Anti-static shoe

Abstract

The utility model relates to the technical field of shoes, in particular to an anti-static shoe, which comprises a sole, an anti-static component is embedded on the inner wall of the sole, a toe cap is arranged on the base surface of the sole, a heel is arranged on one side of the toe cap and positioned on the base surface of the sole, and the anti-static component is embedded on the inner wall of the sole. Static electricity of the electric lead sequentially passes through the resistance block and the neon bulb tube and then is conducted to the second electric conduction block through the electric lead, the second electric conduction block makes contact with the ground, the static electricity is discharged to the ground, and the anti-static effect is achieved; when electricity is conducted to the resistance block and the neon bulb tube through the second conductive block and the conductive wire, the resistance block blocks the electricity, meanwhile, the neon bulb tube emits light so that a user can see light through the light-transmitting plate, and if the current is large and the resistance block is damaged, the voltage borne by the neon bulb tube can be increased, and the neon bulb tube can be burnt out. And an open circuit is formed between the conductive block I and the conductive block II, so that the safety of a user is further protected.

Description

Technical Field

[0001] This utility model relates to the field of shoe technology, specifically to an antistatic shoe. Background Technology

[0002] Static electricity originates from the contact, separation, or friction between different substances, a process widely observed in various fields. In industrial production, operations such as extrusion, cutting, stirring, and filtration can all generate static electricity; while in daily life, simple actions such as walking, standing, or removing clothing can also lead to the accumulation of static electricity. It is worth noting that static voltage is often quite high; for example, when the human body puts on or takes off clothing, a potential difference of tens of thousands of volts can be generated instantaneously.

[0003] This high-potential static electricity poses a significant risk in certain industries. In the electronics manufacturing industry, even minute electrostatic discharges can cause permanent damage to sensitive electronic components, affecting product performance or even causing failure. Similarly, in the petrochemical industry, static sparks can become a potential ignition source for flammable gases or liquid vapors, leading to fires or explosions. Therefore, effective management and control of static electricity is crucial for ensuring safe production in these industries. For example, existing technologies, such as the prior art document "An Antistatic Shoe" (authorization announcement number CN201683110U), describe a shoe sole consisting of a conductive rubber layer, a cushioning layer, and an insole layer, arranged from bottom to top. The cushioning layer has a conductive strip, and the insole layer has a conductive wire. The conductive wire contacts the conductive strip, and the conductive strip contacts the conductive rubber layer. The advantages of this invention are: it effectively guides static electricity generated by the human body to the ground, avoiding the harm caused by static electricity and preventing various accidents caused by static electricity, thus effectively solving the problems of existing technologies. However, its structure still needs improvement, specifically as follows:

[0004] The current solution simply involves grounding the human body to conduct static electricity into the earth. While this effectively addresses the static electricity problem, it overlooks a significant safety hazard: the lack of a proper grounding structure. If the ground becomes electrified due to leakage, this grounding structure could directly expose the human body to the risk of electric shock, posing a significant safety threat. Therefore, an anti-static shoe is needed to address this issue. Utility Model Content

[0005] The purpose of this invention is to provide an antistatic shoe to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, this utility model provides the following technical solution:

[0007] An antistatic shoe includes a sole, an antistatic component embedded in the inner wall of the sole, a toe on the base surface of the sole, a heel on one side of the toe and located on the base surface of the sole, an upper between the heel and the toe and located on the base surface of the sole, an insole installed on the inner cavity of the upper and located on the outer wall of the sole, a shoelace on the outer wall of the upper, and connecting holes on opposite sidewalls of the sole.

[0008] The antistatic component includes a limiting shell and a light-transmitting plate. The limiting shell is embedded in the inner cavity of the shoe sole. A set of conductive wires is respectively arranged on the opposite outer walls of the limiting shell. One end of the conductive wire passes through the limiting shell and extends to the inner wall of the limiting shell, where a resistor block and a neon bulb are connected in sequence. One end of the two sets of conductive wires is respectively provided with a first conductive block and a second conductive block. The light-transmitting plate is located at the port of the connecting hole.

[0009] As a preferred embodiment of this utility model, one end of one set of conductive wires is provided with a conductive block, and one end of the conductive block is embedded in the outer wall of the insole, with the top of the conductive block located in the inner cavity of the shoe upper.

[0010] As a preferred embodiment of this utility model, one end of the other set of conductive wires is provided with a conductive block two, wherein one end of the conductive block two is embedded in the outer wall of the shoe sole, and the conductive block two is flush with the bottom end of the shoe sole.

[0011] As a preferred embodiment of this utility model, the connecting holes are provided in two sets and are respectively located on the opposite sidewalls of the shoe sole, and the connecting holes are located on one side of the limiting shell, wherein the connecting holes and the limiting shell are connected.

[0012] As a preferred embodiment of this utility model, the limiting shell has a rectangular structure, and the heel and toe are respectively located on the opposite outer walls of the sole.

[0013] As a preferred embodiment of this utility model, the insole is located in the inner cavity of the shoe upper, and the light-transmitting plate is provided in two sets, which are respectively located at the port of the connecting hole.

[0014] Compared with the prior art, the beneficial effects of this utility model are:

[0015] 1. In this utility model, the antistatic component in the antistatic shoe utilizes the static electricity of the conductive wire to pass sequentially through the resistor block and the neon bulb. The static electricity is then conducted through the conductive wire to the second conductive block. Since the second conductive block is in contact with the ground, the static electricity is discharged to the earth, achieving the antistatic effect. Simultaneously, when the ground becomes energized due to leakage, the electricity is conducted through the second conductive block and the conductive wire to the resistor block and the neon bulb. The resistor block blocks the electricity, while the neon bulb emits light, allowing the user to see the light through the light-transmitting plate. Furthermore, if the current is too large and damages the resistor block, the voltage across the neon bulb will increase, causing it to burn out. This creates an open circuit between the first and second conductive blocks, further protecting the user's safety. This effectively solves the problem that without a safety structure, when the ground becomes energized due to leakage, the human body may be directly exposed to the risk of electric shock, posing a significant safety threat. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0017] Figure 2 This is a schematic diagram of the structure of this utility model from below;

[0018] Figure 3 This is a schematic diagram of the cross-sectional structure of the sole of this utility model;

[0019] Figure 4 This is a schematic diagram of the antistatic component structure of this utility model.

[0020] In the diagram: 1. Shoe sole; 2. Antistatic component; 201. Limiting shell; 202. Light-transmitting plate; 203. Conductive wire; 204. Resistor block; 205. Neon bulb; 206. Conductive block one; 207. Conductive block two; 3. Shoe toe; 4. Shoe heel; 5. Shoe upper; 6. Insole; 7. Shoelace; 8. Connecting hole. Detailed Implementation

[0021] The technical solutions of the present utility model will be clearly and completely described below with reference to the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model without creative effort are within the protection scope of the present utility model.

[0022] For examples, please refer to Figure 1-4 This utility model provides a technical solution:

[0023] An antistatic shoe includes a sole 1, an antistatic component 2 embedded in the inner wall of the sole 1, a toe 3 on the base surface of the sole 1, a heel 4 on one side of the toe 3 and located on the base surface of the sole 1, an upper 5 between the heel 4 and the toe 3 and located on the base surface of the sole 1, an insole 6 installed in the inner cavity of the upper 5 and located on the outer wall of the sole 1, a shoelace 7 on the outer wall of the upper 5, and a connecting hole 8 on the opposite side wall of the sole 1.

[0024] In this embodiment, please refer to Figure 1 , Figure 2 , Figure 3 and Figure 4 The antistatic component 2 includes a limiting housing 201 and a light-transmitting plate 202. The limiting housing 201 is embedded in the inner cavity of the shoe sole 1. A set of conductive wires 203 are respectively arranged on the opposite outer walls of the limiting housing 201. One end of the conductive wire 203 passes through the limiting housing 201 and extends to the inner wall of the limiting housing 201, where a resistor block 204 and a neon bulb 205 are connected in sequence. One end of the two sets of conductive wires 203 is respectively provided with a first conductive block 206 and a second conductive block 207. The light-transmitting plate 202 is arranged in the connecting hole. At the port of 8, one end of one set of conductive wires 203 is provided with a conductive block 206, and one end of the conductive block 206 is embedded in the outer wall of the insole 6. The top of the conductive block 206 is located in the inner cavity of the upper 5. One end of the other set of conductive wires 203 is provided with a conductive block 207, and one end of the conductive block 207 is embedded in the outer wall of the sole 1. The conductive block 207 is flush with the bottom of the sole 1. Two sets of light-transmitting plates 202 are provided and are located at the ports of the connecting holes 8 respectively.

[0025] Furthermore, two sets of connecting holes 8 are provided and are located on opposite side walls of the sole 1, and the connecting holes 8 are located on one side of the limiting shell 201. The connecting holes 8 and the limiting shell 201 are connected, the limiting shell 201 is a rectangular structure, the heel 4 and the toe 3 are located on opposite outer walls of the sole 1, and the insole 6 is located in the inner cavity of the upper 5.

[0026] The working process of this utility model is as follows: When using the antistatic shoes designed in this scheme, an antistatic component 2 is embedded in the inner wall of the sole 1. A toe 3 is provided on the base surface of the sole 1. A heel 4 is provided on one side of the toe 3 and on the base surface of the sole 1. An upper 5 is provided between the heel 4 and the toe 3 and on the base surface of the sole 1. An insole 6 is installed in the inner cavity of the upper 5 and on the outer wall of the sole 1. When the shoes are worn and used, when the sole of the foot comes into contact with the insole 6, conductive wires 203 are respectively provided on the opposite outer walls of the limiting shell 201. One end of the conductive wire 203 in one group is provided with a conductive block 206, and one end of the conductive block 206 is embedded in the outer wall of the insole 6. The top of the conductive block 206 is located within the inner cavity of the upper 5, causing the sole of the foot to contact the conductive block 206. When the human body has static electricity, the static electricity will be conducted through the conductive block 206 to the conductive wire 203. Another set of conductive wires 203 has a conductive block 207 at one end, one end of which is embedded in the outer wall of the sole 1, and the conductive block 207 is flush with the bottom of the sole 1. One end of the conductor 3 penetrates through the limiting housing 201 and extends to the inner wall of the limiting housing 201. A resistor block 204 and a neon bulb 205 are connected sequentially to this resistor block 204 and the neon bulb 205. The static electricity in the conductive wire 203 then passes through the resistor block 204 and the neon bulb 205, and is conducted to the conductive block 207. Since the conductive block 207 is in contact with the ground, the static electricity is discharged to the ground, achieving an anti-static effect. Simultaneously, when the ground becomes energized due to leakage, the electricity is conducted through the conductive block 207 and the conductive wire 203 to the resistor block 204 and the neon bulb 205. The resistor block 204 blocks electricity, while the neon bulb 205 emits light so that the user can see the light through the light-transmitting plate 202. If the current is too large and the resistor block 204 is damaged, the voltage on the neon bulb 205 will increase, and the neon bulb 205 will burn out. This will create an open circuit between the first conductive block 206 and the second conductive block 207, further protecting the user's safety. This helps to solve the problem that without a safety structure, when the ground becomes energized due to leakage, such a grounding structure may expose the human body directly to the risk of leakage, thus posing a great safety threat.

[0027] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An antistatic shoe comprising a sole (1), characterized in that: An antistatic component (2) is embedded in the inner wall of the sole (1). A toe (3) is provided on the base surface of the sole (1). A heel (4) is provided on one side of the toe (3) and on the base surface of the sole (1). An upper (5) is provided between the heel (4) and the toe (3) and on the base surface of the sole (1). An insole (6) is installed in the inner cavity of the upper (5) and on the outer wall of the sole (1). A shoelace (7) is provided on the outer wall of the upper (5). A connecting hole (8) is provided on the opposite side wall of the sole (1). The antistatic component (2) includes a limiting shell (201) and a light-transmitting plate (202). The limiting shell (201) is embedded in the inner cavity of the shoe sole (1). A set of conductive wires (203) are respectively arranged on the opposite outer walls of the limiting shell (201). One end of the conductive wire (203) passes through the limiting shell (201) and extends to the inner wall of the limiting shell (201), where a resistor block (204) and a neon bulb (205) are connected in sequence. One end of the two sets of conductive wires (203) is respectively provided with a first conductive block (206) and a second conductive block (207). The light-transmitting plate (202) is arranged at the port of the connecting hole (8).

2. The anti-static shoe according to claim 1, wherein: One end of one set of conductive wires (203) is provided with a conductive block (206), and one end of the conductive block (206) is embedded in the outer wall of the insole (6), with the top of the conductive block (206) located in the inner cavity of the shoe upper (5).

3. The anti-static shoe of claim 1, wherein: Another set of conductive wires (203) has a conductive block two (207) at one end, wherein one end of the conductive block two (207) is embedded in the outer wall of the shoe sole (1), and the conductive block two (207) is flush with the bottom end of the shoe sole (1).

4. The anti-static shoe of claim 1, wherein: The connecting hole (8) is provided in two sets and is located on the opposite side wall of the shoe sole (1), and the connecting hole (8) is located on one side of the limiting shell (201), wherein the connecting hole (8) and the limiting shell (201) are connected.

5. The anti-static shoe according to claim 1, wherein: The limiting shell (201) has a rectangular structure, and the heel (4) and toe (3) are located on opposite outer walls of the sole (1).

6. The antistatic shoe according to claim 1, characterized in that: The insole (6) is located in the inner cavity of the shoe upper (5), and the light-transmitting plate (202) is provided in two sets and is located at the port of the connecting hole (8).

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