostatic pile is provided on one side of the indication aisle, the electrostatic pile is electrically connected to the ground pile, the lampshade is provided on the top of the electrostatic pile, the touch panel is provided on the lampshade, the touch panel is electrically connected to the electrostatic pile, a switch panel is provided on the touch panel, a contact switch is provided at the bottom of the switch panel, and the contact switch is connected to a first prompt light and a second prompt light.

[0012] Furthermore, the wristband is provided with a strap, and the electrostatic ring has a built-in spring cord or elastic band.

[0013] In addition, in order to achieve the above-mentioned purpose, the present invention provides a method for using a human body static electricity extraction platform for photovoltaic module production, using the above-mentioned human body static electricity extraction platform for photovoltaic module production, comprising the following steps: S1. The operator first enters the platform floor and moves forward along the indicated aisle. When passing the static pile mechanism, he presses the switch panel on the contact panel with his hand. When the first prompt light turns off and the second prompt light turns on, it means that the body is completely de-electrified. Then the operator continues to move forward and enters the operating table; S2. The operator unfastens the wrist strap through the strap, puts the foot into the shoe body, and then tightens the strap to complete the operation.

[0014] Furthermore, in step S1, after the operator presses the touch panel with his hand, the static electricity on the body is transmitted to the touch panel, and the touch panel transfers the static electricity to the static electricity pile, and then continues to transfer along the static electricity pile to the grounding pile and is discharged to the ground; When the operator's hand touches the switch panel, the static electricity on the body is discharged, and at the same time, the contact switch at the bottom of the switch panel controls the second prompt light to light up and the first prompt light to go out; when the operator's hand leaves the touch panel, the contact switch controls the first prompt light to light up and the second prompt light to go out.

[0015] Furthermore, in step S2, after the operator puts on the shoe, the skin at the operator's ankle is in direct contact with the electrostatic ring on the inside of the wristband, and the electrostatic ring transmits static electricity to the connecting wire, which transmits static electricity to the galvanized anti-skid groove of the sole assembly. When the operator walks on the operating table, the galvanized anti-skid groove contacts the galvanized anti-skid teeth on its surface, transmitting static electricity to the operating table. The static electricity is transmitted along the ground pile connecting wire to the grounding pile and then discharged to the ground.

[0016] Beneficial effect: By improving the platform, the present invention allows operators to walk directly on the operating table only by wearing anti-static shoes. The rubber pad panel on the operating table provides a comfortable stepping effect, and operators will not feel tired after standing for a long time. The anti-static shoes are equipped with an anti-static ring at the wristband. The anti-static ring contacts the human skin and directly introduces static electricity into the sole assembly. The static electricity is transmitted to the operating table and transferred to the ground. The anti-static shoes do not require additional wired connections, and the operator can walk more flexibly.

[0017] Additional aspects and advantages of the present invention will be given in part in the following description and in part will be obvious from the following description, or will be learned through practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] The above and / or additional aspects and advantages of the present invention will become apparent and easily understood from the following description of the embodiments in conjunction with the accompanying drawings, in which: Figure 1 A schematic diagram of the structure of a human body static electricity removal platform for photovoltaic module production according to an embodiment of the present invention; Figure 2 A schematic diagram of the structure of an anti-static shoe mechanism in a human body static electricity extraction platform for photovoltaic module production according to an embodiment of the present invention; Figure 3 A schematic cross-sectional view of an electrostatic pile mechanism in a human body electrostatic discharge platform for photovoltaic module production according to an embodiment of the present invention; Figure 4 A schematic cross-sectional view of an operating table assembly in a human body static electricity removal platform for photovoltaic assembly production according to an embodiment of the present invention; Figure 5 The figure is a schematic cross-sectional structural diagram of a sole assembly in a human body static electricity extraction platform for producing photovoltaic assemblies according to an embodiment of the present invention.

[0019] As shown in the figure: 1. Anti-static shoe mechanism; 11. Wristband; 12. Connecting wire; 13. Shoe body; 14. Sole assembly; 141. Outsole; 142. Conductive fabric; 143. Insole; 144. Insole; 145. Conductive filling; 146. Galvanized anti-skid groove; 15. Binding strap; 16. Connecting buckle; 17. Anti-static ring; 2. Operation table mechanism; 21. Floor; 22. Operation table assembly; 221. Rubber pad panel; 222 , conductive wire; 223, galvanized anti-slip teeth; 224, galvanized sandwich panel; 225, buffer block; 226, operating table; 23, grounding pile; 231, grounding pile connecting line; 24, electrostatic pile mechanism; 241, electrostatic pile; 242, lampshade; 243, support rod; 244, first prompt light; 245, second prompt light; 246, contact panel; 247, contact switch; 248, switch panel; 25, indicating aisle. DETAILED DESCRIPTION

[0020] Embodiments of the present invention are described in detail below, examples of which are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar elements or elements having the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to be used to explain the present invention, and should not be construed as limiting the present invention.

[0021] The following describes the human body static electricity removal platform and its use method for photovoltaic module production according to an embodiment of the present invention in conjunction with the accompanying drawings.

[0022] like Figure 1-Figure 4 As shown, the human body static electricity extraction platform for photovoltaic module production provided by an embodiment of the present invention includes an operating table mechanism 2, the operating table mechanism 2 is used to extract static electricity from the operator's body, the operating table mechanism 2 includes a floor 21 and an operating table assembly 22, wherein the operating table assembly 22 is arranged on the floor 21, the operating table assembly 22 includes a grounding pile 23 and an operating table 226, wherein the operating table 226 is arranged on the floor 21, the grounding pile 23 is arranged on the floor 21, and the grounding pile 23 is electrically connected to the operating table 226, and the upper surface of the operating table 226 is provided with a rubber pad panel 221.

[0023] It also includes an electrostatic shoe mechanism 1, which is used for operators to wear and use. The electrostatic shoe mechanism 1 includes a shoe body 13, a wristband 11 and a sole assembly 14, wherein the wristband 11 is arranged at the ankle of the shoe body 13, an electrostatic ring 17 is arranged on the inner wall of the wristband 11, and the sole assembly 14 is arranged at the bottom of the shoe body 13. The sole assembly 14 matches the operating table 226, and the sole assembly 14 is made of conductive material.

[0024] Specifically, the operator first enters the floor 21 of the platform and enters the operating table 226 along the indicated aisle 25. Then the operator unfastens the wristband 11 through the strap 15, puts the foot into the shoe body 13, and then tightens the strap 15. After the operator has put on the shoe body 13, since the skin at the operator's ankle is in direct contact with the electrostatic ring 17 on the inside of the wristband 11, the electrostatic ring 17 transmits the static electricity to the connecting wire 12, and the connecting wire 12 transmits the static electricity to the sole assembly 14. When the operator walks on the operating table 226, the sole assembly 14 is in electrical contact with the operating table 226, and the static electricity generated by the human body is transmitted to the operating table 226 in time. The static electricity is transmitted to the grounding pile 23 along the ground pile connecting line 231 and then discharged to the ground.

[0025] In one embodiment of the present invention, Figure 2 As shown, a connecting wire 12 is provided between the wristband 11 and the sole assembly 14 , the top end of the connecting wire 12 is electrically connected to the electrostatic ring 17 via a connecting buckle 16 , and the bottom end of the connecting wire 12 is electrically connected to the sole assembly 14 via the connecting buckle 16 .

[0026] Specifically, after the operator puts on the anti-static shoes, the skin at the ankle will directly contact the anti-static ring 17, and the anti-static ring 17 will directly transmit the static electricity to the sole assembly 14 through the connecting wire 12, and transfer it out through the operating table 226. During this process, the anti-static shoes do not require external wires, and the movement of the anti-static shoes is more flexible and convenient.

[0027] In one embodiment of the present invention, Figure 5 As shown, the sole assembly 14 includes an outsole 141, an insole 144 and an insole 143, wherein the outsole 141 is arranged at the bottom of the shoe body 13, the insole 144 is arranged on the inner side of the outsole 141, the insole 143 is arranged on the upper surface of the insole 144, a conductive filling 145 is arranged inside the outsole 141, the bottom of the connecting wire 12 is connected to the conductive filling 145, and a conductive fabric 142 is arranged on the upper surface of the insole 143, and the edge portion of the conductive fabric 142 is in contact with the conductive filling 145.

[0028] The bottom of the outer sole 141 is provided with a galvanized anti-skid groove 146, and the upper surface of the operating table 226 is provided with galvanized anti-skid teeth 223. The galvanized anti-skid teeth 223 are adapted to the galvanized anti-skid groove 146, the galvanized anti-skid groove 146 is in contact with the conductive filling 145, and the galvanized anti-skid teeth 223 are electrically connected to the operating table 226.

[0029] Specifically, when the operator moves on the operating table 226, the static electricity at the wristband 11 is transmitted to the conductive filling 145 in the sole assembly 14 through the connecting wire 12. The wire filling is in electrical contact with the galvanized anti-skid groove 146 of the sole, and the galvanized anti-skid teeth 223 on the operating table 226 have good conductivity. When the operator walks, the galvanized anti-skid teeth 223 and the galvanized anti-skid groove 146 are in contact with each other, so the static electricity of the human body can be directly and fully transferred.

[0030] In addition, the conductive filler 145 is made of carbon black or conductive fiber with good conductive function, and the outsole 141 is made of polypropylene material, which has good electrical insulation and corrosion resistance. The insole 143 is made of soft and comfortable memory foam material, and has a conductive fabric 142 on the surface, which can comfortably support the sole of the foot and play a certain conductive role, and can conduct static electricity in the sole of the foot to the conductive filler 145, and then conduct it out of the shoe body 13 along with the conductive filler 145.

[0031] In one embodiment of the present invention, Figure 4 As shown, a rubber pad panel 221 is provided on the upper surface of the operating table 226, galvanized anti-skid teeth 223 are provided on the rubber pad panel 221, a buffer block 225 is provided inside the rubber pad panel 221, a galvanized sandwich panel 224 is provided on the buffer block 225, the bottom of the galvanized anti-skid teeth 223 is connected to the galvanized sandwich panel 224, the bottom of the galvanized sandwich panel 224 is connected to a conductive wire 222, the conductive wire 222 is connected to the operating table 226, the galvanized sandwich panel 224 is made of anti-fatigue galvanized plate, and the rubber pad panel 221 is made of anti-fatigue soft rubber pad.

[0032] Specifically, the rubber pad panel 221 provides comfortable support for the electrostatic shoes, and the rubber pad panel 221 adopts anti-fatigue soft rubber pads with the characteristics of long-term stepping and not easy to deform. The galvanized sandwich panel 224 at the bottom of the galvanized anti-skid teeth 223 provides support for each galvanized anti-skid tooth 223, and the bottom of the galvanized sandwich panel 224 has a buffer block 225 for support. The galvanized anti-skid teeth 223 have an up and down rebound function to reduce the galvanized anti-skid teeth 223 from hurting the feet and preventing damage to the soles. Then the static electricity on the galvanized anti-skid teeth 223 is transmitted to the galvanized sandwich panel 224, and the galvanized sandwich panel 224 transmits the static electricity to the conductive wire 222 and the operating table 226.

[0033] In one embodiment of the present invention, Figure 4As shown, a ground pile connecting line 231 is provided between the operating table 226 and the ground pile 23, and an indication aisle 25 is also provided on the floor 21. An electrostatic pile mechanism 24 is provided on one side of the indication aisle 25. The electrostatic pile mechanism 24 is used to remove static electricity carried on the body of the operator when entering the site.

[0034] The electrostatic pile mechanism 24 includes an electrostatic pile 241, a lampshade 242 and a touch panel 246, wherein the electrostatic pile 241 is arranged on one side of the indicating aisle 25, the electrostatic pile 241 is electrically connected to the grounding pile 23, the lampshade 242 is arranged on the top of the electrostatic pile 241, the touch panel 246 is arranged on the lampshade 242, the touch panel 246 is electrically connected to the electrostatic pile 241 through a conductive support rod 243, a switch panel 248 is arranged on the contact panel 246, a contact switch 247 is arranged at the bottom of the switch panel 248, and the contact switch 247 is connected to the first prompt light 244 and the second prompt light 245.

[0035] Specifically, before entering the operating table 226, the operator first enters the floor 21 of the platform and moves along the indicated aisle 25. When passing the electrostatic pile mechanism 24, the operator presses the switch panel 248 on the touch panel 246 with his hand. After the operator presses the touch panel 246 with his hand, the static electricity on the body is transmitted to the touch panel 246. The touch panel 246 transfers the static electricity to the electrostatic pile 241, and continues to transfer along the electrostatic pile 241 to the grounding pile 23 and discharged to the ground.

[0036] When the operator touches the switch panel 247, the static electricity on the body is discharged, and the contact switch 247 at the bottom of the switch panel 248 controls the second prompt light 245 to light up and the first prompt light 244 to go out; when the operator leaves the contact panel 246, the contact switch 247 controls the first prompt light 244 to light up and the second prompt light 245 to go out. For example: the first prompt light 244 is set to red, and the second prompt light 245 is set to green. When the operator presses the contact panel 246, the lampshade 242 turns green, indicating that the static electricity is successfully removed and the operator can continue to move forward and enter the operating table 226. After the operator releases the touch panel 246, the lampshade 242 resets to red for the next person to use.

[0037] In one embodiment of the present invention, Figure 2 As shown, a strap 15 is provided on the wristband 11, and a spring soft wire or elastic band is built in the electrostatic ring 17. The strap 15 is used to untie and tighten the wristband 11, which is convenient for the operator to wear anti-static shoes. The spring soft wire or elastic band is built in the electrostatic ring 17 to make the electrostatic ring 17 close to the ankle, so that the static electricity of the human body can be discharged in time, ensuring that there is no static electricity on the body at all times when the operator is operating.

[0038] In order to clearly explain the above embodiments, refer to Figure 1-Figure 5The method of using the human body static electricity extraction platform for photovoltaic module production of the present invention is as follows: In actual use, the operator first enters the floor 21 of the platform, and enters the operating table 226 along the indicated aisle 25. When passing the electrostatic pile 241, the operator presses the switch panel 248 on the touch panel 246 with his hand. By pressing the switch panel 248 on the touch panel 246 with his hand, the static electricity on the body is transmitted to the touch panel 246. The touch panel 246 transfers the static electricity to the electrostatic pile 241, and continues to transfer along the electrostatic pile 241 to the grounding pile 23 and discharged to the ground.

[0039] When the operator touches the switch panel 247 with his hand, the static electricity on the body is discharged, and at the same time, the contact switch 247 at the bottom of the switch panel 248 controls the second prompt light 245 to light up and the first prompt light 244 to go out; when the operator leaves the contact panel 246, the contact switch 247 controls the first prompt light 244 to light up and the second prompt light 245 to go out. In actual use, by setting the first prompt light 244 to red and the second prompt light 245 to green, the operator presses the contact panel 246, and the lampshade 242 turns green, indicating that the static electricity is successfully removed, and the operator can continue to move forward and enter the operating table 226. After the operator releases the touch panel 246, the lampshade 242 resets to red for the next person to use.

[0040] The operator then enters the operating table 226 along the indicated aisle 25, unfastens the wristband 11 through the strap 15, puts the foot into the shoe body 13, and then tightens the strap 15. After the operator has put on the shoe body 13, since the skin at the operator's ankle is in direct contact with the electrostatic ring 17 on the inside of the wristband 11, the electrostatic ring 17 transmits the static electricity to the connecting wire 12, and the connecting wire 12 transmits the static electricity to the sole assembly 14.

[0041] When the operator moves on the operating table 226, the static electricity at the wristband 11 is transmitted to the conductive filling 145 in the sole assembly 14 through the connecting wire 12. The wire filling is in electrical contact with the galvanized anti-skid groove 146 of the sole, and the galvanized anti-skid teeth 223 on the operating table 226 have good conductivity. The galvanized anti-skid teeth 223 and the galvanized anti-skid groove 146 are in contact with each other during the operator's walking. Therefore, the static electricity of the human body can be directly transferred to the operating table 226. The static electricity on the operating table 226 is transmitted to the grounding pile 23 along the ground pile connecting line 231 and then discharged to the ground. In the above process, the operator does not need an external wire when walking in the anti-static shoes, and the movement of the anti-static shoes is more flexible and convenient, thereby improving the operating efficiency.

[0042] In summary, the human body static electricity extraction platform and use method for photovoltaic module production in the embodiments of the present invention improve the platform so that the operator only needs to wear static electricity shoes to walk directly on the operating table. The rubber pad panel on the operating table provides a comfortable stepping effect, and the operator will not feel tired after standing for a long time. The static electricity shoes are provided with static electricity rings at the wristbands. The static electricity rings are in contact with human skin and directly introduce static electricity into the sole assembly. The static electricity is transmitted to the operating table and transferred to the ground. The static electricity shoes do not require additional wired connections, and the operator can walk more flexibly.

[0043] Although the embodiments of the present invention have been shown and described above, it is to be understood that the above embodiments are exemplary and are not to be construed as limitations of the present invention. A person skilled in the art may change, modify, replace and deform the above embodiments within the scope of the present invention.

Claims

1. A human body static electricity extraction platform for photovoltaic module production, characterized in that: The operating platform mechanism (2) is used to conduct static electricity on the body of an operator, the operating platform mechanism (2) comprises a floor (21) and an operating platform component (22), wherein the operating platform component (22) is arranged on the floor (21), the operating platform component (22) comprises a grounding pile (23) and an operating platform (226), wherein the operating platform (226) is arranged on the floor (21), the grounding pile (23) is arranged through the floor (21), and the grounding pile (23) is electrically connected to the operating platform (226), and the upper surface of the operating platform (226) is provided with a rubber pad panel (221); The invention also comprises an electrostatic shoe mechanism (1), the electrostatic shoe mechanism (1) being used to be worn by an operator, the electrostatic shoe mechanism (1) comprising a shoe body (13), a wristband (11) and a sole assembly (14), wherein the wristband (11) is arranged at the ankle of the shoe body (13), an electrostatic ring (17) is arranged on the inner wall of the wristband (11), the sole assembly (14) is arranged at the bottom of the shoe body (13), the sole assembly (14) matches the operating table (226), and the sole assembly (14) is made of a conductive material.

2. The human body static electricity removal platform for photovoltaic module production according to claim 1, characterized in that: A connecting wire (12) is provided between the wristband (11) and the sole assembly (14); the top end of the connecting wire (12) is electrically connected to the electrostatic ring (17); and the bottom end of the connecting wire (12) is electrically connected to the sole assembly (14).

3. The human body static electricity removal platform for photovoltaic module production according to claim 2, characterized in that: The sole assembly (14) comprises an outer sole (141), an inner sole (144) and an insole (143), wherein the outer sole (141) is arranged at the bottom of the shoe body (13), the inner sole (144) is arranged on the inner side of the outer sole (141), the insole (143) is arranged on the upper surface of the insole (144), a conductive filler (145) is arranged inside the outer sole (141), the bottom of the connecting wire (12) is connected to the conductive filler (145), and a conductive fabric (142) is arranged on the upper surface of the insole (143), and the edge of the conductive fabric (142) is in contact with the conductive filler (145).

4. The human body static electricity removal platform for photovoltaic module production according to claim 3, characterized in that: The bottom of the outer bottom (141) is provided with a galvanized anti-skid groove (146), and the upper surface of the operating table (226) is provided with a galvanized anti-skid tooth (223), and the galvanized anti-skid tooth (223) and the galvanized anti-skid groove (146) are mutually adapted; The galvanized anti-skid groove (146) and the conductive filler (145) are in contact with each other, and the galvanized anti-skid teeth (223) are electrically connected to the operating table (226).

5. The human body static electricity removal platform for photovoltaic module production according to claim 4, characterized in that: The galvanized anti-skid teeth (223) are arranged on the rubber pad panel (221), a buffer block (225) is arranged inside the rubber pad panel (221), a galvanized sandwich panel (224) is arranged on the buffer block (225), and the bottom of the galvanized anti-skid teeth (223) is connected to the galvanized sandwich panel (224); The bottom of the galvanized sandwich panel (224) is connected to a conductive wire (222), and the conductive wire (222) is connected to an operating table (226). The galvanized sandwich panel (224) is made of an anti-fatigue galvanized sheet, and the rubber pad panel (221) is made of an anti-fatigue soft rubber pad.

6. The human body static electricity removal platform for photovoltaic module production according to claim 1, characterized in that: A ground pile connection line (231) is provided between the operating platform (226) and the ground pile (23); an indication passage (25) is also provided on the floor (21); an electrostatic pile mechanism (24) is provided on one side of the indication passage (25); the electrostatic pile mechanism (24) is used to remove static electricity carried on the body of an operator when entering the site; The electrostatic pile mechanism (24) comprises an electrostatic pile (241), a lampshade (242) and a contact panel (246), wherein the electrostatic pile (241) is arranged on one side of the indicating passage (25), the electrostatic pile (241) is electrically connected to the ground pile (23), the lampshade (242) is arranged on the top of the electrostatic pile (241), the contact panel (246) is arranged on the lampshade (242), the contact panel (246) is electrically connected to the electrostatic pile (241), a switch panel (248) is arranged on the contact panel (246), a contact switch (247) is arranged at the bottom of the switch panel (248), and the contact switch (247) is connected to a first indication light (244) and a second indication light (245).

7. The human body static electricity removal platform for photovoltaic module production according to claim 1, characterized in that: The wristband (11) is provided with a binding strap (15), and the electrostatic ring (17) has a built-in spring cord or elastic band.

8. A method for using a human body static electricity extraction platform for photovoltaic module production, characterized in that: The human body static electricity removal platform for photovoltaic module production according to any one of claims 1 to 7 comprises the following steps: S1. The operator first enters the platform floor (21) and moves forward along the indicated aisle (25). When passing the electrostatic pile mechanism (24), the operator presses the switch panel (248) on the contact panel (246) by hand, and waits until the first prompt light (244) turns off and the second prompt light (245) lights up, indicating that the body is completely de-electrified. Then the operator continues to move forward and enters the operating table (226); S2. The operator unfastens the wristband (11) through the strap (15), puts the foot into the shoe body (13), and then tightens the strap (15) to complete the operation.

9. The method for using the human body static electricity extraction platform for photovoltaic module production according to claim 8, characterized in that: In step S1, after the operator presses the touch panel (246) with his hand, static electricity on the body is transmitted to the touch panel (246), and the touch panel (246) transfers the static electricity to the static electricity pile (241), and then continues to transfer along the static electricity pile (241) to the grounding pile (23) and is discharged to the ground; When the operator's hand touches the switch (247) panel, static electricity on the body is discharged, and at the same time, the contact switch (247) at the bottom of the switch panel (248) controls the second prompt light (245) to light up, and the first prompt light (244) to go out; When the operator's hand leaves the touch panel (246), the contact switch (247) controls the first prompt light (244) to light up and the second prompt light (245) to turn off.

10. The method for using the human body static electricity removal platform for photovoltaic module production according to claim 8, characterized in that: In step S2, after the operator has put on the shoe body (13), the skin at the ankle of the operator directly contacts the electrostatic ring (17) on the inner side of the wristband (11), and the electrostatic ring (17) transmits static electricity to the connecting wire (12). The connecting wire (12) transmits static electricity to the galvanized anti-skid groove (146) of the sole assembly (14). When the operator walks on the operating table (226), the galvanized anti-skid groove (146) contacts the galvanized anti-skid teeth (223) on its surface, and transmits static electricity to the operating table (226). The static electricity is transmitted to the grounding pile (23) along the ground pile connecting line (231) and then discharged to the ground.

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