10KV single-system epoxy mixture production system and method

Abstract

The invention belongs to the field of single-system epoxy mixture production, and discloses a 10KV single-system epoxy mixture production system and method.The 10KV single-system epoxy mixture production system comprises an epoxy resin ton barrel, a curing agent ton barrel, a vacuum pump set and a material receiving tank, the epoxy resin ton barrel is connected with a first metering tank, and the curing agent ton barrel is connected with a second metering tank; the vacuum pump set is respectively connected with the first metering tank, the second metering tank and the material receiving tank, the first metering tank and the second metering tank are connected with bagged silica powder, and output ends are connected with the material receiving tank. By adopting the system, the problem of high strength of manual mixing is effectively eliminated, and the operation difficulty and uncertainty are reduced; meanwhile, through the collaborative design of the ton barrel and the metering tank, sufficient supply of the mixture is ensured, interruption during continuous production of a machine table is avoided, and therefore the production efficiency is remarkably improved, and the requirement for large-batch production is met.

Description

Technical Field

[0001] This invention belongs to the field of single-system epoxy compound production technology, specifically relating to a 10KV single-system epoxy compound production system and method. Background Technology

[0002] Currently, the epoxy materials used in the electrode molding process are mainly divided into three categories: premixed epoxy resin (with silica powder added in advance), premixed curing agent (with silica powder added in advance), and single-component epoxy resin system materials (epoxy resin and curing agent). These materials are used in electrode production and constitute the main pattern of epoxy material usage.

[0003] In practical applications, while premixed epoxy resin systems are easy to operate, their mixing capacity is significantly insufficient when facing the needs of mass production, making it difficult to meet the requirements of efficient production. On the other hand, even if single-component epoxy resin systems can achieve mass production using automated equipment, they place particularly high demands on the manual operation of personnel, increasing the difficulty and uncertainty of operation in the production process.

[0004] It is evident that the current production and manufacturing of solid-sealed electrodes presents technical challenges, including the high intensity of manual mixing and insufficient supply of mixed materials during continuous machine production. Summary of the Invention

[0005] This invention provides a 10KV single-system epoxy compound production system and method. This system can effectively solve the technical problems of high manual mixing intensity and insufficient compound supply during continuous production of solid-sealed electrode posts.

[0006] To achieve the above objectives, the present invention employs the following technical content: A 10KV single-system epoxy compound production system includes: Epoxy resin ton containers, curing agent ton containers, vacuum pump sets, and receiving tanks; The epoxy resin ton container is connected to a first metering tank. The curing agent ton container is connected to a second metering tank; The vacuum pump unit is connected to the first metering tank, the second metering tank and the receiving tank respectively; The first metering vessel and the second metering vessel are respectively connected to bagged silicon micro powder; The output ends of the first metering tank and the second metering tank are respectively connected to the receiving tank.

[0007] Furthermore, a Roots pump set is connected between the epoxy resin ton and the first metering tank; A Roots pump set is connected between the curing agent ton and the second metering tank.

[0008] Furthermore, both the first and second metering tanks are equipped with vacuum pressure monitoring instruments.

[0009] Furthermore, both the first metering tank and the second metering tank include a weighing device for real-time monitoring of the weight of the material entering the tank.

[0010] Furthermore, it also includes receiving stations; The receiving station is used to fix the receiving tank; The bottom of the receiving tank is equipped with rollers.

[0011] Furthermore, it also includes an automatic control unit; The automatic control unit is electrically connected to the vacuum pump group and is used to control the automatic opening and closing of the vacuum pump group according to the pressure data of the first metering tank, the second metering tank and the receiving tank, and to control the vacuum pump group to perform air-breaking operations on the first metering tank, the second metering tank and the receiving tank respectively according to a set time.

[0012] A method for operating a 10KV single-system epoxy compound production system, based on the aforementioned 10KV single-system epoxy compound production system, includes: The epoxy resin in the epoxy resin ton is sent to the first metering tank, and the curing agent in the curing agent ton is sent to the second metering tank. The first and second metering tanks are vacuumed. When the vacuum level in the first and second metering tanks is lower than the preset pressure, the silicon micro powder in the bagged silicon micro powder is drawn into the first and second metering tanks respectively. After the drawn silicon micro powder reaches the first preset weight, the first and second metering tanks are stirred respectively, and then the vacuum pump group is used to vacuum the first and second metering tanks respectively. After the epoxy resin and silicon powder in the first metering tank are fully mixed, and the curing agent and silicon powder in the second metering tank are fully mixed, the first and second metering tanks are punctured to allow the epoxy resin mixed in the first metering tank and the curing agent mixed in the second metering tank to be poured into the receiving tank in a preset ratio; a vacuum pump unit is used to perform vacuum pretreatment on the receiving tank. When the raw materials flowing into the receiving tank reach the second preset weight, the receiving tank is punctured to obtain a degassed premix. The degassed premix is ​​used to prepare solid-sealed electrode products. The raw materials consist of mixed epoxy resin and mixed curing agent.

[0013] Furthermore, a Roots pump set is used to deliver epoxy resin from the epoxy resin ton to the first metering tank, and a Roots pump set is used to deliver curing agent from the curing agent ton to the second metering tank.

[0014] Furthermore, under the condition that the vacuum degree in the first metering vessel and the second metering vessel is less than 800 MPa, the silicon micro powder in the bagged silicon micro powder is drawn into the first metering vessel and the second metering vessel respectively.

[0015] Further, after obtaining the degassed premix, color paste is added, the solid-sealed electrode intermediate product is stirred and vacuum-treated for a preset time before molding, and finally the solid-sealed electrode product is obtained.

[0016] Compared with the prior art, the present invention has the following beneficial effects: This invention provides a 10KV single-system epoxy compound production system, including an epoxy resin tonne container, a curing agent tonne container, a vacuum pump unit, and a receiving tank. The epoxy resin tonne container is connected to a first metering tank, and the curing agent tonne container is connected to a second metering tank. The vacuum pump unit is connected to the first metering tank, the second metering tank, and the receiving tank. The first and second metering tanks are connected to bagged silica powder, and their output ends are all connected to the receiving tank. Through the vacuum suction of the vacuum pump unit, the material is automatically drawn from the tonne container into the metering tank for precise metering, and then transported to the receiving tank for mixing. The bagged silica powder is directly added to the metering tank, achieving automated proportioning and continuous feeding of epoxy resin, curing agent, and filler. This system effectively eliminates the problem of high intensity manual mixing, reducing operational difficulty and uncertainty. Simultaneously, the coordinated design of the tonne container and the metering tank ensures a sufficient supply of the compound, avoiding interruptions during continuous production, thereby significantly improving production efficiency and meeting the needs of mass production.

[0017] Preferably, in this invention, a Roots pump unit is added between the ton container and the metering tank. The high-efficiency conveying capacity of the Roots pump unit ensures that high-viscosity materials can be quickly and reliably extracted from the large storage container and transported to the metering tank, significantly improving the material transfer efficiency and the overall system feeding speed, and overcoming the efficiency bottleneck of handling large-volume raw materials under traditional methods.

[0018] Preferably, in this invention, a pressure monitoring instrument is installed inside the metering tank, enabling the system to monitor the vacuum status inside the tank in real time and accurately. This provides accurate triggering basis and control feedback for subsequent key steps, ensuring the reliability of the vacuum operation process and the accurate achievement of the vacuum standard, thereby guaranteeing the stability and quality of material intake and mixing.

[0019] Preferably, in this invention, the metering tank is equipped with a weighing device, enabling the system to monitor the weight of the material entering the tank in real time and dynamically, thus accurately controlling the amount of silica powder added to achieve the preset target. This eliminates the errors and uncertainties of manual weighing, ensuring the accuracy of the proportions of each component, which is key to obtaining a high-quality, consistent mixture.

[0020] Preferably, in this invention, a receiving station with a fixed receiving tank function is added, and rollers are provided at the bottom of the receiving tank. The receiving station ensures the stability and safety of the receiving tank when receiving the mixture; the roller design at the bottom greatly facilitates the movement and transfer of the receiving tank fully loaded with the mixture, improving the efficiency of the production process and the ease of operation, and adapting to the logistics needs of continuous production.

[0021] Preferably, in this invention, an automatic control unit is introduced and electrically connected to the vacuum pump group. This unit automatically controls the start and stop of the vacuum pump group based on real-time pressure data and automatically executes the cavitation breaking operation according to a preset program. This achieves a high degree of automation of core processes such as vacuum suction, pressure holding, and cavitation breaking, significantly reducing the intensity of manual intervention and operational complexity, and improving the intelligence level, stability, and production efficiency of the system operation.

[0022] This invention also provides a working method for a 10KV single-system epoxy compound production system. Based on the aforementioned 10KV single-system epoxy compound production system, epoxy resin and curing agent are first fed from ton containers into corresponding metering tanks. Then, a vacuum pump unit evacuates the metering tanks, automatically drawing in bagged silica powder to a preset weight under negative pressure. After powder addition, the mixture is stirred and mixed. After uniform mixing, the vacuum is broken, allowing the premixed resin and curing agent components to be vacuum-transported proportionally to a pre-vacuumed receiving tank. Finally, a secondary mixing is performed in the receiving tank to the target weight, forming a premix that can be directly used for degassing. This method utilizes vacuum suction to achieve fully automatic and precise powder feeding, eliminating manual weighing errors; staged vacuum mixing ensures uniform material dispersion; and the relay-style feeding design from ton containers to metering tanks and then to receiving tanks forms a continuous production flow. This method directly solves the problem of reducing manual operation intensity and skill dependence through full automation. Simultaneously, the premixing buffer function of the metering tank ensures a continuous and stable supply of the compound, enabling efficient large-scale continuous production.

[0023] Preferably, in this invention, a Roots pump set is used to transport epoxy resin and curing agent from the tonne drum to the metering tank. This further emphasizes the solution for transferring high-viscosity materials, utilizing the characteristics of the Roots pump to ensure a rapid, stable, and continuous supply of large-volume raw materials to the metering station, which is a key step in supporting the efficient operation of the system.

[0024] Preferably, in this invention, the silicon micropowder intake operation is performed under specific high vacuum conditions within the metering tank. This process parameter requirement ensures that the silicon micropowder can be rapidly, thoroughly, and dust-free drawn into the metering tank under strong negative pressure, preventing insufficient intake or dust generation, ensuring the efficiency and completeness of powder addition, and thus guaranteeing the accuracy of the premix ratio.

[0025] Preferably, in this invention, after obtaining the degassed premix, a color paste addition step, followed by stirring, vacuuming, and injection molding, is added. This completes the entire preparation process of the solid-sealed electrode post final product, ensuring uniform dispersion of the color paste, a dense and defect-free final mixture, and ultimately producing a solid-sealed electrode post product that meets the requirements, highlighting the production system and method's ability to guarantee the quality of the end product. Attached Figure Description

[0026] Figure 1 This is a schematic diagram of a 10KV single-system epoxy compound production system provided in an embodiment of the present invention; Figure 2 This is a schematic diagram of a metering tank provided in an embodiment of the present invention; Figure 3 This is a schematic diagram of a receiving station provided in an embodiment of the present invention; Figure 4 This is a schematic diagram of the vacuum stirring state provided in an embodiment of the present invention.

[0027] Figure label: 1. Metering tank; 2. Receiving station; 3. Receiving tank; 4. Conveying pipeline; 5. Vacuum pump unit; 6. Mixing station; 7. Vacuum pipeline; 8. Epoxy resin ton container; 9. Bagged silica powder; 10. Curing agent ton container; 11. Vacuum pump. Detailed Implementation

[0028] To make the technical problems solved by the present invention, the technical solutions, and the beneficial effects clearer, the following specific embodiments provide a further detailed description of the present invention. It should be understood that the specific embodiments described herein are merely illustrative and are not intended to limit the scope of the invention.

[0029] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. The components of the embodiments of the present invention described and shown in the accompanying drawings can generally be arranged and designed in various different configurations.

[0030] Therefore, the following detailed description of the embodiments of the invention provided in the accompanying drawings is not intended to limit the scope of the claimed invention, but merely to illustrate selected embodiments of the invention. All other embodiments obtained by those skilled in the art based on the embodiments of the invention without inventive effort are within the scope of protection of the invention.

[0031] It should be noted that similar labels and letters in the following figures indicate similar items. Therefore, once an item is defined in one figure, it does not need to be further defined and explained in subsequent figures.

[0032] The technical terms involved in this invention will be explained below: Breaking the vacuum: refers to the process of changing a vacuum environment into a non-vacuum environment, which is usually achieved by introducing gases such as nitrogen.

[0033] As mentioned in the background section, while premixed epoxy resin systems are easy to handle, they suffer from insufficient mixing capacity for mass production. However, single-component epoxy resin systems can be mass-produced using automated equipment, requiring a high level of manual dexterity from operators.

[0034] To address the aforementioned issues, this embodiment provides a 10KV single-system epoxy compound production system. This system solves the problems of high mixing intensity in manual mixing and insufficient supply of compound during continuous machine production. It achieves the goal of rapid compound manufacturing by quickly preparing premixed materials through the principle of vacuum negative pressure.

[0035] The production system provided in this embodiment will be further described below with reference to the accompanying drawings: like Figure 1 As shown, this embodiment provides a 10KV single-system epoxy compound production system, including an epoxy resin ton 8, a curing agent ton 10, a vacuum pump set 5, a receiving tank 3, a first metering tank, a second metering tank, bagged silica powder 9, a Roots pump set, a pressure monitoring instrument, a weighing device, a receiving station 2, and an automatic control unit.

[0036] like Figure 2 As shown, in this embodiment, the epoxy resin ton 8 is connected to the first metering tank via a Roots pump set, and the curing agent ton 10 is connected to the second metering tank via a Roots pump set. The first and second metering tanks can both be metering tanks 1 with identical structures. The vacuum pump set 5 is connected to the first metering tank, the second metering tank, and the receiving tank 3, respectively.

[0037] In this embodiment, the use of epoxy resin and curing agent in ton containers can meet the needs of large-scale material preparation and continuous production by machine operators.

[0038] For example, the vacuum pump assembly 5 includes a vacuum pump 11 and multiple vacuum pipes 7. The vacuum pump 11 is connected to the first metering tank, the second metering tank and the receiving tank 3 respectively through the corresponding vacuum pipes 7.

[0039] In this embodiment, the first metering tank and the second metering tank are respectively connected to the bagged silicon micro powder 9, and the output ends of the two are respectively connected to the receiving tank 3 through the material conveying pipe 4.

[0040] For example, both the first metering tank and the second metering tank are equipped with pressure monitoring instruments and include weighing devices for real-time monitoring of the weight of the material entering the tank.

[0041] like Figure 3 As shown, receiving station 2 is used to fix receiving tank 3, and rollers are provided at the bottom of receiving tank 3. Automatic control unit is electrically connected to vacuum pump group 5, and is used to control the automatic opening and closing of vacuum pump group 5 according to the pressure data of first metering tank, second metering tank and receiving tank 3, and to control vacuum pump group 5 to perform air-breaking operation on first metering tank, second metering tank and receiving tank 3 respectively according to set time.

[0042] like Figure 4 As shown, this embodiment also provides a working method for a 10KV single-system epoxy compound production system. Based on the production system provided in this embodiment, the specific steps are as follows: A Roots pump set is used to send the epoxy resin from epoxy resin tank 8 into the first metering tank, and a Roots pump set is used to send the curing agent from curing agent tank 10 into the second metering tank.

[0043] The first and second metering tanks are evacuated. Under the condition that the vacuum degree in the first and second metering tanks is less than 800MPa, the silicon micro powder in the bagged silicon micro powder 9 is sucked into the first and second metering tanks respectively. After the sucked silicon micro powder is weighed by an electronic scale to reach the first preset weight, the first and second metering tanks are stirred respectively. Then, the vacuum pump 11 of the vacuum pump group 5 is used to evacuate the first and second metering tanks respectively.

[0044] After the epoxy resin and silicon powder in the first metering tank are fully mixed, and the curing agent and silicon powder in the second metering tank are fully mixed, and both reach the required vacuum level, the material preparation of the tanks is complete. The first and second metering tanks are then purged to allow the epoxy resin mixed in the first metering tank and the curing agent mixed in the second metering tank to be transferred into the receiving tank 3 according to a preset ratio. This process is expected to take 20 minutes. A vacuum pump unit 5 is used to perform a vacuum pretreatment on the receiving tank 3 to create a negative pressure inside the receiving tank 3.

[0045] Once the raw materials in receiving tank 3 reach the second preset weight, the tank 3 is ventilated to obtain a solid-sealed electrode intermediate product. The raw materials consist of mixed epoxy resin and mixed curing agent. After obtaining the solid-sealed electrode intermediate product, color paste is manually added, and the intermediate product is pushed into the mixing and vacuuming area. It is then mixed and vacuumed for 30 minutes using vacuum pump 11 in mixing station 6 to form the final solid-sealed electrode product. The solid-sealed electrode intermediate product is used to prepare the solid-sealed electrode product.

[0046] For example, this embodiment also provides another working method for a 10KV single-system epoxy compound production system, applied to the automatic control unit of the 10KV single-system epoxy compound production system. The specific implementation process is as follows: After the automatic control unit starts, it first initializes the system and receives pressure data from the pressure monitors in the first and second metering tanks, as well as weight data from the weighing device. When epoxy resin in epoxy resin tank 8 needs to be fed into the first metering tank, the automatic control unit first confirms that the initial state of the first metering tank meets the requirements, and then controls the corresponding Roots pump set to start. At the same time, the weighing device monitors the weight of epoxy resin in the first metering tank in real time. When the preset delivery volume is reached, the automatic control unit controls the Roots pump set to stop running. Similarly, the automatic control unit controls another set of Roots pump sets in the same way to feed the curing agent in curing agent tank 10 into the second metering tank.

[0047] After the epoxy resin and curing agent are delivered, the automatic control unit starts the vacuum pump group 5 to evacuate the first and second metering tanks, continuously receiving data from the pressure monitor during the process. When the vacuum level in both the first and second metering tanks is below 800 MPa, the automatic control unit sends a signal allowing the silicon powder in the bagged silicon powder 9 to be drawn into the two metering tanks respectively, while the amount of silicon powder drawn in is monitored by a weighing device. When the drawn-in silicon powder reaches the first preset weight, the automatic control unit stops the drawing-in operation and starts the stirring devices in the first and second metering tanks for stirring. After a preset stirring time, the automatic control unit again controls the vacuum pump group 5 to evacuate the two metering tanks until the vacuum level displayed by the pressure monitor reaches the preset requirement.

[0048] Once the materials in the first and second metering tanks are fully mixed and the vacuum level meets the standard, the automatic control unit controls the vacuum pump group 5 to perform a vacuum-breaking operation on the two metering tanks according to a preset program. After the vacuum-breaking is completed, the discharge valves of the two metering tanks are opened, allowing the mixed epoxy resin and curing agent to flow into the receiving tank 3 in a preset ratio. Prior to this, the automatic control unit has pre-treated the receiving tank 3 by controlling the vacuum pump group 5 to perform a vacuum pretreatment, ensuring that the receiving tank 3 is under negative pressure through a pressure monitoring instrument.

[0049] During the material feeding process into receiving tank 3, the automatic control unit monitors the weight of the raw materials inside the tank in real time through the weighing device of receiving tank 3. When the second preset weight is reached, the control unit closes the discharge valves of the first and second metering tanks. At the same time, according to the set time, the vacuum pump group 5 is controlled to perform a vacuum breaking operation on receiving tank 3. After the vacuum breaking is completed, a solid-sealed electrode intermediate product is generated. Throughout the entire process, the automatic control unit records the pressure data, weight data, and equipment operating status at each stage to ensure the automation and precise control of the production process.

[0050] Therefore, the 10KV single-system epoxy compound production system and method provided by the present invention has the following advantages compared with existing production methods: This invention achieves efficient and stable preparation of single-system epoxy mixtures by constructing a system architecture comprising epoxy resin tonnes, curing agent tonnes, vacuum pump sets, receiving tanks, and matching metering tanks, combined with a phased vacuum treatment and automated control method. First, an automatic metering and conveying mechanism driven by the vacuum pump set transfers epoxy resin and curing agent from the tonnes to independent metering tanks. High vacuum conditions ensure precise and dust-free intake of silica powder, while stirring and secondary vacuuming ensure uniform premixing of all components and effective removal of air bubbles. Second, through preset ratio control and vacuum pretreatment in the receiving tanks, the premixed resin and curing agent components converge in a controlled environment to form a solidified electrode intermediate product, ensuring accurate material proportioning and mixing quality. Finally, the systematic tonne feeding, metering tank buffering, and automatic air-breaking operation, combined with the flexible transfer design of the receiving tanks, completely eliminate the intensity and operational uncertainty of manual batching and achieve a continuous and stable supply of the mixture. This production system and method simultaneously solves two core problems: high manual mixing intensity and insufficient material supply during continuous machine production. It significantly improves the mass production efficiency and product consistency of solid-sealed poles. At the same time, the system has good applicability and can be applied to the fields of gas, liquid, and dust mixtures.

[0051] The above embodiments are merely one of the implementation methods for achieving the technical solution of the present invention. The scope of protection claimed by the present invention is not limited to this embodiment, but also includes any variations, substitutions and other implementation methods that can be easily conceived by those skilled in the art within the scope of the technology disclosed in the present invention.

Claims

1. A 10KV single system epoxy mix production system characterized by, The system comprises: an epoxy resin ton barrel (8), a curing agent ton barrel (10), a vacuum pump set (5) and a receiving tank (3); the epoxy resin ton barrel (8) is connected with a first metering tank; the curing agent ton barrel (10) is connected with a second metering tank; the vacuum pump set (5) is connected with the first metering tank, the second metering tank and the receiving tank (3) respectively; the first metering tank and the second metering tank are connected with bagged silicon micro powder (9) respectively; the output ends of the first metering tank and the second metering tank are connected with the receiving tank (3) respectively.

2. The 10KV single system epoxy mixture production system according to claim 1, characterized in that, a Roots pump set is connected between the epoxy resin ton barrel (8) and the first metering tank; a Roots pump set is connected between the curing agent ton barrel (10) and the second metering tank.

3. The 10KV single system epoxy mixture production system according to claim 1, characterized in that, vacuum pressure monitors are arranged in the first metering tank and the second metering tank.

4. The 10 KV single system epoxy mixture production system according to claim 1, wherein, the first metering tank and the second metering tank each comprise a weighing device for monitoring the weight of the material in the input tank in real time.

5. The 10 KV single system epoxy mix production system of claim 1, wherein, the system further comprises a receiving station (2); the receiving station (2) is used for fixing the receiving tank (3); the receiving tank (3) is provided with a roller at the bottom.

6. The 10 KV single system epoxy mix production system of claim 1, wherein, the system further comprises an automatic control unit; the automatic control unit is electrically connected with the vacuum pump set (5) and is used for controlling the automatic opening and closing of the vacuum pump set (5) according to the pressure data of the first metering tank, the second metering tank and the receiving tank (3) and is used for carrying out vacuum breaking operation on the first metering tank, the second metering tank and the receiving tank (3) by controlling the vacuum pump set (5) according to the set time.

7. A method of operating a 10KV one-part epoxy hybrid production system, characterized by, The system according to any one of claims 1-6, comprising: the epoxy resin in the epoxy resin ton barrel (8) is sent into the first metering tank, and the curing agent in the curing agent ton barrel (10) is sent into the second metering tank; the first metering tank and the second metering tank are subjected to vacuumizing treatment, the silicon micro powder in the bagged silicon micro powder (9) is sucked into the first metering tank and the second metering tank respectively when the vacuum degree in the first metering tank and the second metering tank is lower than the preset pressure condition, the first metering tank and the second metering tank are subjected to stirring respectively when the sucked silicon micro powder reaches the first preset weight, and the first metering tank and the second metering tank are subjected to vacuumizing treatment by the vacuum pump set (5) respectively; the epoxy resin and the silicon micro powder in the first metering tank are fully mixed, the curing agent and the silicon micro powder in the second metering tank are fully mixed, and the first metering tank and the second metering tank are subjected to vacuum breaking treatment so that the mixed epoxy resin in the first metering tank and the mixed curing agent in the second metering tank are mixed into the receiving tank (3) according to the preset proportion; wherein the receiving tank (3) is subjected to vacuumizing pretreatment by the vacuum pump set (5); the raw materials mixed into the receiving tank (3) reach the second preset weight, the receiving tank (3) is subjected to vacuum breaking treatment, and the degassed premix is obtained, which is used for preparing a solid-sealed pole product; wherein the raw materials are composed of the mixed epoxy resin and the mixed curing agent.

8. The working method of a 10KV single system epoxy mixture production system according to claim 7, characterized in that, the epoxy resin in the epoxy resin ton barrel (8) is sent into the first metering tank by the Roots pump set, and the curing agent in the curing agent ton barrel (10) is sent into the second metering tank by the Roots pump set.

9. The working method of a 10KV single system epoxy mixture production system according to claim 7, characterized in that, The silicon micropowder in the bagged silicon micropowder (9) is respectively sucked into the first metering tank and the second metering tank under the condition that the vacuum degree in the first metering tank and the second metering tank is lower than 800 MPa.

10. The method of claim 7, wherein the system is a 10KV single system epoxy hybrid production system. After the degassed premix is obtained, the color paste is added, the solid-sealed pole column intermediate product is stirred and vacuumized for a preset time, and then is shaped, and finally the solid-sealed pole column product is obtained.

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