Mixing equipment and method for graphite electrical carbon production and processing

Abstract

The invention provides mixing equipment and method for graphite electrical carbon production and processing.The mixing equipment comprises a mixing barrel, a feeding hopper is arranged in the middle of the top end of the mixing barrel, a rotating rod is vertically arranged on the inner side of the feeding hopper in a penetrating mode, a transmission rod is arranged at the top end of the rotating rod, and a motor assembly is arranged at the top end of the transmission rod; an auxiliary structure is arranged on the back face of the mixing barrel and comprises a gas guide pipe, a gas frame, a heating box, a fan assembly, a gas port and a screw channel, the heating box is arranged on the back face of the mixing barrel, the fan assembly is arranged in the heating box, the gas guide pipe is arranged at one end of the fan assembly, and the gas port is arranged at the other end of the fan assembly. A gas frame is arranged on the outer side of one end of the gas guide pipe, a screw channel is formed in the middle of the interior of the mixing barrel, and a gas port is formed in the outer side of the screw channel; according to the invention, water on the surface of a material contained in the mixing barrel can be taken away by hot air, so that the phenomenon of deposition of the mixed material due to excessive water contained in the structure of the mixed material is prevented.

Description

Technical Field

[0001] The invention belongs to the field of graphite electric carbon production, in particular to a mixing device and method for graphite electric carbon production and processing. Background Art

[0002] The production and processing of graphite electric carbon involves multiple steps and technologies. The following are the main production and processing processes: First, raw material preparation, including natural graphite and artificial graphite. Natural graphite needs to be crushed and screened to achieve the desired particle size distribution; artificial graphite is prepared by high-temperature treatment of petroleum coke or needle coke, and then crushed and screened. The second is molding. The graphite powder can be extruded into a blank of the desired shape through an extruder, or placed in a mold and pressed under high pressure. Next is sintering. The formed blank is sintered in a high-temperature furnace, usually at a high temperature of more than 2000°C, so that a strong bond is formed between the graphite particles. The impregnation step is sometimes necessary. The sintered graphite piece is impregnated in resin or asphalt, and then sintered again to increase its density and mechanical strength. Machining is then carried out. The sintered graphite piece is turned, milled, drilled, etc. to achieve the desired size and shape. Then there is surface treatment, which may require a protective layer to improve the corrosion resistance and conductivity of the graphite piece. Finally, the finished graphite electric carbon parts are inspected for quality to ensure that they meet the specifications. Qualified products are packaged and ready for shipment. Key factors in production and processing include temperature control. Temperature control during sintering and impregnation is crucial and directly affects product performance; impurity control. The cleanliness of raw materials and processing equipment needs to be strictly controlled to avoid the introduction of impurities; particle size distribution. The particle size distribution of graphite powder affects the uniformity and performance of the finished product and needs to be reasonably controlled and screened. These steps and technologies require precise control to ensure that the final product has good conductivity, mechanical strength and stability to meet application requirements.

[0003] Mixing equipment is a type of mechanical equipment used to mix multiple materials evenly. It is widely used in chemical, pharmaceutical, food, building materials, metallurgy and other industries. The main function of mixing equipment is to fully mix materials of different components in a certain proportion to achieve a uniform distribution effect. Common mixing equipment includes the following types: mixers, including horizontal mixers and vertical mixers. Horizontal mixers mix materials in horizontal containers through a rotating agitator, which is suitable for powders, particles and paste materials; vertical mixers mix materials in vertical containers through stirring blades or spirals, which are often used for mixing liquids or paste materials. Drum mixers, materials are mixed in a rotating drum by gravity and friction, which is suitable for mixing particles and powder materials. V-type mixers, materials are mixed in a V-shaped container by gravity and flipping, which is suitable for mixing various dry particles and powders. Double-helix mixers, materials are mixed in a double-helix mixer by the rotation and convection of spiral blades, which is suitable for uniform mixing of dry powder and granular materials. High-speed mixers use high-speed rotating blades or hammers to vigorously stir and disperse materials. They are suitable for materials that need to be mixed quickly and evenly. Planetary mixers mix materials in planetary mixers through the revolution and rotation of stirring blades. They are suitable for mixing high-viscosity and paste-like materials. The choice of mixing equipment depends on the physical properties of the materials (such as particle size, density, viscosity, etc.), the uniformity requirements of the mixing, and the specific needs of the production process. By rationally selecting and using mixing equipment, production efficiency can be improved and product quality can be ensured.

[0004] However, in many devices, the material cannot be processed in the next step after being mixed. For example, many materials are easily combined with water vapor generated from the outside when being mixed, and such materials will produce sedimentation after being stirred. Summary of the invention

[0005] In order to solve the above technical problems, the present invention provides a mixing device and method for graphite electric carbon production and processing, which first creates and implements the "technology of continuously drying the mixed materials" to solve the problems raised in the background technology.

[0006] A mixing device and method for producing and processing graphite electric carbon, comprising the following steps:

[0007] S1: The staff introduces the materials to be mixed into the mixing barrel through the feed hopper, and then connects the external power supply to the equipment. Then the staff takes out the motor assembly, and at the same time, the motor assembly drives the transmission rod, the impeller shaft, and the angle adjustment structure to be taken out together;

[0008] S2: At this time, the staff presses the horizontal piece at the front end of the stirring blade, and the steering shaft helps the horizontal piece to adjust the angle, and then moves the support assembly at the top of the slide, and the support assembly drives the bowl frame to move on the inner side of the horizontal piece;

[0009] S3: The staff puts the adjusted angle adjustment structure, the rotating rod, the motor assembly, the transmission rod, and the blade shaft back into the mixing barrel, and then starts the motor assembly after connecting it to the external power supply. The motor assembly drives the rotating rod, the transmission rod, and the blade shaft to rotate, and the blade shaft drives the stirring blade to rotate at high speed. The stirring blade drives the horizontal blade and the bowl frame to rotate, and the stirring blade drives the horizontal blade to move in a circular manner to stir the material inside the mixing barrel. At the same time, the bowl frame rotates with the horizontal blade. Since the shape of the bowl frame is a hemispherical concave shape, when the bowl frame rotates at high speed, the surface of the bowl frame hits the material structure that is stuck together, and the groove on the inner side of the bowl frame can continuously dig out the surface of the sticky material during rotation;

[0010] S4: The heating box cooperates with the fan assembly to generate wind carrying heat, and the wind enters the interior of the mixing barrel through the air guide pipe and the air frame, and the air frame gathers the conducted hot air at the top of the screw channel;

[0011] S5: The screw channel confines the material storage position inside the mixing barrel within a certain range. The surface of the screw channel is heated by the hot air inside the mixing barrel, and the surface temperature of the material contained in the screw channel will increase;

[0012] S6: After the air frame guides the wind force into the mixing barrel, the inside of the mixing barrel guides part of the gathered wind force into the air port. Since the shape of the screw channel is a spiral line, and a cavity is provided inside the screw channel;

[0013] S7: The cavity inside the screw channel and the air port on the surface of the screw channel cooperate with the air exchange hole to discharge the excess heat inside the mixing barrel, and finally the mixed material is discharged from the discharge hopper.

[0014] A mixing device and method for graphite electric carbon production and processing, comprising a mixing barrel, a feed hopper is arranged in the middle of the top of the mixing barrel, a rotating rod is vertically penetrated through the inner side of the feed hopper, a transmission rod is arranged at the top of the rotating rod, a motor assembly is arranged at the top of the transmission rod, and an auxiliary structure is arranged on the back of the mixing barrel;

[0015] The auxiliary structure includes an air guide tube, an air frame, a heating box, a fan assembly, an air port and a screw channel. The back of the mixing barrel is provided with a heating box, the interior of the heating box is provided with a fan assembly, one end of the fan assembly is provided with an air guide tube, the outside of one end of the air guide tube is provided with an air frame, the middle of the mixing barrel is provided with a screw channel, and the outside of the screw channel is provided with an air port;

[0016] A ventilation hole is arranged at the lower end of the outer surface of the mixing barrel, a discharge hopper is arranged at the bottom end of the mixing barrel, a blade shaft is arranged at the outer side of the rotating rod, and an angle adjustment structure is arranged at one side of the blade shaft;

[0017] The angle adjustment structure includes a bowl frame, a supporting assembly, a cross piece, a steering shaft, a stirring blade and a slide plate, a stirring blade is arranged on one side of the blade shaft, a steering shaft is arranged on both sides of the front end of the stirring blade, a cross piece is arranged at the front end of the steering shaft, a bowl frame is arranged in the middle of the inner side of the cross piece, a supporting assembly is arranged at the rear end of the bowl frame, and a slide plate is arranged at the bottom end of the supporting assembly.

[0018] Preferably, the air frame and the air guide tube are connected by welding, and a sponge material is adhered to the inner side of the air guide tube to prevent leakage of hot air generated by wind, and the sponge material can retain more heat.

[0019] Preferably, the center point of the inner side of the screw channel is in the same straight line as the center point of the feed hopper, and the cross-sectional area of ​​the screw channel is slightly smaller than the cross-sectional area of ​​the mixing barrel, so that the unmixed materials can be stirred inside the screw channel.

[0020] Preferably, a cavity is provided inside the screw channel, and the shape of the screw channel is a spiral shape, so that hot air can surround the inside of the mixing barrel.

[0021] Preferably, the bottom end of the screw channel cavity and the ventilation hole are in the same straight line to facilitate heat renewal.

[0022] Preferably, a rotating structure is formed between the steering shaft and the stirring blades, so that the steering shaft can drive the transverse blades to flip.

[0023] Preferably, the support assembly is fixedly connected to the bowl frame, and the other end of the support assembly is semi-fittedly connected to the slide plate, so as to facilitate assembly of the slide plate, the support assembly and the bowl frame.

[0024] Preferably, a sliding structure is formed between the support assembly and the slide plate, so that the support assembly can drive the bowl frame to move.

[0025] Preferably, the bowl frame has a hemispherical concave shape and is made of a porcelain material, so that the bowl frame has a larger mass and can break sticky material structures when the bowl frame rotates at a high speed.

[0026] Compared with the prior art, the present invention has the following beneficial effects:

[0027] 1. When the present invention is in use, the heating box cooperates with the fan assembly to introduce the wind carrying heat into the interior of the mixing barrel through the air duct, and the screw channel and the air port absorb the wind and evenly distribute it inside the mixing barrel. At this time, the moisture on the surface of the material contained in the mixing barrel will be taken away by the hot air, thus preventing the material from being deposited after mixing because of the excessive moisture contained in its own structure.

[0028] 2. When the present invention is in use, the stirring blades rotate along with the rotating rod, the transmission rod and the blade shaft, the cross pieces cooperate with the stirring blades to rotate, the stirring blades drive the bowl frame to rotate, the stirring blades and the cross pieces stir the material with a larger particle radius, and since the shape of the bowl frame is a concave hemispherical shape, the bowl frame can hit the material particles that are stuck together when rotating at high speed, and at the same time, the support assembly at the top of the slide plate can move laterally, and the support assembly can drive the bowl frame to move while moving, and the support assembly makes the bowl frame better fit the groove on the inner side of the cross piece, and the steering shaft can help the cross piece adjust the angle, so that the multi-angle structure formed by the cross piece, the stirring blade and the bowl frame can crush the material with a compact structure. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 It is a schematic diagram of the first appearance structure of a specific embodiment of the present invention;

[0030] Figure 2 It is a schematic diagram of a second appearance structure of a specific embodiment of the present invention;

[0031] Figure 3 is a third schematic diagram of the appearance structure of a specific embodiment of the present invention;

[0032] Figure 4 is a fourth schematic diagram of the appearance structure of a specific embodiment of the present invention;

[0033] Figure 5 is a schematic cross-sectional structural diagram of a first mixing barrel according to a specific embodiment of the present invention;

[0034] Figure 6 is a schematic cross-sectional structural diagram of a second mixing barrel according to a specific embodiment of the present invention;

[0035] Figure 7 It is a structural diagram of a transmission rod according to a specific embodiment of the present invention;

[0036] Figure 8 is a first auxiliary structural schematic diagram of a specific implementation mode of the present invention;

[0037] Fig. 9 It is a second auxiliary structural schematic diagram of a specific implementation mode of the present invention.

[0038] In the figure: 1. mixing barrel; 2. rotating rod; 3. discharging hopper; 4. ventilation hole; 5. feeding hopper; 6. auxiliary structure; 601. air guide tube; 602. air frame; 603. heating box; 604. fan assembly; 605. air port; 606. screw channel; 7. motor assembly; 8. transmission rod; 9. blade shaft; 10. angle adjustment structure; 1001. bowl frame; 1002. supporting assembly; 1003. cross piece; 1004. steering shaft; 1005. stirring blade; 1006. slide plate. DETAILED DESCRIPTION

[0039] The following embodiments of the present invention are described in further detail in conjunction with the accompanying drawings and examples. The following examples are used to illustrate the present invention, but are not intended to limit the scope of the present invention.

[0040] Embodiment 1: Figure 1-9 As shown, the present invention provides a mixing device and method for graphite electric carbon production and processing, comprising a mixing barrel 1, a feed hopper 5 is arranged in the middle of the top of the mixing barrel 1, a rotating rod 2 is vertically penetrated through the inner side of the feed hopper 5, a transmission rod 8 is arranged at the top of the rotating rod 2, a motor assembly 7 is arranged at the top of the transmission rod 8, and an auxiliary structure 6 is arranged on the back of the mixing barrel 1;

[0041] The auxiliary structure 6 includes an air guide tube 601, an air frame 602, a heating box 603, a fan assembly 604, an air port 605 and a screw channel 606. The heating box 603 is provided on the back of the mixing barrel 1, and the fan assembly 604 is provided inside the heating box 603. The air guide tube 601 is provided at one end of the fan assembly 604, and the air frame 602 is provided outside one end of the air guide tube 601. The screw channel 606 is provided in the middle of the mixing barrel 1, and the air port 605 is provided outside the screw channel 606.

[0042] A ventilation hole 4 is provided at the lower end of the outer surface of the mixing barrel 1, a discharge hopper 3 is provided at the bottom end of the mixing barrel 1, a blade shaft 9 is provided at the outer side of the rotating rod 2, and an angle adjustment structure 10 is provided on one side of the blade shaft 9;

[0043] The angle adjustment structure 10 includes a bowl frame 1001, a support assembly 1002, a cross piece 1003, a steering shaft 1004, a stirring blade 1005 and a slide plate 1006. A stirring blade 1005 is arranged on one side of the blade shaft 9, a steering shaft 1004 is arranged on both sides of the front end of the stirring blade 1005, a cross piece 1003 is arranged at the front end of the steering shaft 1004, a bowl frame 1001 is arranged in the middle of the inner side of the cross piece 1003, a support assembly 1002 is arranged at the rear end of the bowl frame 1001, and a slide plate 1006 is arranged at the bottom end of the support assembly 1002.

[0044] Embodiment 2: When using the mixing equipment and method for graphite electric carbon production and processing, the auxiliary structure 6 includes an air guide tube 601, an air frame 602, a heating box 603, a fan assembly 604, an air port 605 and a screw channel 606. The back of the mixing barrel 1 is provided with a heating box 603, and the interior of the heating box 603 is provided with a fan assembly 604. One end of the fan assembly 604 is provided with an air guide tube 601, and the outside of one end of the air guide tube 601 is provided with an air frame 602. The middle of the mixing barrel 1 is provided with a screw channel 606, and the outside of the screw channel 606 is provided with an air port 605. First, the heating box 603 cooperates with the fan assembly 604 to generate wind carrying heat, and at the same time, the wind passes through the air guide tube 601. The air frame 602 enters the interior of the mixing barrel 1, and the air frame 602 gathers the conducted hot air at the top of the screw channel 606. The screw channel 606 encloses the position where the materials in the mixing barrel 1 are stored within a certain range. The surface of the screw channel 606 is heated by the hot air inside the mixing barrel 1, and the surface temperature of the materials contained in the screw channel 606 will increase. After the air frame 602 guides the wind force into the interior of the mixing barrel 1, the interior of the mixing barrel 1 guides part of the gathered wind force into the air port 605. Since the shape of the screw channel 606 is a spiral line shape and a cavity is provided inside the screw channel 606, the cavity inside the screw channel 606 and the air port 605 on the surface of the screw channel 606 cooperate with the air exchange hole 4 to guide the excessive heat inside the mixing barrel 1.

[0045] Among them, the following effects were achieved and the following technologies were pioneered:

[0046] Effect: Uniform heating: The hot air generated by the heating box 603 and the fan assembly 604 enters the mixing barrel 1 through the air guide pipe 601 and the air frame 602, thereby achieving uniform heating of the material.

[0047] Temperature control: The design of screw channel 606 limits the material storage location to a certain range. The surface of screw channel 606 is heated by the hot air, thereby increasing the surface temperature of the material, which is helpful for the mixing and processing of the material.

[0048] Heat management: The air frame 602 guides part of the wind into the air port 605. Combined with the spiral line design and internal cavity of the screw channel 606, the excessive heat inside the mixing barrel 1 is discharged through the air port 605 and the air exchange hole 4, which effectively prevents the internal temperature of the mixing barrel 1 from being too high and protects the safety of materials and equipment.

[0049] Improved mixing efficiency: The hot air gathering and introduction design, as well as the existence of the screw channel 606, help to improve the mixing efficiency of the materials inside the mixing barrel 1, and ensure uniform mixing of the materials.

[0050] First-of-its-kind technology: hot air gathering technology: through the design of the air frame 602, the hot air is gathered at the top of the screw channel 606. This hot air gathering technology helps to concentrate heat and improve heating efficiency.

[0051] Screw channel 606 heat conduction technology: The shape and cavity design of screw channel 606 enable hot air to be effectively transferred to the material, and heat management is performed through air port 605 and air exchange hole 4. This technology is the first application of heat conduction and heat control using screw channel 606 in mixing equipment.

[0052] Multi-stage heat extraction system: A multi-stage heat extraction system is formed by the cooperation of the air frame 602, the air port 605 and the air exchange hole 4. This system design helps to accurately control the heat distribution inside the mixing barrel 1 and ensure that the materials are mixed at a suitable temperature.

[0053] Embodiment 3: When using the mixing equipment and method for graphite electric carbon production and processing, the angle adjustment structure 10 includes a bowl frame 1001, a support assembly 1002, a cross piece 1003, a steering shaft 1004, a stirring blade 1005 and a slide plate 1006. A stirring blade 1005 is arranged on one side of the blade shaft 9, and a steering shaft 1004 is arranged on both sides of the front end of the stirring blade 1005. A cross piece 1003 is arranged at the front end of the steering shaft 1004, and a bowl frame 1001 is arranged in the middle of the inner side of the cross piece 1003. The rear end of the bowl frame 1001 is provided with a support assembly 1002, and the bottom end of the support assembly 1002 is provided with a slide plate 1006. First, the staff adjusts the angle adjustment structure 10 and the rotating rod 2, the motor assembly 7, and the transmission rod. 8. The blade shaft 9 is put back into the mixing barrel 1, and then the motor assembly 7 is connected to the external power supply and started. The motor assembly 7 drives the rotating rod 2, the transmission rod 8, and the blade shaft 9 to rotate. The blade shaft 9 drives the stirring blade 1005 to rotate at a high speed. The stirring blade 1005 drives the cross piece 1003 and the bowl frame 1001 to rotate. The stirring blade 1005 drives the cross piece 1003 to move in a circular manner to stir the material inside the mixing barrel 1. At the same time, the bowl frame 1001 rotates with the cross piece 1003. Since the shape of the bowl frame 1001 is a hemispherical concave shape, when the bowl frame 1001 rotates at a high speed, the surface of the bowl frame 1001 hits the material structure of a sticky piece, and the groove on the inner side of the bowl frame 1001 can continuously dig out the surface of the sticky mass of material during rotation.

[0054] Among them, the following effects were achieved and the following technologies were pioneered:

[0055] Effect: Improved mixing efficiency: The angle adjustment structure 10 efficiently stirs and mixes materials through the cooperation of the stirring blade 1005, the horizontal piece 1003 and the bowl frame 1001. The stirring blade 1005 drives the horizontal piece 1003 and the bowl frame 1001 to stir in an annular manner, so that the materials are more fully mixed inside the mixing barrel 1, thereby improving the mixing efficiency.

[0056] Improved mixing quality: The hemispherical concave design of the bowl frame 1001 can effectively impact and disperse the material structure that sticks together when rotating at high speed, and its grooves can continuously dig the surface of the sticky material, thereby improving the mixing quality and ensuring uniform distribution of the material.

[0057] Prevent material agglomeration: Due to the impact and digging effect of the bowl frame 1001 during rotation, the material can be effectively prevented from agglomerating during the mixing process, thereby maintaining the fluidity and mixing uniformity of the material.

[0058] Stability and controllability: The design of the angle adjustment structure 10 ensures that during the mixing process, the movement of the stirring blade 1005, the cross piece 1003 and the bowl frame 1001 is controllable, and their angles and movement trajectories can be adjusted as needed, thereby improving the stability and controllability of the mixing process.

[0059] Pioneering technology: annular active stirring technology: the stirring blades 1005 in the angle adjustment structure 10 drive the cross piece 1003 and the bowl frame 1001 to perform annular active stirring. This technology enables the materials to be mixed more evenly and efficiently inside the mixing barrel 1, and pioneered the mixing method of annular active stirring.

[0060] Bowl frame 1001 impact dispersion technology: The hemispherical concave design of the bowl frame 1001 impacts and disperses sticky materials during high-speed rotation. By continuously digging and dispersing the surface of sticky materials, this is the first material dispersion method based on the shape and movement of the bowl frame 1001.

[0061] Multi-axis linkage stirring technology: Through the multi-axis linkage of the impeller shaft 9, the steering shaft 1004, the cross piece 1003 and the bowl frame 1001, a complex movement mode in which multiple components work together in a mixing device is realized. This technology can effectively improve the efficiency and uniformity of mixing.

[0062] The combination of these innovative technologies enables the mixing equipment to perform excellently in processing complex and sticky materials, greatly improving production efficiency and product quality.

[0063] The mixing equipment and method for producing and processing graphite electric carbon of the present invention can be implemented independently without being based on the equipment of this solution.

[0064] All embodiments of the present invention are within the scope of protection of this patent.

[0065] The embodiments of the present invention are provided for the purpose of illustration and description. Although the embodiments of the present invention have been shown and described above, it can be understood that the above embodiments are exemplary and cannot be understood as limitations of the present invention. Ordinary technicians in this field can change, modify, replace and modify the above embodiments within the scope of the present invention.

Claims

1. A mixing device and method for producing and processing graphite electric carbon, comprising a mixing cylinder (1), characterized in that: A feed hopper (5) is arranged in the middle of the top of the mixing barrel (1), a rotating rod (2) is vertically penetrated through the inner side of the feeding hopper (5), a transmission rod (8) is arranged at the top of the rotating rod (2), a motor assembly (7) is arranged at the top of the transmission rod (8), and an auxiliary structure (6) is arranged on the back of the mixing barrel (1); The auxiliary structure (6) comprises an air guide tube (601), an air frame (602), a heating box (603), a fan assembly (604), an air port (605) and a screw channel (606); the heating box (603) is arranged on the back of the mixing barrel (1); the fan assembly (604) is arranged inside the heating box (603); an air guide tube (601) is arranged at one end of the fan assembly (604); an air frame (602) is arranged on the outside of one end of the air guide tube (601); a screw channel (606) is arranged in the middle of the mixing barrel (1); and an air port (605) is arranged on the outside of the screw channel (606); The lower end of the outer surface of the mixing barrel (1) is provided with a ventilation hole (4), the bottom end of the mixing barrel (1) is provided with a discharge hopper (3), the outer side of the rotating rod (2) is provided with a blade shaft (9), and one side of the blade shaft (9) is provided with an angle adjustment structure (10); The angle adjustment structure (10) comprises a bowl frame (1001), a support assembly (1002), a transverse piece (1003), a steering shaft (1004), a stirring blade (1005) and a slide plate (1006); a stirring blade (1005) is arranged on one side of the blade shaft (9); a steering shaft (1004) is arranged on both sides of the front end of the stirring blade (1005); a transverse piece (1003) is arranged at the front end of the steering shaft (1004); a bowl frame (1001) is arranged in the middle of the inner side of the transverse piece (1003); a support assembly (1002) is arranged at the rear end of the bowl frame (1001); and a slide plate (1006) is arranged at the bottom end of the support assembly (1002).

2. The mixing equipment and method for producing and processing graphite electric carbon as claimed in claim 1, characterized in that: The air frame (602) and the air guide tube (601) are connected by welding, and a sponge material is adhered to the inner side of the air guide tube (601).

3. The mixing equipment and method for producing and processing graphite electric carbon as claimed in claim 1, characterized in that: The center point of the inner side of the screw channel (606) and the center point of the feed hopper (5) are on the same straight line, and the cross-sectional area of ​​the screw channel (606) is slightly smaller than the cross-sectional area of ​​the mixing barrel (1).

4. The mixing equipment and method for producing and processing graphite electric carbon as claimed in claim 1, characterized in that: A cavity is provided inside the screw channel (606), and the shape of the screw channel (606) is a spiral shape.

5. The mixing equipment and method for producing and processing graphite electric carbon as claimed in claim 1, characterized in that: The bottom end of the cavity of the screw channel (606) and the ventilation hole (4) are on the same straight line.

6. The mixing equipment and method for producing and processing graphite electric carbon as claimed in claim 1, characterized in that: The steering shaft (1004) and the stirring blade (1005) form a rotating structure.

7. The mixing equipment and method for producing and processing graphite electric carbon as claimed in claim 1, characterized in that: The support component (1002) and the bowl frame (1001) are fixedly connected, and the other end of the support component (1002) and the slide plate (1006) are semi-fittedly connected.

8. The mixing equipment and method for producing and processing graphite electric carbon as claimed in claim 1, characterized in that: A sliding structure is formed between the support assembly (1002) and the slide plate (1006).

9. The mixing equipment and method for producing and processing graphite electric carbon as claimed in claim 1, characterized in that: The bowl frame (1001) has a hemispherical concave shape, and is made of a porcelain material.

10. The mixing equipment and method for producing and processing graphite electric carbon according to any one of claims 1 to 9, characterized in that: The invention comprises the following operating steps of a mixing device and method for producing and processing graphite electric carbon: S1: The staff introduces the materials to be mixed into the mixing barrel (1) through the feed hopper (5), and then connects the external power supply to the equipment. The staff then takes out the motor assembly (7), and at the same time, the motor assembly (7) drives the transmission rod (8) and the blade shaft (9) and the angle adjustment structure (10) to be taken out together; S2: At this time, the staff presses the horizontal piece (1003) at the front end of the stirring blade (1005), and the steering shaft (1004) helps the horizontal piece (1003) to adjust the angle, and then moves the support assembly (1002) at the top of the slide plate (1006), and the support assembly (1002) drives the bowl frame (1001) to move inside the horizontal piece (1003); S3: The staff puts the adjusted angle adjustment structure (10), the rotating rod (2), the motor assembly (7), the transmission rod (8), and the blade shaft (9) back into the mixing barrel (1), and then connects the motor assembly (7) to an external power source and starts it. The motor assembly (7) drives the rotating rod (2), the transmission rod (8), and the blade shaft (9) to rotate, and the blade shaft (9) drives the stirring blade (1005) to rotate at a high speed. The stirring blade (1005) drives the horizontal piece (1003) and the bowl frame (1001). The stirring blade (1005) drives the horizontal piece (1003) to move in a circular manner to stir the material inside the mixing barrel (1), and at the same time, the bowl frame (1001) rotates along with the horizontal piece (1003). Since the outer shape of the bowl frame (1001) is a hemispherical concave shape, when the bowl frame (1001) rotates at a high speed, the outer surface of the bowl frame (1001) hits the material structure that is stuck together, and the grooves on the inner side of the bowl frame (1001) can continuously dig out the surface of the sticky material when rotating; S4: The heating box (603) cooperates with the fan assembly (604) to generate wind carrying heat, and the wind enters the interior of the mixing barrel (1) through the air guide pipe (601) and the air frame (602), and the air frame (602) gathers the conducted hot wind at the top of the screw channel (606); S5: The screw channel (606) encloses the position where the material is stored inside the mixing barrel (1) within a certain range, and the surface of the screw channel (606) is heated by the hot air inside the mixing barrel (1), and the surface temperature of the material contained in the screw channel (606) increases; S6: After the air frame (602) guides the wind into the interior of the mixing barrel (1), the interior of the mixing barrel (1) guides part of the gathered wind into the air port (605). Since the shape of the screw channel (606) is a spiral line shape and a cavity is provided inside the screw channel (606); S7: The cavity inside the screw channel (606) and the air port (605) on the surface of the screw channel (606) cooperate with the air exchange hole (4) to discharge the excess heat inside the mixing barrel (1), and finally the mixed material is discharged from the discharge hopper (3).

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