Raw material batching equipment for carbon production

Abstract

This invention discloses a raw material batching device for carbon production, including a batching cylinder. A solid feed hopper and a liquid feed hopper are installed on the side of the batching cylinder. A feed box is connected to the solid feed hopper via a pneumatic slide valve. A weighing box is installed inside the feed box. The liquid feed hopper is connected to the inner cavity of the batching cylinder via a pipe, and a flow meter and valve are installed on the pipe. A stirring assembly is installed inside the batching cylinder. In this raw material batching device for carbon production, a first motor drives a first rotating rod inside the weighing box to rotate, feeding the weighed solid raw material into the batching cylinder. The rotation of the weighing box compresses the air bladder, and the gas inside the air bladder facilitates the removal of raw material adhering to the surface of the weighing components. Liquid raw material is injected through the liquid feed hopper and transported to the inner cavity of the batching cylinder via the pipe. The flow meter on the pipe monitors the flow rate, and the valve controls the opening and closing according to the set flow rate, realizing the quantitative addition of liquid raw material and ensuring the accuracy of the solid-liquid raw material ratio.

Description

Technical Field

[0001] This invention relates to the technical field of carbon production, specifically to a raw material batching device for carbon production. Background Technology

[0002] Carbon generally refers to materials with a high carbon content, which are widely used in industrial production such as metallurgy, chemical industry, and battery industry. They are favored for their good electrical conductivity, high temperature resistance and corrosion resistance. In the production process of carbon, the accurate proportion of raw materials is crucial. However, the traditional manual weighing method often faces the problem of large errors, and the manual operation is inefficient and cannot meet the requirements of efficient and accurate production.

[0003] To overcome the above-mentioned defects, existing technology 1 (Chinese Patent Publication No. CN219308645U, Publication Date July 7, 2023) provides a carbon raw material homogenization and batching equipment for carbon production. This equipment includes a frame, a conveying pipe, a first motor, a screw propeller, and multiple metering tanks. The metering tanks are grouped together on the conveying pipe, with each group including at least four metering tanks. Each group includes a pair of intermediate metering tanks and a pair of lateral metering tanks distributed on either side of the intermediate metering tanks. The bottom surfaces of both the intermediate and lateral metering tanks are inclined slopes towards the neutral plane of the conveying pipe, with the ends of the slopes serving as discharge ends. The discharge ends of the intermediate and lateral metering tanks are arranged side-by-side. A first discharge pipe is located at the bottom of the screw propeller, and a disc-shaped equalizing device is located below the first discharge pipe. A hoist is located below the disc-shaped equalizing device to transport the material to a mixer. This device has a reasonable design, a short discharge span between different metering tanks, good mixing effect, and is beneficial for improving batching efficiency. This technology offers a high efficiency and is suitable for large-scale promotion. Existing technology two (Chinese patent publication number CN220918987U, publication date May 10, 2024) describes a carbon raw material homogenization and batching equipment for carbon production. It includes a batching tank, with one end of a drain pipe fixedly connected to the inner wall of the tank. A storage tank is fixedly mounted at the other end of the drain pipe. A sealing cover is provided on the top of the batching tank, and an installation hole is opened on the top. An electromagnetic rod is fixedly mounted at the bottom of the sealing cover. By eliminating the magnetism of the electromagnetic rod, the batching tank and the sealing cover are separated. Then, the sealing cover and the drive motor can be removed together, separating the hexagonal column and the hexagonal hole. The rotating rod, stirring blade, and scraper can then be removed for maintenance and cleaning. This avoids the problem of existing devices being unable to perform deep cleaning of the internal equipment, leading to long-term adhesion of raw material residues to the inner wall of the equipment, causing corrosion and affecting its service life.

[0004] While existing technologies use metering tanks in conjunction with automatic metering to transport solid raw materials, they still require re-weighing for the proportioning of liquid raw materials, leading to quality fluctuations during production. Furthermore, when the material has high humidity, particle size, or viscosity, it is prone to accumulate or blockage on the inclined surface during transport, thus affecting normal feeding operations.

[0005] To address the aforementioned issues, there is an urgent need for innovative design based on existing raw material batching equipment for carbon production. Therefore, we propose that raw material batching equipment for carbon production can effectively solve these problems. Summary of the Invention

[0006] The purpose of this invention is to provide a raw material batching device for carbon production, in order to solve the problems mentioned in the background art. Currently, the solid raw materials are transported by metering tanks and automatic metering, but the proportion of liquid raw materials still needs to be weighed again, which leads to quality fluctuations during the production process. Furthermore, when the material has high humidity, particle size, or viscosity, it is easy for the material to accumulate or block on the inclined surface during the transport process, thus affecting the normal feeding operation.

[0007] To achieve the above objectives, the present invention provides the following technical solution: a raw material batching device for carbon production, comprising a batching cylinder, a solid feed hopper and a liquid feed hopper installed on the side end of the batching cylinder, a feed box connected to the solid feed hopper via a pneumatic slide valve, a weighing box inside the feed box, a weighing element installed inside the weighing box, the liquid feed hopper being connected to the inner cavity of the batching cylinder via a pipe, and a flow meter and a valve installed on the pipe, a cylinder cover being provided on the batching cylinder, and a second motor being provided on the cylinder cover, the output end of the second motor being connected to a rotating shaft, a stirring assembly being installed inside the batching cylinder, the stirring assembly including a connecting seat installed inside the batching cylinder, the connecting seat being used for docking the rotating shaft to facilitate the disassembly of the batching cylinder and the cylinder cover, a forward spiral conveying plate and a first rotating shaft being installed under the connecting seat, and a stirring blade being sleeved on the outer side of the first rotating shaft.

[0008] Preferably, a first rotating rod for rotation is connected through the inside of the weighing box, a first motor is installed inside the feeding box, the output end of the first motor is connected to the end of the first rotating rod, a matching conveying cylinder is installed on the outside of the forward spiral conveyor plate, the forward spiral conveyor plate and the conveying cylinder cooperate to convey the raw material, and a reverse spiral conveyor plate is provided on the outside of the conveying cylinder.

[0009] Preferably, an airbag is installed at the bottom of the weighing box, the airbag input end is connected to an external air supply structure through a pipe, the airbag output end is connected to a jet seat through a delivery pipe, and a one-way valve is provided on both the delivery pipe and the pipe connected to the airbag input end. The jet seat is installed on the weighing component side of the weighing box.

[0010] Preferably, an auxiliary component is provided on the side end of the mixing cylinder. The auxiliary component includes a rotating seat installed on the side end of the mixing cylinder. The rotating seats are symmetrically arranged. A rotating plate is connected to the rotating seat through a second rotating rod. A vibrating element is provided on the rotating plate. The vibrating element is located on the side ends of the solid feed hopper and the liquid feed hopper, respectively. A torsion spring is provided on the outer side of the second rotating rod.

[0011] Preferably, a drive assembly is provided on the rotating shaft, and a first rotating shaft is connected to the outside of the rotating shaft through a transmission assembly.

[0012] Preferably, the transmission assembly includes a pulley and a belt structure mounted on the outside of the rotating shaft, the pulley and belt structure connecting the rotating shaft to the first rotating shaft for transmission.

[0013] Preferably, the drive assembly includes a vertical bevel gear structure mounted on a rotating shaft. The rotating shaft is connected to a second rotating shaft via the vertical bevel gear structure. The second rotating shaft extends through to the outside of the dispensing cylinder. An eccentric wheel is mounted on the outside of the second rotating shaft. A movable frame is provided on the outside of the eccentric wheel. An inclined block is mounted on the movable frame. After the inclined block moves, it contacts the rotating plate.

[0014] Preferably, the transmission assembly includes a cam mounted on the outside of the rotating shaft, a movable plate provided on the side end of the cam, a rack mounted on the side end of the movable plate, a rotating gear meshing with the side end of the rack, and a first rotating shaft passing through the interior of the rotating gear.

[0015] Preferably, the drive assembly includes a cam mounted on a rotating shaft, a movable plate is provided on the side end of the cam, a movable rod is connected through the movable plate, the movable rod is located inside the cylinder cover, a return spring is provided on the outside of the movable rod, and the movable rod contacts the rotating plate after it moves.

[0016] Compared with the prior art, the beneficial effects of the present invention are as follows: In this raw material batching equipment for carbon production, the first motor drives the first rotating rod inside the weighing box to rotate, sending the weighed solid raw materials into the batching cylinder. The rotation of the weighing box compresses the air bladder, and the gas inside the air bladder facilitates the removal of raw materials adhering to the surface of the weighing components. Liquid raw materials are injected through the liquid feed hopper and transported to the inner cavity of the batching cylinder through a pipeline. The flow meter on the pipeline monitors the flow rate, and the valve controls the opening and closing according to the set flow rate, realizing the quantitative addition of liquid raw materials and ensuring the accuracy of the solid-liquid raw material ratio. The specific details are as follows:

[0017] (1) The equipment detects the weight of solid raw materials in real time through the weighing component in the weighing box. After reaching the set value, the pneumatic slide valve is automatically closed, completely replacing the manual weighing mode. The flow meter on the liquid raw material conveying pipeline monitors the flow rate in real time, and the valve is automatically controlled to open and close according to the set value, realizing the closed-loop control of quantitative addition of solid and liquid raw materials and ensuring accurate proportioning.

[0018] (2) After the solid raw materials are weighed, the first motor automatically starts and drives the first rotating rod in the weighing box to rotate, accurately feeding the raw materials into the batching cylinder. The actions of each link of the equipment are triggered by the mechanical structure linkage, without the need for additional manual operation instructions, which further improves the automation level of the batching process.

[0019] (3) When the weighing box rotates, the inflated airbag is squeezed and the internal gas is sent to the jet seat through the conveying pipe. The gas is directed to the side of the weighing part to remove the raw materials attached to the surface. The equipment uses the airbag structure at the bottom of the weighing box to achieve self-cleaning. There is no need to set up an additional jet power device, which reduces energy consumption and effectively removes residues, reducing the equipment maintenance needs caused by residues.

[0020] (4) The forward spiral conveyor blades convey the bottom raw materials upward, and the reverse spiral conveyor blades convey the upper raw materials downward, forming strong vertical convection, breaking the stratification of raw materials, and the rotating shaft drives the stirring blades to rotate, improving the quality of batching.

[0021] (5) When the shaft rotates, it drives the cam and eccentric wheel structure to drive the vibrating component to periodically strike the solid and liquid feed hopper, preventing raw materials from accumulating and blocking, ensuring the continuity of the process. The overall structure is simple, reducing manufacturing costs and reducing the difficulty and cost of subsequent maintenance. Attached Figure Description

[0022] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0023] Figure 2 This is a schematic diagram of the internal structure of the dispensing cylinder of the present invention;

[0024] Figure 3 This is a schematic diagram of the disassembled structure of the rotating shaft and connecting seat of the present invention;

[0025] Figure 4 This is a schematic diagram of the internal structure of the feed box of the present invention;

[0026] Figure 5 This is a schematic diagram of the cross-sectional structure of the weighing box of the present invention;

[0027] Figure 6 This is a schematic diagram of the internal structure of the dispensing cylinder cover of the present invention;

[0028] Figure 7 For the present invention Figure 6 Enlarged structural diagram at point A in the middle;

[0029] Figure 8 This is a schematic diagram of the connection structure between the solid feed hopper and the pneumatic slide valve of the present invention;

[0030] Figure 9 This is a schematic diagram of the connection structure between the feed cylinder cover and the second motor of the present invention;

[0031] Figure 10 This is a schematic diagram of the connection structure between the rotating shaft and the cam in this invention;

[0032] Figure 11 This is a schematic diagram of the connection structure between the movable plate and the movable rod of the present invention.

[0033] In the diagram: 1. Batching cylinder; 2. Solid feed hopper; 3. Pneumatic slide gate valve; 4. Feed box; 5. Weighing box; 6. First motor; 7. Weighing component; 8. Liquid feed hopper; 9. Flow meter; 10. Valve; 11. Second motor; 12. Rotating shaft; 13. Connecting seat; 14. Forward spiral conveyor blade; 15. Conveying cylinder; 16. Reverse spiral conveyor blade; 17. Pulley and belt structure; 18. First rotating shaft; 19. Stirring blade ; 20. Airbag; 21. Delivery pipe; 22. Jet seat; 23. Vertical bevel gear structure; 24. Second rotating shaft; 25. Eccentric wheel; 26. Moving frame; 27. Inclined block; 28. Rotating seat; 29. ​​Rotating plate; 30. Vibrating component; 31. Torsion spring; 32. Cam; 33. Moving plate; 34. Moving rod; 35. Rebound spring; 36. Rack; 37. Rotating gear; 38. First rotating rod; 39. Second rotating rod. Detailed Implementation

[0034] 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. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0035] Example 1: In this example, flow meter 9 on the pipeline monitors the flow rate, and valve 10 controls the opening and closing according to the set flow rate, realizing the quantitative addition of liquid raw materials and ensuring the accuracy of the solid-liquid raw material ratio. Figures 1-7The technical solution shown includes a mixing cylinder 1, with a solid feed hopper 2 and a liquid feed hopper 8 installed on its side. A feed box 4 is connected to the solid feed hopper 2 via a pneumatic slide valve 3. A weighing box 5 is installed inside the feed box 4, and a weighing element 7 is installed inside the weighing box 4. The liquid feed hopper 8 is connected to the inner cavity of the mixing cylinder 1 via a pipe, and a flow meter 9 and a valve 10 are installed on the pipe. A cylinder cover is provided on the mixing cylinder 1, and a second motor 11 is installed on the cover. The output end of the second motor 11 is connected to a rotating shaft 12. A stirring assembly is installed inside the mixing cylinder 1. The stirring assembly includes a connecting seat 13 installed inside the mixing cylinder 1. The connecting seat 13 is used for docking with the rotating shaft 12, facilitating the separation of the mixing cylinder 1 and the cylinder cover. A positive screw is installed under the connecting seat 13. A spiral conveyor plate 14 is connected to a first rotating shaft 18. A stirring blade 19 is sleeved on the outside of the first rotating shaft 18. A first rotating rod 38 for rotation is connected through the inside of the weighing box 5. A first motor 6 is installed inside the feed box 4. The output end of the first motor 6 is connected to the end of the first rotating rod 38. A matching conveying cylinder 15 is installed on the outside of the forward spiral conveyor plate 14. The forward spiral conveyor plate 14 and the conveying cylinder 15 cooperate to convey the raw materials. A reverse spiral conveyor plate 16 is installed on the outside of the conveying cylinder 15. An air bladder 20 is installed at the bottom of the weighing box 5. The input end of the air bladder 20 is connected to an external air supply structure through a pipe. The output end of the air bladder 20 is connected to a jet seat 22 through a conveying pipe 21. One-way valves are installed on both the conveying pipe 21 and the pipe connected to the input end of the air bladder 20. The base 22 is installed on the side of the weighing element 7 of the weighing box 5. An auxiliary component is provided on the side of the dispensing cylinder 1. The auxiliary component includes a rotating base 28 installed on the side of the dispensing cylinder 1. The rotating bases 28 are symmetrically arranged. A rotating plate 29 is connected to the rotating base 28 through a second rotating rod 39. A vibrating element 30 is provided on the rotating plate 29. The vibrating elements 30 are located on the sides of the solid feed hopper 2 and the liquid feed hopper 8, respectively. A torsion spring 31 is provided on the outside of the second rotating rod 39. A drive component is provided on the rotating shaft 12. A first rotating shaft 18 is connected to the outside of the rotating shaft 12 through a transmission component. Solid raw materials are fed in through the solid feed hopper 2. After the pneumatic slide valve 3 is opened, the raw materials fall into the weighing box 5 in the feed box 4. The weighing element 7 in the weighing box 5 detects the weight of the raw materials in real time. After the set value is reached, the pneumatic slide valve 3 is activated. The valve 3 is closed, reducing errors and inefficiencies caused by manual weighing. The first motor 6 starts, driving the weighing box 5 to rotate via the first rotating rod 38. After the weighing box 5 rotates, due to gravity, the raw materials inside the weighing box 5 fall into the feeding box 4 and are transported through the channel connecting the feeding box 4 and the batching cylinder 1. This allows the weighed solid raw materials to be automatically transferred into the batching cylinder 1, improving the automation level of the overall batching process. At this time, the air bladder 20 at the bottom of the weighing box 5 is inflated through an external air supply structure. The rotation of the weighing box 5 compresses the air bladder 20 at its bottom, causing the gas inside the air bladder 20 to be transported to the jet seat 22 through the conveying pipe 21. The jet seat 22 sprays air towards the side of the weighing component 7. The conveying pipe 21 is made of flexible hose.To facilitate the rotation of the weighing box 5, the conveying pipe 21 transports the gas inside the airbag 20, removing the raw material adhering to the surface of the weighing component 7. This eliminates the need for an additional jet propulsion device, reducing equipment energy consumption and effectively preventing residual raw material from affecting subsequent weighing accuracy. A one-way valve on the pipe prevents gas backflow, further ensuring the stability of the jet pressure and guaranteeing weighing accuracy. Liquid raw materials are injected through the liquid feed hopper 8 and transported through the pipe to the inner cavity of the mixing cylinder 1. The flow meter 9 on the pipe monitors the flow rate, and the valve 10 controls the opening and closing according to the set flow rate, achieving quantitative addition of liquid raw materials and ensuring the accuracy of the solid-liquid ratio. After the raw materials enter the cylinder, the second motor 11 starts, driving the rotating shaft 12 to rotate. 2. The connecting seat 13 connects to the mixing assembly inside the mixing cylinder 1. The cylinder cover is detachable from the mixing cylinder 1, facilitating maintenance, reducing the difficulty and cost of subsequent equipment maintenance, and extending the equipment's service life. The forward spiral conveyor 14 below the connecting seat 13 rotates inside the conveying cylinder 15, conveying the bottom raw material upwards. Simultaneously, the reverse spiral conveyor 16 on the outside of the conveying cylinder 15 conveys the upper raw material downwards, forming vertical convection and significantly improving mixing efficiency. The rotating shaft 12 drives the first rotating shaft 18 to rotate through the transmission assembly. The stirring blades 19 on the outside of the first rotating shaft 18 rotate synchronously, fully stirring the raw material during the convection process to ensure uniform mixing and avoid problems such as insufficient mixing of local raw materials.

[0036] Example 2: In this example, the rotating shaft 12 drives the second rotating shaft 24 to rotate via the vertical bevel gear structure 23. The vertical bevel gear structure 23 enables vertical power transmission, resulting in a compact structure that saves internal space. Specifically, as shown... Figures 1-7As shown, the following is disclosed: the transmission assembly includes a pulley and belt structure 17 mounted on the outside of the rotating shaft 12, which transmit power between the rotating shaft 12 and the first rotating shaft 18. The drive assembly includes a vertical bevel gear structure 23 mounted on the rotating shaft 12. The rotating shaft 12 is connected to a second rotating shaft 24 via the vertical bevel gear structure 23. The second rotating shaft 24 extends through to the outside of the mixing cylinder 1. An eccentric wheel 25 is mounted on the outside of the second rotating shaft 24. A movable frame 26 is provided on the outside of the eccentric wheel 25. An inclined block 27 is mounted on the movable frame 26. After the inclined block 27 moves, it contacts the rotating plate 29. The rotating shaft 12 drives the first rotating shaft 18 to rotate via the pulley and belt structure 17, ensuring the stability of the rotation of the first rotating shaft 18. This allows the stirring blades 19 on the outside of the first rotating shaft 18 to rotate synchronously and smoothly, improving the stirring effect. Furthermore, the rotating shaft 12 drives the first rotating shaft 18 to rotate via the vertical bevel gear structure 23. Structure 23 drives the second rotating shaft 24 to rotate. The vertical bevel gear structure 23 can realize the vertical transmission of power. The structure is compact and saves internal space of the equipment. The eccentric wheel 25 on the outside of the second rotating shaft 24 drives the moving frame 26 to move back and forth. The inclined block 27 on the moving frame 26 periodically squeezes the rotating plate 29. The rotating plate 29 rotates through the second rotating rod 39 on the rotating seat 28, so that the vibrating element 30 strikes the solid feed hopper 2 and the liquid feed hopper 8, improving the overall feeding efficiency. The drive component set on the rotating shaft 12 facilitates the movement of the rotating plate 29. The rotating plate 29 is connected to the rotating seat 28 on the side of the batching cylinder 1 through the second rotating rod 39. The torsion spring 31 provides the restoring force. After the inclined block 27 squeezes, the rotating plate 29 swings, driving the vibrating element 30 on it to strike the solid feed hopper 2 and the liquid feed hopper 8 respectively, preventing the raw materials from blocking the feed inlet and ensuring the continuity of the batching process.

[0037] Example 3: In this example, when the cam 32 on the rotating shaft 12 pushes the moving plate 33 to move along the moving rod 34, it facilitates the vibration element 30 on the rotating plate 29 to strike the solid feed hopper 2 and the liquid feed hopper 8 respectively, preventing raw materials from accumulating and clogging at the feed inlet. Specifically, as shown below... Figures 8-11As shown, the following is disclosed: The transmission assembly includes a cam 32 mounted on the outer side of the rotating shaft 12. A movable plate 33 is provided on the side end of the cam 32, and a rack 36 is mounted on the side end of the movable plate 33. A rotating gear 37 is meshed with the side end of the rack 36. A first rotating shaft 18 is internally connected to the rotating gear 37. The drive assembly includes a cam 32 mounted on the rotating shaft 12. A movable plate 33 is provided on the side end of the cam 32, and a movable rod 34 is internally connected to the movable plate 33. The movable rod 34 is located inside the cylinder cover, and a return spring 35 is provided on the outer side of the movable rod 34. After the movable rod 34 moves, it contacts the rotating plate 29. The second motor 11 starts and drives the rotating shaft 12 to rotate. When the rotating shaft 12 rotates, it drives the outer cam 32 to rotate. The cam 32 stably pushes the movable plate 33 to reciprocate along the movable rod 34. The rack 36 on the side end of the movable plate 33... The rotating gear 37, driven by the meshing gear 37 and the rack 36, has high transmission precision, ensuring that the rotating gear 37 drives the internally penetrating first rotating shaft 18 to rotate precisely. This, in turn, causes the stirring blades 19 on the outside of the first rotating shaft 18 to rotate synchronously and precisely, uniformly stirring the raw materials and improving the quality of the batching. When the cam 32 on the rotating shaft 12 pushes the moving plate 33 and the moving rod 34 to move, the end of the moving rod 34 contacts and presses against the rotating plate 29, facilitating the vibration element 30 on the rotating plate 29 to strike the solid feed hopper 2 and the liquid feed hopper 8 respectively, preventing the raw materials from accumulating and clogging at the feed inlet. The overall structure is simple, reducing the manufacturing cost of the equipment. Furthermore, the rebound spring 35 on the outside of the moving rod 34 assists the moving plate 33 in resetting, ensuring the smoothness and continuity of the movement of the moving plate 33, reducing mechanical impact, and improving the overall service life.

[0038] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A raw material batching device for carbon production, comprising a batching cylinder (1), characterized in that, The mixing cylinder (1) is equipped with a solid feed hopper (2) and a liquid feed hopper (8) on its side. The solid feed hopper (2) is connected to a feed box (4) via a pneumatic slide valve (3). A weighing box (5) is installed inside the feed box (4), and a weighing device (7) is installed inside the weighing box (5). The liquid feed hopper (8) is connected to the inner cavity of the mixing cylinder (1) via a pipe, and a flow meter (9) and a valve (10) are installed on the pipe. The mixing cylinder (1) is equipped with a cylinder cover, and a first... Two motors (11), the output end of the second motor (11) is connected to a rotating shaft (12), a stirring assembly is installed inside the mixing cylinder (1), the stirring assembly includes a connecting seat (13) installed inside the mixing cylinder (1), the connecting seat (13) is used for docking the rotating shaft (12) to facilitate the separation of the mixing cylinder (1) and the cylinder cover, a positive spiral conveying plate (14) and a first rotating shaft (18) are installed under the connecting seat (13), and a stirring blade (19) is sleeved on the outside of the first rotating shaft (18). The weighing box (5) has a first rotating rod (38) for rotation connected through it, and the feeding box (4) has a first motor (6) inside it. The output end of the first motor (6) is connected to the end of the first rotating rod (38). An airbag (20) is installed at the bottom of the weighing box (5). The input end of the airbag (20) is connected to the external air supply structure through a pipe. The output end of the airbag (20) is connected to a jet seat (22) through a conveying pipe (21). A one-way valve is provided on both the conveying pipe (21) and the pipe connected to the input end of the airbag (20). The jet seat (22) is installed on the side of the weighing component (7) of the weighing box (5). An auxiliary component is provided on the side of the mixing cylinder (1). The auxiliary component includes a rotating seat (28) installed on the side of the mixing cylinder (1). The rotating seat (28) is symmetrically arranged. A rotating plate (29) is connected to the rotating seat (28) through a second rotating rod (39). A vibrating element (30) is provided on the rotating plate (29). The vibrating element (30) is located on the side of the solid feed hopper (2) and the liquid feed hopper (8), respectively. A torsion spring (31) is provided on the outside of the second rotating rod (39). A drive assembly is provided on the rotating shaft (12).

2. The raw material batching equipment for carbon production according to claim 1, characterized in that: A matching conveying cylinder (15) is installed on the outside of the forward spiral conveying plate (14). The forward spiral conveying plate (14) and the conveying cylinder (15) cooperate to convey the raw materials. A reverse spiral conveying plate (16) is provided on the outside of the conveying cylinder (15).

3. The raw material batching equipment for carbon production according to claim 2, characterized in that: The outer side of the rotating shaft (12) is connected to the first rotating shaft (18) via a transmission assembly.

4. The raw material batching equipment for carbon production according to claim 3, characterized in that: The transmission assembly includes a pulley and belt structure (17) mounted on the outside of the rotating shaft (12), which transmits power between the rotating shaft (12) and the first rotating shaft (18).

5. The raw material batching equipment for carbon production according to claim 4, characterized in that: The drive assembly includes a vertical bevel gear structure (23) mounted on a rotating shaft (12). The rotating shaft (12) is connected to a second rotating shaft (24) via the vertical bevel gear structure (23). The second rotating shaft (24) extends through to the outside of the feeding cylinder (1). An eccentric wheel (25) is mounted on the outside of the second rotating shaft (24). A movable frame (26) is provided on the outside of the eccentric wheel (25). An inclined block (27) is mounted on the movable frame (26). After the inclined block (27) moves, it contacts the rotating plate (29).

6. The raw material batching equipment for carbon production according to claim 5, characterized in that: The transmission assembly includes a cam (32) mounted on the outside of the rotating shaft (12), a movable plate (33) is provided on the side of the cam (32), a rack (36) is mounted on the side of the movable plate (33), a rotating gear (37) is meshed on the side of the rack (36), and a first rotating shaft (18) is internally connected to the rotating gear (37).

7. The raw material batching equipment for carbon production according to claim 6, characterized in that: The drive assembly includes a cam (32) mounted on a rotating shaft (12). A movable plate (33) is provided on the side of the cam (32). A movable rod (34) is connected through the inside of the movable plate (33). The movable rod (34) is located inside the cylinder cover. A rebound spring (35) is provided on the outside of the movable rod (34). After the movable rod (34) moves, it contacts the rotating plate (29).

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