CN111770610A - An electric shock current simulation system and method for a live environment - Google Patents

Abstract

The present application provides an electric shock current simulation system and method for a live environment. The electric shock current simulation system includes an electric shock current simulation model and a plurality of simulation circuits installed on the electric shock current simulation model. The electric shock current simulation model includes a model body, and a plurality of non-reference electrodes installed in different parts of the surface of the model body, and the simulation circuits It includes an indicator light and a resistor connected in series with the indicator light. The indicator light and the resistor are electrically connected between any two non-reference electrodes. The indicator light is used to measure the current between the two non-reference electrodes corresponding to the indicator light. Adjust indication status. In this way, the embodiment of the present application simulates the electric shock situation of different parts of the electric shock current simulation model according to the actual needs, analyzes it in more detail, and uses the different indication states of the indicator lights in the analog circuit to reflect the size of the electric shock current. Higher usability.

Description

An electric shock current simulation system and method for a live environment

technical field

The present application relates to the technical field of safety simulation equipment, and in particular, to an electric shock current simulation system and method for a live environment.

Background technique

Electricity is more and more widely used in daily work and life. For example, all kinds of electronic equipment, components, electrical appliances, and public facilities are inseparable from the support of electricity. In the actual power consumption process, leakage caused by aging or damage of wires and lines occurs from time to time. According to the voltage carried by the leakage equipment and the actual surrounding environment, various live environments will be formed near different leakage equipment. , because the electrified environment will produce different degrees of electric shock damage to the target object in it, which will lead to different degrees of damage to the target object, so it is of great significance to analyze the electric shock situation of different target objects in the electrified environment.

At present, the analysis of electric shock is mainly based on theoretical analysis methods. By analyzing the overall voltage value of the charged environment and the overall resistance value of the target object, the overall current value generated when the target object is electrocuted is calculated. Because this analysis method is only limited to the theoretical level, and it is relatively general to analyze only from the whole, the calculated results are relatively boring, so the analysis of electric shock current is not detailed enough and not vivid enough.

Based on this, there is an urgent need for an electric shock current simulation system for a live environment, which is used to solve the problem that the analysis of electric shock current in the prior art is not detailed enough and not vivid enough.

SUMMARY OF THE INVENTION

The present application provides an electric shock current simulation system and method for a live environment, which can be used to solve the technical problem that the analysis of electric shock current in the prior art is not detailed and vivid enough.

In a first aspect, an embodiment of the present application provides an electric shock current simulation system for a live environment, the system comprising: an electric shock current simulation model and a plurality of simulation circuits installed on the electric shock current simulation model;

The electric shock current simulation model includes a model body and a plurality of non-reference electrodes installed on different parts of the surface of the model body; the shape of the model body is determined according to the shape of the simulated electric shock object, and the size of the model body is Determined according to the size of the simulated electric shock object;

Each analog circuit includes an indicator light and a resistor connected in series with the indicator light; the indicator light and the resistor are electrically connected between any two non-reference electrodes; between any two non-reference electrodes , the total resistance value corresponding to the resistor is determined according to the resistance value between the parts corresponding to any two non-reference electrodes in the simulated electric shock object;

in:

any number of non-reference electrodes in the plurality of non-reference electrodes are used to contact different regions in the preset charged environment;

The indicator light is used to adjust the indication state according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light.

In an implementation manner of the first aspect, each of the analog circuits includes an indicator light, and a resistor connected in series with the indicator light, and the indicator light and the resistor are electrically connected together at any two non-contact points. between reference electrodes, including:

Each analog circuit includes an indicator light and a plurality of resistors connected in series;

After the indicator light is connected in series with the plurality of resistors connected in series, they are electrically connected together between any two non-reference electrodes.

In an implementation manner of the first aspect, the indicator light is used to adjust the indication state according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light, including:

The indicator light is used to adjust the intensity of the light brightness according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light.

In an implementation manner of the first aspect, the indicator light is an LED light.

In an implementation manner of the first aspect, the magnitude of the current between the two non-reference electrodes corresponding to the indicator light is determined by the following formula:

Among them, I _i is the current between the two non-reference electrodes corresponding to the i-th indicator light, V _i is the potential difference between the two non-reference electrodes corresponding to the i-th indicator light, and R _i is the difference between the two non-reference electrodes corresponding to the i-th indicator light The total resistance corresponding to the resistors connected in series with the indicator lights, i is an integer greater than or equal to 1 and less than or equal to L, and L is the number of indicator lights.

In a second aspect, an embodiment of the present application provides an electric shock current simulation method for a live environment, the method is applied to an electric shock current simulation system, and the electric shock current simulation system includes: an electric shock current simulation model and an electric shock current simulation model installed in the electric shock current Simulate multiple analog circuits on the model;

The electric shock current simulation model includes a model body and a plurality of non-reference electrodes installed on different parts of the surface of the model body; the shape of the model body is determined according to the shape of the simulated electric shock object, and the size of the model body is Determined according to the size of the simulated electric shock object;

Each analog circuit includes an indicator light and a resistor connected in series with the indicator light, the indicator light and the resistor are electrically connected between any two non-reference electrodes; between any two non-reference electrodes , the total resistance value corresponding to the resistor is determined according to the resistance value between the parts corresponding to any two non-reference electrodes in the simulated electric shock object;

The method includes:

any number of non-reference electrodes in the plurality of non-reference electrodes are in contact with different regions in the preset charged environment;

The indicator light adjusts the indication state according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light.

In an implementation manner of the second aspect, each of the analog circuits includes an indicator light, and a resistor connected in series with the indicator light, and the indicator light and the resistor are electrically connected together at any two non-contact points. between reference electrodes, including:

Each analog circuit includes an indicator light and a plurality of resistors connected in series;

After the indicator light is connected in series with the plurality of resistors connected in series, they are electrically connected together between any two non-reference electrodes.

In an implementation manner of the second aspect, the indicator light adjusts the indication state according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light, including:

The indicator light adjusts the intensity of the light brightness according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light.

In an implementation manner of the second aspect, the indicator light is an LED light.

In an implementation manner of the second aspect, the magnitude of the current between the two non-reference electrodes corresponding to the indicator light is determined by the following formula:

Among them, I _i is the current between the two non-reference electrodes corresponding to the i-th indicator light, V _i is the potential difference between the two non-reference electrodes corresponding to the i-th indicator light, and R _i is the difference between the two non-reference electrodes corresponding to the i-th indicator light The total resistance corresponding to the resistors connected in series with the indicator lights, i is an integer greater than or equal to 1 and less than or equal to L, and L is the number of indicator lights.

In this way, the electric shock current simulation system for the live environment provided by the embodiment of the present application, through the contact of different non-reference electrodes with different areas of the preset live environment, it is possible to proceed from the actual demand, and the electric shock current simulation model can be used for different parts of the electric shock current simulation model. The generated current situation is simulated, and the analysis of the electric shock current is more detailed; the different indication states of the indicator lights in the analog circuit are used to reflect the current size between the corresponding two non-reference electrodes, and the current when different parts are electrocuted can be intuitively seen. The whole system can simulate the electric shock of different parts of the electric shock current simulation model according to the actual needs, and reflect the electric shock current through the indicator light.

Description of drawings

1 is a schematic structural diagram of an electric shock current simulation system for a live environment provided by an embodiment of the present application;

FIG. 2 is a schematic circuit diagram of an analog circuit provided by an embodiment of the present application.

Detailed ways

In order to make the objectives, technical solutions and advantages of the present application clearer, the embodiments of the present application will be further described in detail below with reference to the accompanying drawings.

In order to solve the problem, the embodiment of the present application provides an electric shock current simulation system for a live environment, which is specifically used to solve the problem that the analysis of electric shock current in the prior art is not detailed enough and not vivid enough. The electric shock current simulation system for a live environment provided by the embodiment of the present application includes an electric shock current simulation model 100 and a plurality of simulation circuits 200 installed on the electric shock current simulation model 100 .

The electric shock current simulation model 100 includes a model body 110 and a plurality of non-reference electrodes 120 installed on different parts of the surface of the model body 110; the shape of the model body 110 is determined according to the shape of the simulated electric shock object, and the size of the model body 110 is determined according to the simulation The size of the electrocuted object is determined.

Each analog circuit 200 includes an indicator light 210 and a resistor 220 connected in series with the indicator light 210; the indicator light 210 and the resistor 220 are electrically connected between any two non-reference electrodes 120; between any two non-reference electrodes 120 In between, the total resistance value corresponding to the resistor 220 is determined according to the resistance value between the parts corresponding to any two non-reference electrodes in the simulated electric shock object.

in:

Any number of non-reference electrodes 120 among the plurality of non-reference electrodes 120 are used for contacting different regions in a predetermined charged environment.

The indicator light 210 is used to adjust the indication state according to the magnitude of the current between the two non-reference electrodes 120 corresponding to the indicator light 210 .

The electric shock current simulation system for the live environment provided by the embodiment of the present application, through the contact of different non-reference electrodes with different areas of the preset live environment, it is possible to proceed from the actual demand, and the electric shock current simulation model of different parts of the electric shock generated after electric shock can be analyzed. The current situation is simulated, and the analysis of the electric shock current is more detailed; the different indication states of the indicator lights in the analog circuit are used to reflect the current size between the corresponding two non-reference electrodes, and the difference of the current when different parts are electrocuted can be seen intuitively. , and more vivid, the whole system can simulate the electric shock of different parts of the electric shock current simulation model according to the actual needs, and reflect the electric shock current through the indicator light.

Specifically, the electric shock current simulation model 100 can be a robot, the shape of the model body 110 is determined according to the shape of the robot simulating electric shock, and the size of the model body 110 is determined according to the size of the robot simulating electric shock. The robot body can be made of insulating materials, which can be The transparent material may also be a non-transparent material, a relatively hard material, or a plastic material, which is not specifically limited. FIG. 1 exemplarily shows a schematic structural diagram of an electric shock current simulation system for a live environment provided by an embodiment of the present application. As shown in FIG. 1 , the electric shock current simulation system has the function of realizing electric shock current simulation for a live environment. In the actual use process, since the real public electrical facilities are in a crowded large space environment, the electric shock current simulation system provided by the embodiment of the present application will be inconvenient if used in a real outdoor live environment. In order to illustrate the electric shock current simulation system For the application, a physical model needs to be established according to the real charged environment, and the model should be able to correctly reflect the parameters of the real charged environment in equal proportions. There may also be differences, which are determined according to the parameters of the physical model itself, which are not specifically limited.

Non-reference electrodes 120 are installed on different parts of the surface of the model body 110 , and the specific installation parts of the non-reference electrodes 120 on the surface of the model body 110 can be determined according to experience and requirements, and are not specifically limited. According to the different contact states of the robot to be simulated and the preset electrified environment, such as standing, walking, falling on the ground with both hands, and falling on the buttocks, determine different areas of the multiple non-reference electrodes 120 and the preset electrified environment The non-reference electrode 120 of the corresponding part of the contact. When the electric shock current simulation model 100 , that is, the robot, contacts different regions of the preset electrified environment in different postures, the non-reference electrodes in contact with the preset electrified environment may be different. The material of the non-reference electrode 120 can be metal or other materials that can be used for conduction, which is not specifically limited. There are various ways to install the non-reference electrode 120 on the surface of the model body 110 , which can be pasted on the surface of the model body 110 or fixed with screws, which is not specifically limited.

The electric shock current simulation model provided by the embodiment of the present application adopts the above method, by installing non-reference electrodes on different parts of the surface of the model body of the electric shock current simulation model, and determining any number of non-reference electrodes and different areas of the preset live environment according to requirements Contact can be based on actual needs to simulate the current situation generated by different parts of the electric shock current simulation model after electric shock. The analysis of electric shock current is more detailed, and it is no longer limited to the theoretical level, but more in line with the actual situation.

Each analog circuit 200 includes an indicator light 210 and a resistor 220 connected in series with the indicator light 210 ; the indicator light 210 and the resistor 220 are electrically connected together between any two non-reference electrodes 120 . There can be various combinations of the number of indicator lights and the number of resistors in series in each analog circuit. In an example, each analog circuit 200 includes an indicator light 210 and a plurality of resistors 220 in series; After the resistors 220 are connected in series, they are electrically connected together between any two non-reference electrodes. In other possible examples, those skilled in the art can select the number of indicator lights 210 and the number of resistors 220 in each analog circuit according to experience and actual conditions, for example, each analog circuit 200 includes one indicator light 210 and one resistor 220, or each analog circuit 200 includes a plurality of indicator lights 210 and a resistor 220, which is not specifically limited.

It should be noted that, between any two non-reference electrodes 120, the total resistance value corresponding to the resistor 220 is determined according to the resistance value between the parts corresponding to any two non-reference electrodes 120 in the simulated electric shock object. That is to say, no matter how many resistors are included in each analog circuit 200, the total resistance value of all the resistors connected in series in each analog circuit 200 is determined according to the resistance value of the corresponding part in the simulated electric shock object , the corresponding part in the simulated electric shock object refers to the part corresponding to the two non-reference electrodes connected to the analog circuit 200 .

In order to explain the determination of the total resistance value corresponding to the resistor 220 more clearly, the following specific examples are used for description. Assuming that the simulated electric shock object is a large component in a certain device, the shape of the model body 110 in the electric shock current simulation model 100 is determined according to the shape of the component, and the size of the model body 110 in the electric shock current simulation model 100 is determined according to the size of the component, Two non-reference electrodes 120, A and B, are installed on the surface of the model body 110 according to requirements. A is installed on the top of the model body 110 and B is installed at the bottom of the model body 110. For the analog circuit connected between A and B 200. The way of determining the total resistance value of the resistors connected in series in the analog circuit is as follows: the actual resistance value between the top and the bottom of the large component (that is, the simulated electric shock object) is taken as the total resistance of the resistors connected in series in the analog circuit. value. If there are many non-reference electrodes mounted on the surface of the model body 110, the number of analog circuits formed is also large. In order to prevent the circuit from being too complicated due to too many wires and components, multiple resistors can be arranged in each analog circuit. A resistor in the analog circuit may be shared with other analog circuits, but no matter how the resistors are arranged, the total resistance value of all the resistors connected in series in each analog circuit 200 is based on the resistance of the corresponding part in the simulated electric shock object. value is determined.

The indicator light 210 in the embodiment of the present application may be an LED lamp, or may be another type of lamp, such as an incandescent lamp, which is not specifically limited. The color of the indicator light in each analog circuit 200 may be the same as or different from the color of the indicator light in other analog circuits 200 , which is not specifically limited.

Each analog circuit 200 is installed on the electric shock current simulation model 100 , and there are various specific installation methods. inside, as shown in Figure 1. In other possible examples, both the indicator light 210 and the resistor 220 may be embedded in the inner wall of the electric shock current simulation model 100, or the indicator light 210 may be inlaid on the surface of the electric shock current simulation model 100, and the resistor 220 may be installed in the electric shock current simulation model 100. The inside of the model 100 is not specifically limited. It should be noted that when all the analog circuits 200 are installed inside the electric shock current simulation model 100 , some insulating filling materials, such as cotton or silk wool, can be added to the electric shock current simulation model 100 so as to support the simulation circuit 200 At the same time, in order to ensure that the indicator light 210 is visible, the surface area of the electric shock current simulation model 100 corresponding to the indicator light 210 needs to be replaced with a transparent material.

条模拟电路。In the electric shock current simulation system provided by the embodiment of the present application, the number of the simulation circuits 200 is determined according to the number of the non-reference electrodes 120 installed on the surface of the model body 110 . If N non-reference electrodes 120 are installed on the surface of the model body 110, an analog circuit 200 can be connected between any two non-reference electrodes among the N non-reference electrodes 120. According to the arrangement and combination formula, a total of

analog circuit.

When the electric shock current simulation model 100, that is, the robot, touches different areas of the preset electrified environment in a certain posture, there will be M non-reference electrodes 120 among the N non-reference electrodes 120 on the surface of the robot and different areas of the preset electrified environment. Contact, the M non-reference electrodes 120 may simultaneously contact different areas of the preset electrification environment, or may contact different areas of the preset electrification environment one by one in a certain order, which is not specifically limited.

条模拟电路200中，每条模拟电路200中的指示灯210用来根据指示灯210对应的两个非参考电极120之间的电流大小调整指示状态。指示状态有多种，一个示例中，可以根据指示灯210对应的两个非参考电极120之间的电流大小调整灯光亮度的强弱，电流越大，灯光亮度越强，电流越小，灯光亮度越弱，如果没有电流则指示灯不亮。在其他可能示例中，本领域技术人员可以根据经验和实际情况确定指示灯210的指示状态，比如根据电流大小调整指示灯210的灯光颜色，电流小于或等于第一阈值时亮绿灯，电流位于第一阈值和第二阈值之间时亮黄灯，电流大于或等于第二阈值时亮红灯，具体不作限定。all

In the analog circuits 200 , the indicator lights 210 in each analog circuit 200 are used to adjust the indication state according to the magnitude of the current between the two non-reference electrodes 120 corresponding to the indicator lights 210 . There are various indication states. In an example, the intensity of the light brightness can be adjusted according to the current between the two non-reference electrodes 120 corresponding to the indicator light 210 . The weaker, if there is no current, the indicator light will not light. In other possible examples, those skilled in the art can determine the indication state of the indicator light 210 according to experience and actual conditions, such as adjusting the light color of the indicator light 210 according to the magnitude of the current. The yellow light is on when the first threshold is between the second threshold, and the red light is on when the current is greater than or equal to the second threshold, which is not specifically limited.

The magnitude of the current between the two non-reference electrodes 120 corresponding to the indicator light 210 is determined by formula (1):

In formula (1), I _i is the current between the two non-reference electrodes corresponding to the i-th indicator light, V _i is the potential difference between the two non-reference electrodes corresponding to the i-th indicator light, and R _i is The total resistance corresponding to the resistor connected in series with the ith indicator light, i is an integer greater than or equal to 1 and less than or equal to L, and L is the number of indicator lights.

In the analog circuit provided by the embodiment of the present application, by using the above method, through the different indication states of the indicator lights, it can be intuitively seen which two parts of the electric shock will cause the most serious damage to the key components of the electric shock current simulation model. The current is the largest, the whole process is intuitive and vivid, easy to observe, and has high practicability.

In order to more clearly illustrate the work flow of the electric shock current simulation system provided by the embodiments of the present application, a specific example will be used to illustrate the following.

Taking FIG. 1 as an example, it is assumed that the electric shock current simulation model 100 is a robot, and four non-reference electrodes 120 are mounted on the surface, which are respectively installed on the hands and feet of the robot. Any two of the four non-reference electrodes 120 can be formed. One analog circuit 200 can constitute a total of six analog circuits 200 . To illustrate the circuit structures of the six analog circuits 200 more clearly, FIG. 2 exemplarily shows a schematic circuit diagram of an analog circuit provided by an embodiment of the present application.

Assuming that the control robot falls on the ground with both hands and right foot, the non-reference electrodes 120 installed at P1, P2 and P3 are in contact with the preset charged environment, P1 contacts point A, P2 contacts point B, and P3 contacts point C. Assume that the potential of P1, that is, the potential U ₁ at A is 220V; the potential of P2, that is, the potential U ₂ at B is 110 V; the potential of P3, that is, the potential U ₃ at C is 50 V; The resistor R12=1888Ω, the resistor R13=2394Ω connected in series with the LED indicator L3, and the resistor R23=2394Ω connected in series with the LED indicator L4. After the three non-reference electrodes 120 of P1, P2 and P3 are all in contact with the preset charged environment, as shown in FIG. 2, the analog circuits E1, E3 and E4 are turned on, and the LED indicators L1, L3 and L4 light up.

According to formula (1), the current I ₁ =(220V-110V)÷1888Ω=58mA corresponding to the two non-reference electrodes P1 and P2 corresponding to the LED indicator L1 can be obtained, and the two P1 and P3 corresponding to the LED indicator L3 The current between the non-reference electrodes I ₁ =(220V-50V)÷2394Ω=71mA, the current between the two non-reference electrodes P2 and P3 corresponding to the LED indicator L4 I ₁ =(110V-50V)÷2394Ω=25mA , it can be seen that the LED indicator L3 is the brightest, the LED indicator L1 is the second, the LED indicator L4 is the weakest, and the LED indicators L2, L5 and L6 do not emit light. In the case of this specific example, when the robot's right hand (P1) and right foot (P3) touch the preset charged environment at the same time, it will cause the greatest damage to the key components of the robot, and the maximum current flowing is 71mA.

The electric shock current simulation system provided in the embodiments of the present application, through different non-reference electrodes contacting different areas of the preset live environment, can simulate the current situation generated after electric shock in different parts of the electric shock current simulation model based on actual needs , the analysis of the electric shock current is more detailed; using the different indication states of the indicator lights in the analog circuit to reflect the current size between the corresponding two non-reference electrodes, you can intuitively see the current difference in different parts of the electric shock, and it is more vivid , the whole system can simulate the electric shock of different parts of the electric shock current simulation model according to the actual needs, and reflect the electric shock current through the indicator light.

The following are the method embodiments of the present application, which can be applied to the embodiments of the electric shock current simulation system used in the live environment of the present application. For details not disclosed in the method embodiments of the present application, please refer to the embodiments of the electric shock current simulation system for a live environment of the present application.

The embodiment of the present application provides a method for simulating electric shock current in a live environment. The method is applied to an electric shock current simulation system. The electric shock current simulation system includes: an electric shock current simulation model and a plurality of simulation circuits installed on the electric shock current simulation model.

The electric shock current simulation model includes a model body and multiple non-reference electrodes installed on different parts of the surface of the model body; the shape of the model body is determined according to the shape of the simulated electric shock object, and the size of the model body is determined according to the size of the simulated electric shock object .

Each analog circuit includes an indicator light and a resistor connected in series with the indicator light. The indicator light and the resistor are electrically connected between any two non-reference electrodes; between any two non-reference electrodes, the total value corresponding to the resistor The resistance value is determined according to the resistance value between the parts corresponding to any two non-reference electrodes in the simulated electric shock object.

The method specifically includes the following steps:

Any number of non-reference electrodes of the plurality of non-reference electrodes are in contact with different regions in the predetermined charged environment.

The indicator light adjusts the indication state according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light.

In an implementation manner, each analog circuit includes an indicator light, and a resistor connected in series with the indicator light. The indicator light and the resistor are electrically connected together between any two non-reference electrodes, including:

Each analog circuit includes an indicator light and a plurality of resistors connected in series;

After the indicator light is connected in series with a plurality of resistors in series, they are electrically connected together between any two non-reference electrodes.

In an implementation manner, the indicator light adjusts the indication state according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light, including:

The indicator light adjusts the brightness of the light according to the current between the two non-reference electrodes corresponding to the indicator light.

In one implementation, the indicator light is an LED light.

In an implementation manner, the magnitude of the current between the two non-reference electrodes corresponding to the indicator light is determined by the following formula:

Among them, I _i is the current between the two non-reference electrodes corresponding to the i-th indicator light, V _i is the potential difference between the two non-reference electrodes corresponding to the i-th indicator light, and R _i is the difference between the two non-reference electrodes corresponding to the i-th indicator light The total resistance corresponding to the resistors connected in series with the indicator lights, i is an integer greater than or equal to 1 and less than or equal to L, and L is the number of indicator lights.

In this way, the electric shock current simulation method provided in the embodiment of the present application is applied to an electric shock current simulation system. Different non-reference electrodes are in contact with different areas of the preset electrified environment, so that different electric shock current simulation models can be analyzed based on actual needs. Simulate the current situation after the electric shock of the part, and analyze the electric shock current in detail; use the different indication states of the indicator lights in the analog circuit to reflect the current size between the corresponding two non-reference electrodes, and you can intuitively see the different parts. The difference in current during electric shock is more vivid. The whole system can simulate the electric shock in different parts of the electric shock current simulation model according to the actual needs, and reflect the electric shock current through the indicator light. practicality.

Those skilled in the art can clearly understand that the technology in the embodiments of the present application can be implemented by means of software plus a necessary general hardware platform. Based on this understanding, the technical solutions in the embodiments of the present application can be embodied in the form of software products in essence or in the parts that make contributions to the prior art, and the computer software products can be stored in a storage medium, such as ROM/RAM , magnetic disk, optical disk, etc., including several instructions for causing a computer device (which may be a personal computer, server, or network device, etc.) to execute the methods described in various embodiments or some parts of the embodiments of the present application.

It is sufficient to refer to each other for the same and similar parts among the various embodiments in this specification. In particular, for the embodiments of the service constructing apparatus and the service loading apparatus, since they are basically similar to the method embodiments, the description is relatively simple, and for related details, please refer to the descriptions in the method embodiments.

The above-described embodiments of the present application do not limit the protection scope of the present application.

Claims (10)

1. An electric shock current simulation system for a live environment, wherein the system comprises: an electric shock current simulation model and a plurality of simulation circuits installed on the electric shock current simulation model; The electric shock current simulation model includes a model body and a plurality of non-reference electrodes installed on different parts of the surface of the model body; the shape of the model body is determined according to the shape of the simulated electric shock object, and the size of the model body is Determined according to the size of the simulated electric shock object; Each analog circuit includes an indicator light and a resistor connected in series with the indicator light; the indicator light and the resistor are electrically connected between any two non-reference electrodes; between any two non-reference electrodes , the total resistance value corresponding to the resistor is determined according to the resistance value between the parts corresponding to any two non-reference electrodes in the simulated electric shock object; in: any number of non-reference electrodes in the plurality of non-reference electrodes are used to contact different regions in the preset charged environment; The indicator light is used to adjust the indication state according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light. 2. The system according to claim 1, wherein each analog circuit comprises an indicator light, and a resistor connected in series with the indicator light, the indicator light and the resistor are electrically connected together at any point. Between two non-reference electrodes, including: Each analog circuit includes an indicator light and a plurality of resistors connected in series; After the indicator light is connected in series with the plurality of resistors connected in series, they are electrically connected together between any two non-reference electrodes. 3. The system according to claim 1, wherein the indicator light is used to adjust the indication state according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light, comprising: The indicator light is used to adjust the intensity of the light brightness according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light. 4. The system of claim 1, wherein the indicator light is an LED light. 5. The system according to claim 1, wherein the magnitude of the current between the two non-reference electrodes corresponding to the indicator light is determined by the following formula:

Among them, I _i is the current between the two non-reference electrodes corresponding to the i-th indicator light, V _i is the potential difference between the two non-reference electrodes corresponding to the i-th indicator light, and R _i is the difference between the two non-reference electrodes corresponding to the i-th indicator light The total resistance corresponding to the resistors connected in series with the indicator lights, i is an integer greater than or equal to 1 and less than or equal to L, and L is the number of indicator lights. 6. An electric shock current simulation method for a live environment, characterized in that the method is applied to an electric shock current simulation system, the electric shock current simulation system comprising: an electric shock current simulation model and an electric shock current simulation model installed on the electric shock current simulation model multiple analog circuits; The electric shock current simulation model includes a model body and a plurality of non-reference electrodes installed at different parts of the surface of the model body; the shape of the model body is determined according to the shape of the simulated electric shock object, and the size of the model body is Determined according to the size of the simulated electric shock object; Each analog circuit includes an indicator light and a resistor connected in series with the indicator light, the indicator light and the resistor are electrically connected between any two non-reference electrodes; between any two non-reference electrodes , the total resistance value corresponding to the resistor is determined according to the resistance value between the parts corresponding to any two non-reference electrodes in the simulated electric shock object; The method includes: any number of non-reference electrodes in the plurality of non-reference electrodes are in contact with different regions in the preset charged environment; The indicator light adjusts the indication state according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light. 7. The method according to claim 6, wherein each analog circuit comprises an indicator light, and a resistor connected in series with the indicator light, the indicator light and the resistor are electrically connected together at any arbitrary point. Between two non-reference electrodes, including: Each analog circuit includes an indicator light and a plurality of resistors connected in series; After the indicator light is connected in series with the plurality of resistors connected in series, they are electrically connected together between any two non-reference electrodes. 8. The method according to claim 6, wherein the indicator light adjusts the indication state according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light, comprising: The indicator light adjusts the intensity of the light brightness according to the magnitude of the current between the two non-reference electrodes corresponding to the indicator light. 9. The method of claim 6, wherein the indicator light is an LED light. 10. The method according to claim 6, wherein the magnitude of the current between the two non-reference electrodes corresponding to the indicator light is determined by the following formula:

Among them, I _i is the current between the two non-reference electrodes corresponding to the i-th indicator light, V _i is the potential difference between the two non-reference electrodes corresponding to the i-th indicator light, and R _i is the difference between the two non-reference electrodes corresponding to the i-th indicator light The total resistance corresponding to the resistors connected in series with the indicator lights, i is an integer greater than or equal to 1 and less than or equal to L, and L is the number of indicator lights.

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