CN117509632B - High-yield energy-saving spherical graphite deep processing equipment - Google Patents

Abstract

The invention belongs to the technical field of graphite purification, and particularly relates to high-yield energy-saving spherical graphite deep processing equipment which comprises a processing main body, an air pressure balance assembly arranged on the processing main body, a cavitation stirring type suspension atomization mechanism and an anti-blocking self-cleaning drying collection mechanism, wherein the cavitation stirring type suspension atomization mechanism is arranged on the processing main body, and the anti-blocking self-cleaning drying collection mechanism is arranged on the processing main body; the invention provides a cavitation stirring type suspension atomization mechanism and an anti-blocking self-cleaning drying collection mechanism, which uniformly atomizes graphite powder, uniformly mixes the graphite powder with steam, and heats the mixture to remove water, thereby improving the graphite yield and reducing the energy cost.

Description

A high-yield energy-saving spherical graphite deep processing equipment

Technical Field

The invention belongs to the technical field of graphite purification, and specifically refers to high-yield and energy-saving spherical graphite deep processing equipment.

Background technique

Graphite is a natural carbonaceous material, and its layered structure gives it excellent electrical conductivity, thermal conductivity and chemical stability. In the fields of industry and science and technology, graphite is widely used in high-temperature furnace materials, lubricating materials, batteries, conductive materials and other fields. In particular, in the application of spherical graphite powder, due to its large surface area, good fluidity and excellent processing performance, it has become an important raw material.

Although graphite has many excellent properties, there are still some challenges in its deep processing. Existing graphite powder deep processing equipment usually has some limitations in the production process. Among them, low yield and high energy consumption are one of the main challenges.

The existing graphite powder deep processing equipment is difficult to achieve high-efficiency graphite powder deep processing, and at the same time, a large amount of energy is consumed during the processing.

Summary of the invention

In view of the above situation, in order to overcome the defects of the prior art, the present invention provides a high-yield and energy-saving spherical graphite deep processing equipment. In order to solve the problem that the existing graphite powder deep processing equipment is difficult to achieve high-efficiency graphite powder production, the present invention proposes a cavitation stirring suspended atomization mechanism and an anti-clogging self-cleaning drying and collecting mechanism, which atomizes the graphite powder evenly, mixes it evenly with steam, and then heats it to remove moisture, thereby improving the graphite yield and reducing energy costs.

The technical solution adopted by the present invention is as follows: The present invention provides a high-yield and energy-saving spherical graphite deep processing equipment, including a processing body and an air pressure balance component arranged on the processing body, and also including a cavitation stirring suspension atomization mechanism and an anti-clogging self-cleaning drying and collecting mechanism. The cavitation stirring suspension atomization mechanism is arranged on the processing body, and the anti-clogging self-cleaning drying and collecting mechanism is arranged on the processing body; the cavitation stirring suspension atomization mechanism includes a through-type stirring drive component, a gas-liquid interface motion component and a suspension ultrasonic atomization component. The through-type stirring drive component is arranged on the processing body, the gas-liquid interface motion component is arranged on one side of the processing body, and the suspension ultrasonic atomization component is arranged in the processing body.

Furthermore, the processing body includes a processing chamber, a fixed frame is provided inside the processing chamber, a screening box is provided at the upper end of the processing chamber, one end of a circulation pipe is connected to the side wall of the screening box, the other end of the circulation pipe is connected to an anti-clogging self-cleaning drying and collecting mechanism, a circulation air pump is provided on the circulation pipe, and an air outlet is opened at the upper end of the screening box.

Furthermore, the through-type stirring drive assembly includes a motor 1, which is arranged at the upper end of the side wall of the processing chamber, and one end of a driving rod is installed at the output end of the through-type stirring drive assembly, and the other end of the driving rod is provided with a bevel gear 1. A linkage tube is rotatably provided on the fixed frame, and the upper end of the linkage tube is through-connected with one side of a bevel gear 2, and the other side of the bevel gear 2 is through-connected with a bearing 1, and the bevel gear 1 and the bevel gear 2 are meshed and rotatably connected.

Furthermore, the gas-liquid interface motion component includes an inert gas storage tank, the output end of the inert gas storage tank is through-connected to one end of an output tube 1, the other end of the output tube 1 is through-connected to a bearing 1, an electronic valve 1 is installed on the output tube 1, the lower end of the linkage tube is through-connected to a stirring rod, a bubble hole is provided on the stirring rod, and an ultrasonic generator is provided at the lower end of the stirring rod.

Furthermore, the suspended ultrasonic atomization assembly includes a floating chamber, which is arranged in the processing chamber, and a suspended air bag is provided at the upper end of the floating chamber, and an ultrasonic atomizer is detachably installed in the floating chamber.

Furthermore, the anti-clogging self-cleaning drying and collecting mechanism includes a self-cleaning continuous and efficient operation component and a steam uniform mixing and heating component. The self-cleaning continuous and efficient operation component is arranged on the screening box, and the steam uniform mixing and heating component is arranged on one side of the processing chamber.

Furthermore, the self-cleaning and continuously efficient operation component includes motor 2, which is arranged at the lower end of the outer wall of the screening box, and a bevel gear 3 is installed at the output end of the motor 2. A ventilation pipe is rotatably provided at the lower end of the screening box, and a bevel gear 4 is penetrated at the lower end of the ventilation pipe. The bevel gear 3 and the bevel gear 4 are meshed and rotatably connected, and the lower end of the bevel gear 4 is penetrated and connected with a bearing 2, and the lower end of the bearing 2 is penetrated and connected with the other end of the circulation pipe, and the upper end of the ventilation pipe is penetrated and connected with a rotating box, and a ventilation hole is opened on the side wall of the rotating box, and one end of a fixed rod 1 is fixed to the upper end of the interior of the screening box, and the other end of the fixed rod 1 is arranged in the rotating box, and the rotating box is rotatably sleeved on the fixed rod 1, and a heating ring is provided on the side wall of the fixed rod 1, and a cleaning brush is provided on the side wall of the fixed rod 1, and a filter layer is provided inside the rotating box.

Furthermore, the steam mixing uniform heating component includes a steam generator, which is arranged on the side wall of the processing chamber, and the output end of the steam generator is through-connected with one end of output pipe 2, the upper end of the processing chamber is sleeved with output pipe 3, and electronic valve 2 is provided on output pipe 3, the other end of output pipe 2 is through-connected to the side wall of output pipe 3, the upper end of output pipe 3 is through-connected to the side wall of the circulation pipe, a fan is provided in output pipe 3, and electronic valve 3 is provided on output pipe 2.

Furthermore, the air pressure balance assembly includes an air outlet pipe, one end of which is connected to the upper end of the side wall of the processing chamber, a fixing rod 2 is installed on the inner wall of the air outlet pipe, one end of a spring is provided on the fixing rod 2, and a sealing ball is provided at the other end of the spring.

Furthermore, nitrogen is stored in the inert gas storage tank.

The beneficial effects achieved by the present invention using the above structure are as follows: The present invention provides a high-yield energy-saving spherical graphite deep processing equipment, achieving the following beneficial effects:

(1) In order to solve the problem that existing graphite powder deep processing equipment is difficult to achieve high-efficiency graphite powder production, the present invention proposes a cavitation stirring suspended atomization mechanism and an anti-clogging self-cleaning drying and collecting mechanism, which atomizes the graphite powder evenly, mixes it evenly with steam, and then heats it to remove moisture, thereby improving the graphite yield and reducing energy costs.

(2) The cavitation stirring suspension atomization mechanism can help graphite powder to be more evenly dispersed in water, increase surface activity and dispersion, and improve the contact area and stability between graphite powder and water.

(3) Through the cavitation stirring suspension atomization mechanism, the formation and injection of nitrogen bubbles can cause violent gas-liquid interface movement in the stirring liquid, accelerate the dispersion and suspension of graphite powder, and the formation of bubbles may help increase the air-liquid exchange in the liquid and promote the uniform dispersion of graphite powder.

(4) The components are evenly heated by steam mixing, and the good heat transfer properties of steam are utilized to quickly transfer heat and heat the atomized graphite powder.

(5) By mixing the steam evenly with the heating components, the steam can evenly heat the surface of the object, making the graphite powder particles heated more evenly, avoiding excessive or uneven heating, and helping to maintain the quality of the graphite powder.

(6) The components are evenly heated by steam mixing. Heating can improve the physical and chemical properties of graphite powder, increase its conductivity and stability, and make it more suitable for specific application scenarios.

(7) Steam is mixed evenly to heat the components. As a common heating medium, steam may have a higher energy utilization efficiency than other heating methods, which helps save energy costs.

(8) In order to further improve practicality and scalability, the present invention proposes a self-cleaning and continuously efficient operation component. The microporous structure characteristics of the filter membrane can effectively retain spherical particles of graphite powder. These micropores allow gas or liquid to pass through, but can retain particles that exceed their pore size, so that the gas or liquid at the outlet no longer contains these graphites, thereby improving the yield of graphite powder.

(9) Through the self-cleaning and continuously efficient operation components, the filter membrane can be continuously cleaned to maintain its high efficiency during operation, which can avoid the decrease in filtering effect due to blockage caused by graphite powder accumulation and ensure the stable operation of the equipment.

(10) The self-cleaning and continuously efficient operation of the components can help the filter membrane maintain good filtration efficiency and ensure a high yield of graphite powder.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG1 is a front view of a high-yield energy-saving spherical graphite deep processing equipment proposed by the present invention;

FIG2 is a front cross-sectional view of a high-yield energy-saving spherical graphite deep processing equipment proposed by the present invention;

FIG3 is a schematic diagram of an atomization state of a high-yield energy-saving spherical graphite deep processing equipment proposed by the present invention;

FIG4 is a schematic diagram of the structure of a self-cleaning, continuous and efficient operation component;

FIG5 is a top view of a suspended ultrasonic atomization assembly;

FIG6 is a schematic diagram of the structure of the fixing frame;

FIG7 is a bottom view of the stirring rod;

FIG8 is a partial enlarged view of part A in FIG2 .

Among them, 1. processing body, 2. cavitation stirring suspension atomization mechanism, 3. anti-clogging self-cleaning drying collection mechanism, 4. air pressure balance component, 5. processing chamber, 6. fixed frame, 7. screening box, 8. circulating air pump, 9. circulating pipe, 10. through-type stirring drive component, 11. gas-liquid interface motion component, 12. suspension ultrasonic atomization component, 13. motor 1, 14. bevel gear 1, 15. bevel gear 2, 16. drive rod, 17. linkage pipe, 18. bearing 1, 19. inert gas storage tank, 20. output pipe 1, 21. electronic valve 1, 22. stirring rod, 23. bubble hole, 24. ultrasonic generator, 25. , suspension air bag, 26, floating chamber, 27, ultrasonic atomizer, 28, self-cleaning continuous efficient operation component, 29, steam mixing uniform heating component, 30, motor two, 31, bevel gear three, 32, bevel gear four, 33, bearing two, 34, ventilation pipe, 35, ventilation hole, 36, rotating box, 37, fixed rod one, 38, heating ring, 39, cleaning brush, 40, steam generator, 41, output pipe two, 42, output pipe three, 43, fan, 44, electronic valve two, 45, electronic valve three, 46, outlet pipe, 47, spring, 48, sealing ball, 49, fixed rod two, 50, outlet hole, 51, filter layer.

The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

Detailed ways

The technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments; based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of the present invention.

In the description of the present invention, it is necessary to understand that terms such as “upper”, “lower”, “front”, “back”, “left”, “right”, “top”, “bottom”, “inside” and “outside” indicating directions or positional relationships are based on the directions or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific direction, be constructed and operated in a specific direction, and therefore cannot be understood as limiting the present invention.

As shown in Figures 1 to 8, the present invention proposes a high-yield and energy-saving spherical graphite deep processing equipment, including a processing body 1, and an air pressure balance component 4 arranged on the processing body 1, and also includes a cavitation stirring suspension atomization mechanism 2 and an anti-clogging self-cleaning drying and collecting mechanism 3. The cavitation stirring suspension atomization mechanism 2 is arranged on the processing body 1, and the anti-clogging self-cleaning drying and collecting mechanism 3 is arranged on the processing body 1.

The processing body 1 includes a processing chamber 5, a fixed frame 6, a screening box 7, a circulating air pump 8, a circulating pipe 9 and an air outlet 50. A fixed frame 6 is provided inside the processing chamber 5, and a screening box 7 is provided at the upper end of the processing chamber 5. One end of the circulating pipe 9 is connected to the side wall of the screening box 7, and the other end of the circulating pipe 9 is connected to the anti-clogging self-cleaning drying and collecting mechanism 3. A circulating air pump 8 is provided on the circulating pipe 9, and an air outlet 50 is opened at the upper end of the screening box 7.

The cavitation stirring suspended atomization mechanism 2 includes a through-type stirring drive component 10, a gas-liquid interface motion component 11 and a suspended ultrasonic atomization component 12. The through-type stirring drive component 10 is arranged on the processing body 1, the gas-liquid interface motion component 11 is arranged on one side of the processing body 1, and the suspended ultrasonic atomization component 12 is arranged in the processing body 1.

The through-type stirring drive assembly 10 includes a motor 13, a bevel gear 14, a bevel gear 2 15, a driving rod 16, a linkage tube 17 and a bearing 18. The motor 13 is arranged at the upper end of the side wall of the processing chamber 5. One end of the driving rod 16 is installed at the output end of the through-type stirring drive assembly 10. The other end of the driving rod 16 is provided with a bevel gear 14. A linkage tube 17 is rotatably provided on the fixed frame 6. The upper end of the linkage tube 17 is connected to one side of the bevel gear 2 15. The other side of the bevel gear 2 15 is connected to the bearing 18. The bevel gear 14 and the bevel gear 2 15 are meshed and rotatably connected.

The gas-liquid interface motion component 11 includes an inert gas storage tank 19, an output pipe 20, an electronic valve 21, a stirring rod 22, a bubble hole 23 and an ultrasonic generator 24. The output end of the inert gas storage tank 19 is through-connected with one end of the output pipe 20, and the other end of the output pipe 20 is through-connected to a bearing 18. An electronic valve 21 is installed on the output pipe 20. The lower end of the linkage pipe 17 is through-connected with the stirring rod 22, and the stirring rod 22 is provided with a bubble hole 23. The lower end of the stirring rod 22 is provided with an ultrasonic generator 24. Nitrogen is stored in the inert gas storage tank 19.

The suspended ultrasonic atomization assembly 12 includes a suspended airbag 25, a floating chamber 26 and an ultrasonic atomizer 27. The floating chamber 26 is arranged in the processing chamber 5. The upper end of the floating chamber 26 is provided with a suspended airbag 25. The ultrasonic atomizer 27 is detachably installed in the floating chamber 26.

The anti-clogging self-cleaning drying and collecting mechanism 3 includes a self-cleaning continuous and efficient operation component 28 and a steam mixing and heating component 29. The self-cleaning continuous and efficient operation component 28 is arranged on the screening box 7, and the steam mixing and heating component 29 is arranged on one side of the processing chamber 5.

The self-cleaning continuous high-efficiency operation component 28 includes a motor 2 30, a bevel gear 3 31, a bevel gear 4 32, a bearing 2 33, a vent pipe 34, a vent hole 35, a rotating box 36, a fixing rod 1 37, a heating ring 38, a cleaning brush 39 and a filter layer 51. The motor 2 30 is arranged at the lower end of the outer wall of the screening box 7, and the output end of the motor 2 30 is installed with a bevel gear 3 31. The lower end of the screening box 7 is rotatably provided with a vent pipe 34, and the lower end of the vent pipe 34 is penetrated with a bevel gear 4 32. The bevel gear 31 and the bevel gear 4 32 are meshed and rotatably connected. The lower end is through-connected with bearing 2 33, and the lower end of bearing 2 33 is through-connected with the other end of circulation pipe 9, the upper end of ventilation pipe 34 is through-connected with rotating box 36, and ventilation hole 35 is opened on the side wall of rotating box 36, one end of fixed rod 1 37 is fixed to the upper end of the inner part of screening box 7, and the other end of fixed rod 1 37 is arranged in rotating box 36, rotating box 36 is rotatably sleeved on fixed rod 1 37, a heating ring 38 is arranged on the side wall of fixed rod 1 37, a cleaning brush 39 is arranged on the side wall of fixed rod 1 37, and a filter layer 51 is arranged inside rotating box 36.

The steam mixing and heating component 29 includes a steam generator 40, an output pipe 2 41, an output pipe 3 42, a fan 43, an electronic valve 2 44 and an electronic valve 3 45. The steam generator 40 is arranged on the side wall of the processing chamber 5. The output end of the steam generator 40 is through-connected with one end of the output pipe 2 41. The upper end of the processing chamber 5 is sleeved with the output pipe 3 42. The output pipe 3 42 is provided with an electronic valve 2 44. The other end of the output pipe 2 41 is through-connected to the side wall of the output pipe 3 42. The upper end of the output pipe 3 42 is through-connected to the side wall of the circulation pipe 9. The output pipe 3 42 is provided with a fan 43. The output pipe 2 41 is provided with an electronic valve 3 45.

The air pressure balance assembly 4 includes an air outlet pipe 46, a spring 47, a sealing ball 48 and a fixing rod 49. One end of the air outlet pipe 46 is connected to the upper end of the side wall of the processing chamber 5. A fixing rod 49 is installed on the inner wall of the air outlet pipe 46. One end of the spring 47 is provided on the fixing rod 49, and the other end of the spring 47 is provided with a sealing ball 48.

When used specifically, firstly, graphite powder and water to be processed are placed in the processing chamber 5, the output end of the motor 13 rotates to drive the driving rod 16, the driving rod 16 rotates to drive the bevel gear 14, the bevel gear 14 rotates to drive the bevel gear 2 15, the bevel gear 2 15 rotates to drive the linkage tube 17, the linkage tube 17 rotates to drive the stirring rod 22 to rotate, the graphite powder and water are stirred and mixed, the electronic valve 121 and the inert gas storage tank 19 are opened, the nitrogen compressed in the inert gas storage tank 19 enters the linkage tube 17 through the output pipe 20 and then enters the stirring rod 22, and is discharged from the bubble hole 2 3 is sprayed out in the form of tiny bubbles, and the ultrasonic generator 24 is started at the same time. The ultrasonic generator 24 can help the graphite powder to be more evenly dispersed in the water, increase the surface activity and dispersion, and improve the contact area and stability between the graphite powder and the water. The formation and injection of nitrogen bubbles can cause violent gas-liquid interface movement in the stirring liquid, accelerate the dispersion of the graphite powder, and the setting of the air pressure balance component 4 ensures that the internal and external air pressures of the processing chamber 5 are balanced when the nitrogen is injected. After the stirring is completed, the ultrasonic atomizer 27 is started, and the ultrasonic atomizer 27 atomizes the mixed liquid containing the graphite powder. The floating chamber 26 is in the suspension airbag 25. Under the action, as the liquid level of the mixed liquid drops, the electronic valve 2 44, the electronic valve 3 45, the fan 43 and the steam generator 40 are opened, and the atomized graphite and the steam are mixed in the output pipe 3 42 through the fan 43. The high temperature heating helps to improve the crystal structure of the graphite powder. Through the heating treatment, the structure of the graphite crystal can be made more orderly, and its crystallinity and stability can be improved. The mixture enters the circulation pipe 9, and the circulation air pump 8 is started to drive the atomized graphite and the steam into the rotating box 36 through the ventilation pipe 34. The heating ring 38 is started to heat the rotating box 36, and the atomized graphite is heated in the rotating box 3 6 is dried to remove moisture and adheres to the filter layer 51, and excess water vapor enters the circulation pipe 9 through the vent hole 35 and re-circulates in the rotating box 36, the output end of the motor 2 30 rotates the bevel gear 31, the bevel gear 31 rotates to drive the bevel gear 4 32 to rotate, the bevel gear 4 32 rotates to drive the ventilation pipe 34 to rotate, the ventilation pipe 34 rotates to drive the rotating box 36 to rotate, and the inner wall of the filter layer 51 is cleaned by a stationary cleaning brush 39 to reduce the clogging of the filter layer 51 caused by graphite deposition. The above is the overall working process of the present invention, and this step can be repeated the next time it is used.

It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

The present invention and its embodiments are described above, which is not restrictive. The drawings show only one embodiment of the present invention, and the actual structure is not limited thereto. In short, if ordinary technicians in the field are inspired by it and design structural methods and embodiments similar to the technical solution without creativity without departing from the purpose of the invention, they should all fall within the protection scope of the present invention.

Claims (3)

1. A high-yield energy-saving spherical graphite deep processing equipment, comprising a processing body (1), and an air pressure balance component (4) arranged on the processing body (1), characterized in that it also includes a cavitation stirring suspension atomization mechanism (2) and an anti-clogging self-cleaning drying and collecting mechanism (3), wherein the cavitation stirring suspension atomization mechanism (2) is arranged on the processing body (1), and the anti-clogging self-cleaning drying and collecting mechanism (3) is arranged on the processing body (1); the cavitation stirring suspension atomization mechanism (2) comprises a through-type stirring drive component (10), a gas-liquid interface motion component (11) and a suspension ultrasonic atomization component (12), wherein ... The through-type stirring drive component (10) is arranged on the processing body (1), the gas-liquid interface motion component (11) is arranged on one side of the processing body (1), and the suspended ultrasonic atomization component (12) is arranged inside the processing body (1); the processing body (1) comprises a processing chamber (5), a fixing frame (6) is arranged inside the processing chamber (5), a screening box (7) is arranged at the upper end of the processing chamber (5), one end of a circulation pipe (9) is connected to the side wall of the screening box (7), the other end of the circulation pipe (9) is connected to the anti-blocking self-cleaning drying and collecting mechanism (3), and the circulation pipe (9) is provided with A circulating air pump (8), an air outlet (50) is provided at the upper end of the screening box (7); the through-type stirring drive assembly (10) comprises a motor 1 (13), the motor 1 (13) is arranged at the upper end of the side wall of the processing chamber (5), one end of a driving rod (16) is installed at the output end of the through-type stirring drive assembly (10), the other end of the driving rod (16) is provided with a bevel gear 1 (14), a linkage tube (17) is rotatably provided on the fixed frame (6), the upper end of the linkage tube (17) is connected to one side of a bevel gear 2 (15), and the other side of the bevel gear 2 (15) is connected to a bearing 1 (18) ), the bevel gear 1 (14) and the bevel gear 2 (15) are meshed and connected to each other for rotation; the gas-liquid interface motion component (11) comprises an inert gas storage tank (19), the output end of the inert gas storage tank (19) is connected to one end of an output pipe 1 (20), the other end of the output pipe 1 (20) is connected to a bearing 1 (18), an electronic valve 1 (21) is installed on the output pipe 1 (20), the lower end of the linkage pipe (17) is connected to a stirring rod (22), the stirring rod (22) is provided with a bubble hole (23), and the lower end of the stirring rod (22) is provided with an ultrasonic generator (2 4); the suspended ultrasonic atomization component (12) comprises a floating chamber (26), the floating chamber (26) is arranged in the processing chamber (5), a suspended air bag (25) is arranged at the upper end of the floating chamber (26), and an ultrasonic atomizer (27) is detachably installed in the floating chamber (26); the anti-clogging self-cleaning drying and collecting mechanism (3) comprises a self-cleaning continuous high-efficiency operation component (28) and a steam mixing and heating component (29), the self-cleaning continuous high-efficiency operation component (28) is arranged on the screening box (7), and the steam mixing and heating component (29) is arranged on one side of the processing chamber (5); the self-cleaning continuous high-efficiency operation component (28) is arranged on the screening box (7), and the steam mixing and heating component (29) is arranged on one side of the processing chamber (5); The continuous and efficient operation component (28) comprises a motor 2 (30), wherein the motor 2 (30) is arranged at the lower end of the outer wall of the screening box (7), and a bevel gear 3 (31) is installed at the output end of the motor 2 (30). A ventilation pipe (34) is rotatably provided at the lower end of the screening box (7), and a bevel gear 4 (32) is penetrated through the lower end of the ventilation pipe (34). The bevel gear 3 (31) and the bevel gear 4 (32) are meshed and rotatably connected, and the lower end of the bevel gear 4 (32) is penetrated and connected with a bearing 2 (33), and the lower end of the bearing 2 (33) is penetrated and connected with the other end of the circulation pipe (9), and the upper end of the ventilation pipe (34) is provided with a bevel gear 4 (32). The end of the sieving box (7) is connected to a rotating box (36) through the sieving box (7), a vent hole (35) is provided on the side wall of the rotating box (36), one end of a fixing rod (37) is fixedly provided at the upper end of the interior of the sieving box (7), the other end of the fixing rod (37) is arranged in the rotating box (36), the rotating box (36) is rotatably sleeved on the fixing rod (37), a heating ring (38) is provided on the side wall of the fixing rod (37), a cleaning brush (39) is provided on the side wall of the fixing rod (37), and a filtering layer (51) is provided inside the rotating box (36); the steam mixing and heating assembly (29) comprises a steam generator ( 40), the steam generator (40) is arranged on the side wall of the processing chamber (5), the output end of the steam generator (40) is connected to one end of the second output pipe (41), the upper end of the processing chamber (5) is sleeved with the third output pipe (42), the third output pipe (42) is provided with the second electronic valve (44), the other end of the second output pipe (41) is connected to the side wall of the third output pipe (42), the upper end of the third output pipe (42) is connected to the side wall of the circulation pipe (9), the third output pipe (42) is provided with a fan (43), and the second output pipe (41) is provided with the third electronic valve (45). 2. A high-yield energy-saving spherical graphite deep processing equipment according to claim 1, characterized in that: the air pressure balance component (4) includes an air outlet pipe (46), one end of the air outlet pipe (46) is connected to the upper end of the side wall of the processing chamber (5), and a fixing rod (49) is installed on the inner wall of the air outlet pipe (46), and one end of a spring (47) is provided on the fixing rod (49), and the other end of the spring (47) is provided with a sealing ball (48). 3. The high-yield, energy-saving spherical graphite deep processing equipment according to claim 2, characterized in that: nitrogen is stored in the inert gas storage tank (19).