Mobile field special container grounding device

Abstract

The application provides a motorized field special container grounding device, which comprises a grounding plate, a stainless steel hinge plating, a pure copper wire woven belt and a grounding wire hole, is fixedly arranged in a trench under the soil ground level, and is covered by pouring a mixed liquid of low-resistance high-capacitance electrolyte material and water into the trench. The stainless steel hinge plating is used for mechanical connection between the grounding plates, the pure copper wire woven belt is used for electrical soft connection of the center part of the grounding plate, and the grounding wire hole is connected with a grounding wire which is connected with a load equipment on the ground. The motorized field special container grounding device can realize the basic requirement of less than 1 ohm grounding resistance, thereby reducing the equipment failure caused by high grounding resistance, the equipment failure and personal safety accident caused by lightning, and solving the problems of motorization, rapidness, repeated use and the like.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of lightning protection device, and particularly relates to a mobile field special container grounding device. BACKGROUND

[0002] In modern war, fixed command system, communication system, weapon equipment and medical logistics supply system have poor anti-destroying ability and are difficult to adapt to the war survival demand under high technology conditions. The mobile small area field combat position, mobile field command post, mobile field hospital, mobile field logistics support warehouse, mobile field communication vehicle (field radar vehicle, field monitoring and monitoring vehicle, communication command vehicle) and mobile small area combat position (radar station, observation and communication station, command center machine room) and other integrated information systems must have the function of shifting and mobile deployment at any time. The combat demand is different under different environmental conditions. The system should be able to resist the attack of enemy "soft damage" and "hard destroy", and also should be able to resist the test of bad environment and climate in nature. Especially, the lightning damage is particularly important. Good grounding device is the most basic guarantee for the success of lightning protection. Once lightning means single and multiple lightning current impact. If the lightning current cannot be released smoothly, the electronic system line and equipment can be seriously damaged. This is a devastating damage to information equipment. If the grounding device is not good and the grounding resistance is too large, the equipment damage and personal safety accidents can be caused by lightning and other overvoltage behaviors. Many military electronic equipment, information equipment, short wave ultra-short wave equipment, radar system equipment, communication equipment, weapon equipment and other equipment itself need good working grounding, high frequency signal grounding and logic grounding system, etc. The grounding resistance of the grounding net should be less than 1 ohm. If the grounding resistance is too large, the equipment may be damaged for a long time.

[0003] Therefore, the grounding device is quickly completed, the grounding net grounding resistance is low, the use requirements of the mobile field system equipment in "all regions, all weather, no blind spot" work are met, the personal safety and the smooth and safe equipment work are fully ensured, and the qualified grounding device has become an essential key link in the safety design of the mobile field system. Therefore, the corresponding GB / T 50311-2000 "Building and Building Group Integrated Wiring Engineering System Design Specification", GB / T 50200-2018 "Cable Television Network Engineering Design Standard", GB50116-2013 "Fire Alarm System Design Specification", "High-speed Railway Design Specification (Trial)", TB10621-2009, JGJ16-2016 "Civil Building Electrical Design Specification", 2016 "Coal Mine Safety Regulations", GB 16895.11-2001 "Building Electrical Devices Part 4: Safety Protection Chapter 44: Overvoltage Protection Section 442: Protection of Low-voltage Electrical Devices Against Temporary Overvoltage and Faults Between High-voltage Systems and Ground", and other national and industry standards and some relevant GJB provisions are intended to completely solve the grounding fault problem: the grounding net grounding resistance value is not greater than 1 ohm. Including existing military facilities, electronic microelectronic center machine rooms, especially existing mobile field special radar stations, observation and communication stations, mobile field special electronic countermeasure positions, mobile field special small area combat position command center machine rooms, and mobile field special communication equipment machine room grounding devices, etc. cannot achieve the basic requirement of less than 1 ohm grounding resistance.

[0004] The disadvantages of the mobile field special grounding device in the prior art include:

[0005] A. The current national grounding standards such as: GB / T 50311-2000 "Building and building group integrated wiring engineering system design specification", GB / T 50200-2018 "Cable television network engineering design standard", GB50116-2013 "Fire alarm system design specification", "High-speed railway design specification (trial)", TB10621-2009, JGJ16-2016 "Code for design of electrical installations in civil buildings", 2016 "Coal mine safety regulations", GB 16895.11-2001 "Electrical installations in buildings Part 4: Protection for safety Chapter 44: Protection against overvoltages Section 442: Protection of low-voltage electrical installations against temporary overvoltages and against faults between high-voltage systems and earth" and other relevant provisions of national and industry standards and some related GJBs. The specific mandatory requirements are: the grounding resistance value of the grounding grid is ≯1Ω. Including existing military facilities, electronic and microelectronic center machine room, especially existing mobile field special radar station, observation and communication station grounding device, mobile field special electronic countermeasure position grounding device, mobile field special small area combat position command center machine room grounding device, mobile field special communication equipment machine room grounding device, etc. It is impossible to achieve the basic requirement of less than 1 ohm grounding resistance, and usually only less than 4 ohm (many geological conditions in harsh areas can only be less than 10 ohm) grounding device. The failure of military facilities, equipment, computer equipment, communication equipment, electronic and microelectronic integrated equipment and accidents occur from time to time, and the probability of lightning damage increases significantly, which cannot resist meteorological disasters and equipment malfunction and accident. In the field of mobile field combat system, there are many accidents and accident hazards, especially in mountainous areas, water edges, gobi, grasslands, islands, deserts and other harsh geological conditions and lightning-prone areas.

[0006] B. The mobile field special grounding device includes: iron pick, iron shovel and hammer and other tools. Usually, multiple 1-meter-long metal (or stainless steel) steel rods are directly hammered into the ground with a hammer, and then a copper braid is mechanically connected to the multiple metal (or stainless steel) steel rods (hammered into the ground wire, and the upper end is connected by a conductor) to form a "single" ground grid. Usually, when the soil resistivity is less than 40 ohms per meter, the grounding resistance is less than 4 ohms, usually when the soil resistivity is less than 200 ohms per meter, the grounding resistance is less than 10 ohms, and usually when the soil resistivity is greater than 200 ohms per meter, the grounding resistance is less than 30 ohms. In mountainous areas, grasslands, gobi, sandy land and other places, such process makes the grounding resistance value of the grounding grid as high as hundreds of ohms, and the equipment cannot work normally, and the safety of equipment and personnel life cannot be guaranteed in rainy weather.

[0007] C. Many 1-meter-long metal (or stainless steel) steel drill rods cannot be pulled out after being directly hammered into the ground, and many phenomena such as breaking, bending and deforming, and breaking the steel drill rod after being directly hammered into the ground often occur.

[0008] D. The grounding device is basically used once and cannot be quickly replenished in continuous combat missions.

[0009] E. Poor portability, high labor hours, and many factors such as weight and material cause small combat radius and poor battlefield operability. SUMMARY

[0010] Embodiments of the present application provide a motorized field special container grounding device to overcome the problems of the prior art.

[0011] A motorized field special container grounding device, comprising: a grounding plate, a stainless steel hinge plating, a pure copper wire braid, and a grounding wire hole, the motorized field special container grounding device is fixedly arranged in a trench under the soil ground surface, a mixed liquid of low-resistance high-capacity electrolyte material and water is poured into the trench, and after covering the motorized field special container grounding device, the trench surface is covered with a layer of soil.

[0012] Each grounding plate is mechanically connected by two or more stainless steel hinge platings, and the center part of each grounding plate is electrically connected by the pure copper wire braid, and the grounding wire hole is connected to the grounding wire which is connected to the load device on the ground.

[0013] Preferably, the grounding plate is a nickel-chromium alloy plate material, which is an antioxidant metal cathode of the grounding system, and the size of the nickel-chromium alloy plate material is 400-800mm in length, 300-600mm in width, and 1-5mm in thickness.

[0014] Preferably, the pure copper wire braid is not less than 3000, and the total cross-sectional area is >50mm 2 The two sides of the pure copper wire braid are pressed by stainless steel special pressing strips, the pressing strips have fixing holes which are concentric and have the same diameter as the fixing holes on the grounding plate, rivets are passed through the fixing holes for riveting, and after riveting, molecular diffusion welding is performed to achieve effective electrical connection of the pressing strips, the copper braid, and the grounding plate.

[0015] Preferably, the pure copper wire braid is made of multiple tin-plated copper wires, and is single-layer or multi-layer stacked, and each layer has the same cross-sectional area.

[0016] Preferably, the composition of the low-resistance high-capacity electrolyte material includes:

[0017] A. Polyacrylamide, sodium nitrite, triethanolamine, ammonium disulfate, methylene bisacrylamide, potassium persulfate, sodium bisulfite, tetramethylethylenediamine, starch, polyurethane, pentapotassium phosphate, tetrapotassium pyrophosphate, potassium salt of acetylene dicarboxylate

[0018] B. Manganese dichloride, ferric chloride, lithium carbonate, polythiophene, polypyrrole, lithium cobalt oxide, lithium nickel oxide, lithium manganate

[0019] C. Auxiliary agents: strong alkali, acrylic acid, activator baking soda, polymerizer ammonia water.

[0020] The method for manufacturing the low-resistance and high-capacity electrolyte material comprises the following processing steps:

[0021] Step 1: After adding acrylic acid into the reactor, sodium hydroxide solution is added for neutralization. The reaction temperature is 24-90°C to form a neutralized solution with a concentration of 85-95%;

[0022] Step 2: Add starch to water and heat to 85°C and keep warm for 3 hours, stirring to form a paste-like viscous liquid, and cooling to room temperature to obtain a starch solution;

[0023] Step 3, after uniformly stirring the neutralized solution and the starch solution in a container, polyacrylamide, sodium nitrite, triethanolamine, methylene bisacrylamide, sodium bisulfite, tetramethylethylenediamine, starch, polyurethane, pentapotassium phosphate, tetrapotassium pyrophosphate and acetylene dicarboxylic acid potassium salt are added, baking soda is used as an activator, and ammonia water is used as a polymerization agent to achieve a polymerization reaction, and the polymerization reaction is completed at a room temperature of not less than 30 degrees Celsius under nitrogen deoxygenation. Ammonium disulfate and potassium persulfate are selected as catalysts for the polymerization reaction;

[0024] Step 4: After the polymerization reaction is completed, manganese dichloride, ferric chloride, lithium carbonate, polythiophene, polypyrrole, lithium cobaltate, lithium nickelate and lithium manganate are added and stirred for 1 hour to obtain a colloid. The colloid is taken out from the container, dried and granulated, crushed and sieved to obtain a finished colloid product, which is a low-resistance and high-capacity electrolyte material.

[0025] From the technical solutions provided by the above-mentioned embodiments of the present invention, it can be seen that the embodiments of the present invention provide a mobile field (≤1Ω) grounding system that can be used as a system for many military facilities and electronic microelectronic center rooms. The mobile field-specific capacitive grounding device provided by the embodiments of the present invention can achieve the basic requirement of a grounding resistance of less than 1 ohm. This reduces equipment failures caused by high grounding resistance, equipment failures caused by lightning, and hidden dangers of personal safety accidents, providing good security guarantees for our army's "all-weather, all-area, no-blind-spot" operations. It solves many problems such as mobility, speed, and reuse, and improves the mobility and combat radius of the troops. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] In order to more clearly illustrate the technical solutions of the embodiments of the present application, the drawings needed to be used in the embodiments will be briefly introduced as follows. Obviously, the drawings in the following description are only some embodiments of the present application, and other drawings can be obtained by those skilled in the art without any creative effort based on these drawings.

[0027] Figure 1 A structural diagram of the grounding system is provided for the embodiments of the present application.

[0028] Figure 2 A connection relationship diagram between the motorized field special container grounding device and the low-resistance high-capacity electrolyte material is provided for the embodiments of the present application.

[0029] Figure 3 A structural diagram of the motorized field special container grounding device is provided for the embodiments of the present application.

[0030] Figure 4 A half-expansion diagram of the motorized field special container grounding device is provided for the embodiments of the present application.

[0031] Figure 5 A full-expansion diagram of the motorized field special container grounding device is provided for the embodiments of the present application. DETAILED DESCRIPTION

[0032] In order to facilitate the understanding of the embodiments of the present application, the following will be further explained and described with several specific embodiments as examples in combination with the drawings, and each embodiment does not constitute a limitation on the embodiments of the present application.

[0033] The present application provides a manufacturing method of a motorized field special container grounding device, which is to solve the above key problems, i.e., to reduce the equipment failure caused by high grounding resistance of the grounding net, the equipment failure and personal safety accident caused by lightning, and to provide a good safety guarantee for the all-weather, all-area, no-blind-area and no-blind-point combat of the army. The motorized field special container grounding device has been applied in the grounding system of the high-voltage laboratory, the grounding system of the air force radar station, the grounding system of the air force airport navigation, and the grounding system of the medical site project, and the grounding resistance of the grounding net is 0.22-0.75 ohm, and some key parameters have passed the detection of the national third-party inspection and detection institution, i.e., Beijing Lightning Protection Device Test Center.

[0034] Theoretical basis of the motorized field special container grounding device:

[0035] In various grounding systems, the function of the grounding net is to provide a good ground channel for the grounding current. According to Ohm's law, the grounding resistance of the grounding net can be expressed as:

[0036]

[0037] In the formula, I is the current through the grounding grid, and U is the voltage of the grounding grid to the ground at infinity. The formula (1) is calculated to obtain a principle formula about the grounding resistance:

[0038]

[0039] In the formula, j, E and D are the current density, the electric field intensity and the electric induction (electric displacement) intensity around the grounding grid, respectively; S is the surface area of the grounding grid; ζ, ρ and C are the dielectric constant, the soil resistivity and the capacitance of the grounding grid in the soil, respectively. The formula (2) is slightly changed to become the following formula (3):

[0040]

[0041] In the formula, ρ is the soil resistivity, and C0=C / ζ is the capacitance of the cathode system of the grounding grid in the air. It is not difficult to find that the dielectric constant ζ of the soil is not in the formula. That is, the grounding resistance is irrelevant to the dielectric constant ζ of the soil. The formula (3) gives us a simple and clear grounding resistance formula from the overall understanding. It can be known that the key of the grounding resistance of the grounding grid lies in reducing the soil resistivity and increasing the capacitance value of the grounding grid.

[0042] The structure of the grounding system provided by the embodiment of the present application is shown as Figure 1 The basic components include a cathode (a motorized field special container grounding device), an anode (soil), a grounding wire and a low-resistance high-capacitance electrolyte material. The motorized field special container grounding device is fixedly arranged in a trench under the soil ground plane, the mixed liquid of the low-resistance high-capacitance electrolyte material and water is poured into the trench, and the motorized field special container grounding device is covered. The mechanical connection between the grounding plates is realized by a plurality of stainless steel hinges, and the central part of each grounding plate is electrically and softly connected by the pure copper wire woven belt. The grounding wire hole is connected to the grounding wire, and the grounding wire is connected to the load equipment on the ground.

[0043] The connection relationship between the motorized field special container grounding device and the low-resistance high-capacitance electrolyte material is shown as Figure 2 The low-resistance high-capacitance electrolyte material is dispersedly arranged in the soil, the motorized field special container grounding device is fixedly arranged in the low-resistance high-capacitance electrolyte material, and the motorized field special container grounding device is connected to the load equipment on the ground through the grounding wire.

[0044] The motorized field special container grounding device provided by the embodiment of the present application adopts the titanium-nickel-chromium (effective antioxidant metal cathode) grounding plate, the low-resistance high-capacitance electrolyte material technology and the manufacturing method. It has the characteristics of mobility, repeatability and portability.

[0045] The structure of the motorized field special container grounding device provided by the embodiment of the application is shown in Figure 3 The basic components include a grounding plate 1, a stainless steel hinge plating 2, a pure copper wire woven belt 3, and a grounding wire hole 4. The half-expanding schematic diagram of the motorized field special container grounding device is shown in Figure 4 The fully expanded schematic diagram is shown in Figure 5 .

[0046] The grounding wire hole in Figure 2 is special for the grounding wire. The grounding wire hole can be welded with a copper nose of 25-50 square millimeters of interface for a plurality of copper cables. The copper nose is screwed on the grounding plate with a bolt, and the other end of the cable is led out of the equipment. Figure 4 L in is the length of the grounding plate, B is the width of the grounding plate, D is the gap distance between the expanded plates of the grounding plate, and n is the number of the grounding plates. The actual number of the grounding plates used is determined according to the soil resistivity on site.

[0047] The grounding plate is a nickel-chromium alloy plate, which is usually coated with titanium outside, such as titanium carbide or titanium nitride. The nickel-chromium alloy plate is an oxidation-resistant metal cathode as an effective grounding network.

[0048] The size of the nickel-chromium alloy plate can be (400-800) mm * (300-600) mm * (1-5) mm.

[0049] The nickel-chromium alloy plates are mechanically connected by a plurality of stainless steel hinge platings.

[0050] The central part of each nickel-chromium alloy plate is electrically connected by a special pure copper wire woven belt, which has no less than 3000 wires and a cross-sectional area of > 50 mm 2 . The two sides of the pure copper wire woven belt are pressed by stainless steel special pressing strips, which have fixing holes concentric with and the same diameter as the fixing holes on the grounding plate, and can be riveted by rivets. After riveting, molecular diffusion welding is performed to electrically connect the pressing strips, the copper woven belt, and the grounding plate. The above-mentioned pure copper wire woven belt is woven by a plurality of tinned copper wires, which can be single-layer or multi-layer stacked, but the cross-sectional area is the same.

[0051] The grounding network special cathode device is usually composed of 10-70 titanium nickel-chromium grounding plates in series. The number of grounding plates determines the length of the grounding network. The grounding wire is usually led out from the central grounding plate among the plurality of grounding plates. For example, if 11 grounding plates are used, the grounding wire is led out from the 6th grounding plate. When testing the grounding resistance, the grounding resistance is the minimum value.

[0052] The titanium nickel-chromium grounding plate can be folded for transportation, has light weight, long service life, and is easy to operate

[0053] Titanium nickel chromium grounding plate is not rust, can be reused more than 100 times.

[0054] Titanium nickel chromium grounding plate can be portable, can be closed, can be flat.

[0055] Low resistance high capacity electrolyte material technology and manufacturing method

[0056] The related technical parameters of the motorized field special container grounding device provided by the embodiments of the present application are as follows:

[0057] Normal temperature resistivity (can be set): < (0.01-0.4) Ω / m

[0058] Unit volume capacitance (can be set): > (0.7-30) μF (resistivity note method under the bridge test)

[0059] Loss of water resistivity (can be set): < (0.015-0.45) Ω / m

[0060] Corrosion rate (after burial): (0.0001-0.001) / year

[0061] The laying method and effect case of the motorized field special container grounding device are as follows:

[0062]

[0063] The composition of the low resistance high capacity electrolyte material in the above grounding system includes:

[0064] A. Polyacrylamide (15-20 million standard units), sodium nitrite, triethanolamine, ammonium disulfate, methylene bisacrylamide, potassium persulfate, sodium bisulfite, tetramethyl ethylene diamine, starch, polyurethane, potassium phosphate, tetrapotassium pyrophosphate, potassium acetylene dicarboxylate

[0065] B. Manganese dichloride, ferric chloride, lithium carbonate, polythiophene, polypyrrole, lithium cobaltate, lithium nickelate, lithium manganate

[0066] C. Auxiliary agent: strong alkali (NaOH), acrylic acid, activator baking soda, polymerizing agent ammonia.

[0067] The manufacturing method of the low resistance high capacity electrolyte material in the above grounding system includes the following processing steps:

[0068] Step 1, add acrylic acid in the reactor, then add sodium hydroxide solution for neutralization, the reaction temperature is 24-90℃, become neutralized solution, the concentration is 85-95%.

[0069] Step 2, add water to the starch and heat to 85℃ and keep for 3 hours, after stirring, it becomes a paste-like viscous liquid. After cooling to room temperature, starch solution is obtained.

[0070] Step 3, after the above neutralization solution and starch solution are uniformly stirred in a container, polyacrylamide (1500-2000 million units), sodium nitrite, triethanolamine, methylene bisacrylamide, sodium bisulfite, tetramethyl ethylene diamine, starch, polyurethane, potassium phosphate, tetrapotassium pyrophosphate and potassium acetylene dicarboxylate are added, baking soda is used as the activator, and ammonia is used as the polymerization agent. The polymerization reaction is completed at room temperature not less than 30 degrees Celsius under nitrogen gas deoxidization. The catalyst (or initiator) of the polymerization reaction is selected from ammonium disulfate and potassium persulfate.

[0071] Step 4, after the polymerization reaction is completed, manganese dichloride, iron trichloride, lithium carbonate, polythiophene, polypyrrole, lithium cobaltate, lithium nickelate and lithium manganate are added, and the mixture is stirred for 1 hour to obtain a colloid, which is taken out of the container. The colloid is dried and granulated, crushed and sieved to obtain a colloid product, which is a low-resistance high-capacity electrolyte material.

[0072] A typical formula (weight percentage) of the low-resistance high-capacity electrolyte material provided by the embodiment of the present application is as follows:

[0073]

[0074]

[0075] 4. System parameters:

[0076] Experimental items Normal temperature resistivity Water loss resistivity Pure material corrosion rate Buried corrosion rate National standard requirement value ≤5Ω / m ≤6Ω / m ≤0.03mm / year ≤0.05mm / year Formula one 0.013 0.014 0.0005 0.001 Formula two 0.02 0.034 0.0009 0.011 Formula three 0.083 0.1 0.0015 0.0019

[0077] The laying method of the motorized field special container grounding device provided by the embodiment of the present application is horizontal laying. The laying process is as follows:

[0078] According to the size of the grounding plate, a trench is excavated in the area where the grounding net is laid, and the excavation depth of the trench is usually 0.2-0.5 meters, and the excavation is repeated with the same length as the laying of the grounding plate.

[0079] The folded grounding plate is laid flat in the trench.

[0080] The mixture of low-resistance high-capacity electrolyte material and water is configured: refer to the instruction manual to identify the mixing ratio of the material and water, usually there are 1:25 models; there are 1:40 models; there are 1:50 models; there are 1:15 models; there are 1:25 models.

[0081] After the mixture is configured according to the concentration ratio (for example, 1:25 product, which means 1 kg of electrolyte dissolves 25 kg of water), the mixture is stirred to become a viscous liquid, the viscous liquid is poured into the trench, the liquid completely covers the grounding plate, and a cable is drawn out from the middle of the grounding plate and connected to the equipment shell that needs the grounding net.

[0082] After completion, backfill with the excavated soil, test the ground net resistance value, and the ground net grounding resistance value stabilizes for 7-15 days.

[0083] If disarming is needed after a period of time, dig a trench, take out the grounding plate, and clean it for reuse in the following task.

[0084] The effect of the motorized field special container grounding device provided by the embodiment is as follows:

[0085]

[0086] Those skilled in the art can understand that the drawings are only schematic diagrams of an embodiment, and the modules or flows in the drawings are not necessarily necessary for implementing the present application.

[0087] Those skilled in the art can understand that the modules in the device in the embodiment can be distributed in the device in the embodiment according to the embodiment description, or can be located in one or more devices different from the embodiment after corresponding changes. The modules in the above embodiment can be combined into one module, or can be further split into multiple sub-modules.

[0088] In summary, the embodiment provides a motorized field (≤1Ω) grounding system, which can be used as many military facilities, electronic microelectronic center machine rooms. The motorized field special container grounding device provided by the embodiment can achieve the basic requirement of less than 1 ohm grounding resistance. Thus, the device failure caused by high grounding resistance, the device failure caused by lightning and the personal safety accident hidden danger are reduced, and good safety protection is provided for the all-weather, all-area and no-blind-area combat of the army. Many problems such as mobility, rapidity and repeated use are solved, and the mobility and combat radius of the army are improved.

[0089] In the motorized field special container grounding device, the grounding plate is foldable and portable, can be used repeatedly, the material is oxidation-resistant and rust-free, and can be used for a long time.

[0090] The electrolyte for grounding is portable and can quickly achieve the technical requirement of <1Ω grounding net. Usually, 8 Kg of electrolyte after adding water can complete a <1Ω grounding network of basic materials. The accident of frequently damaging steel spikes by "hammering steel spikes" is avoided. The electrolyte is non-toxic and non-radioactive through national third-party environmental protection test.

[0091] After multiple verifications, the motorized field system requirements and all technical indicators are completely met, and the basic technical parameters are tested and verified by a national third party.

[0092] The above merely describes preferred specific embodiments of the present application, but the protection scope of the present application is not limited thereto, any changes or replacements within the technical scope disclosed by the present application, which can be easily thought by those skilled in the art, should be covered within the protection scope of the present application. Therefore, the protection scope of the present application should be subject to the protection scope of the claims.

Claims

1. A motorized field special-purpose container grounding device, characterized in that, It comprises: The motorized field special container grounding device is fixedly arranged in a trench under the soil ground surface, a mixed liquid of low-resistance high-capacity electrolyte material and water is poured into the trench, and the surface of the trench is covered with soil after covering the motorized field special container grounding device; Each grounding plate is mechanically connected by two or more stainless steel hinge platings, and the central part of each grounding plate is electrically connected by the pure copper wire woven belt, and the grounding wire hole is connected with the grounding wire connected with the load equipment on the ground; The composition of the low-resistance high-capacity electrolyte material comprises: A. polyacrylamide, sodium nitrite, triethanolamine, ammonium dithionate, methylene bisacrylamide, potassium persulfate, sodium bisulfite, tetramethyl ethylene diamine, starch, polyurethane, potassium phosphate, tetrapotassium pyrophosphate, potassium acetylene dicarboxylate B. manganese dichloride, iron trichloride, lithium carbonate, polythiophene, polypyrrole, lithium cobaltate, lithium nickelate, lithium manganate C. auxiliary agent: strong alkali, acrylic acid, activator baking soda, polymerizing agent ammonia water; The manufacturing method of the low-resistance high-capacity electrolyte material comprises the following processing steps: Step 1, add acrylic acid in the reactor, then add sodium hydroxide solution for neutralization, the reaction temperature is 24-90℃, and the concentration is 85-95%; Step 2, add water to the starch and heat to 85℃ and keep for 3 hours, then stir to form a paste-like viscous liquid, and then cool to room temperature to obtain a starch solution; Step 3, after uniform stirring of the above-mentioned neutralized solution and the starch solution in a container, add polyacrylamide, sodium nitrite, triethanolamine, methylene bisacrylamide, sodium bisulfite, tetramethyl ethylene diamine, starch, polyurethane, potassium phosphate, tetrapotassium pyrophosphate and potassium acetylene dicarboxylate, the activator is baking soda, and the polymerizing agent is ammonia water, the polymerization reaction is completed at room temperature not less than 30℃ under nitrogen atmosphere, and the catalyst for the polymerization reaction is selected from ammonium dithionate and potassium persulfate; Step 4, after the completion of the polymerization reaction, add manganese dichloride, iron trichloride, lithium carbonate, polythiophene, polypyrrole, lithium cobaltate, lithium nickelate and lithium manganate materials, stir for 1 hour to obtain a colloid, take out the colloid from the container, and then dry and dry the colloid, then granulate, crush and sieve to obtain a colloid product, which is the low-resistance high-capacity electrolyte material.

2. The apparatus of claim 1, wherein The grounding plate is a nickel-chromium alloy plate material, which is used as an antioxidant metal cathode of the grounding system, and the size of the nickel-chromium alloy plate material is 400-800mm in length, 300-600mm in width and 1-5mm in thickness.

3. The apparatus of claim 1, wherein The pure copper wire braid band is not less than 3000, and the total cross-sectional area is greater than 50mm 2 The two sides of the pure copper wire braid band are pressed by special stainless steel pressing strips, the pressing strips are provided with fixing holes, the fixing holes are concentric with the fixing holes on the grounding plate and have the same diameter, rivets are passed through the fixing holes for riveting, and after riveting, molecular diffusion welding is carried out, so that the pressing strips, the copper braid band and the grounding plate are effectively electrically connected.

4. The apparatus of claim 1, wherein The pure copper wire woven belt is made of multiple tinned copper wires, which is single-layer or multi-layer stacked, and each layer has the same cross-sectional area.

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