Energy-saving ball mill based on diamond micro-powder processing

Abstract

The invention relates to the field of micro-powder processing, particularly discloses an energy-saving ball mill based on diamond micro-powder processing, and solves the problems that existing water body detection is low in efficiency, and efficient multi-point rapid sampling detection cannot be carried out. The ball mill comprises a ball mill barrel shell, a feeding port, a discharging port, a support, a connecting beam rod, a mounting base, a lining grid plate, an outer barrel, a lantern ring, an annular rubber ring, an annular table, a driving assembly, a guide rail, an inserting block and an inserting groove, a linkage assembly is arranged on the outer barrel, and the linkage assembly is used for driving the inserting block to be inserted into the inserting groove when a pushing block slides. A first cleaning brush is connected to the end, away from the discharging port, of the mounting base, and a dredging assembly is further arranged on the outer cylinder and used for dredging the lining grid plate when the first cleaning brush is opposite to the outer cylinder. According to the device, meshes of the lining grid plate are flexibly dredged in a working state, the discharging efficiency is ensured, meanwhile, the energy consumption is reduced, and the whole device is stable in operation.

Description

Technical Field

[0001] The present invention relates to the field of fine powder processing, in particular to an energy-saving ball mill based on diamond fine powder processing. Background Art

[0002] Diamond fine powder refers to diamond particles with a particle size finer than 36 / 54 microns, including single-crystal diamond fine powder and polycrystalline diamond fine powder. In the industry, diamond fine powder generally specifically refers to single-crystal diamond fine powder. The processing of diamond fine powder generally uses a ball mill for processing, and a lattice type ball mill is adopted.

[0003] The principle of the ball mill is that through the movement of the planetary gear train, the grinding balls generate complex movement trajectories in the grinding tank, so as to fully grind and mix the diamond particles. The planetary ball mill is suitable for the processing of small batches and high-precision diamond fine powder. And the grinding medium is usually selected from materials with high hardness and good wear resistance, such as tungsten carbide, silicon nitride, agate, etc. Tungsten carbide grinding balls have extremely high hardness and wear resistance, and can effectively grind diamond particles, but the cost is relatively high. Silicon nitride grinding balls have good wear resistance and relatively low density, which can reduce the energy consumption during the grinding process. Agate grinding balls have delicate texture and are not easy to introduce impurities during the grinding process, but their wear resistance is relatively weak, and they are suitable for the processing of diamond fine powder with high purity requirements.

[0004] However, generally, a lattice lining plate is provided at the discharge port end in the existing lattice type ball mill to discharge the fine powder particles with a specified particle size and below, while those that do not reach the specified particle size continue to stay in the ball mill for grinding. And such a lattice lining plate is easy to jam some fine powder particles with unqualified particle sizes in its mesh holes. As a result, during long-term use, the mesh holes of the lattice lining plate are easily blocked, reducing the discharge efficiency, and the fine powder with qualified particle sizes will also be blocked in it and participate in continuous grinding, resulting in an increase in the energy consumption of the ball mill, but it cannot be dredged in time during the working state. Therefore, an energy-saving ball mill based on diamond fine powder processing is proposed. Summary of the Invention

[0005] In order to overcome the deficiencies of the prior art, the present invention proposes an energy-saving ball mill based on diamond fine powder processing, which can efficiently dredge the mesh holes of the lattice lining plate of the lattice type ball mill during the working state, improve the discharge efficiency, and at the same time can effectively reduce the energy consumption.

[0006] To solve the above technical problems, the basic technical solution proposed by the present invention is as follows: An energy-saving ball mill based on diamond micropowder processing, comprising a ball mill shell and a feed inlet and a discharge outlet arranged at both ends thereof. A bracket is connected to one side of the ball mill shell at the discharge outlet, and a connecting beam rod is connected to the bracket. One end of the connecting beam rod extends into the ball mill shell, and a mounting seat is arranged at the extending end. A plurality of inner lining grid plates are rotatably sleeved on the outer side of the mounting seat in an array. An outer cylinder is sleeved outside the plurality of inner lining grid plates by bolts. Collars are slidably sleeved at both ends of the outer cylinder. An annular rubber ring is sleeved between each collar and one end of the outer cylinder. A ring platform is sleeved outside the outer cylinder. A driving assembly is arranged on the ring platform. The driving assembly is used to drive the collars on both sides to move away from each other to squeeze the annular rubber ring. A guide rail is further connected to the outer cylinder. A plug is slidably connected to the guide rail. A slot for inserting and matching with the plug is formed in the inner wall of the ball mill shell. A linkage assembly is arranged on the outer cylinder. The linkage assembly is used to drive the plug to be inserted into the slot when the push block slides. A first cleaning brush is connected to one end of the mounting seat away from the discharge outlet. A dredging assembly is further arranged on the outer cylinder. The dredging assembly is used to dredge the inner lining grid plates when the first cleaning brush faces the outer cylinder.

[0007] Preferably, the outer cylinder is an I-shaped cylinder, and guide rods I are connected to the sides of both ends of the outer cylinder close to each other in an array. The collars are slidably sleeved on the outer side surfaces of the guide rods I. A driving control module is arranged at one end of the ball mill shell at the feed inlet. An inner lining plate layer is paved on the inner wall of the ball mill shell. The outer cylinder is located inside the inner lining plate layer.

[0008] Preferably, a plurality of telescopic members I are installed at one end of the connecting beam rod extending into the ball mill shell in an array. One end of the telescopic member I away from the discharge outlet is installed with a motor, and the output end of the motor on the side away from the discharge outlet is connected with a disc. The mounting seat is installed and sleeved inside the disc. Clamping disc frames are connected to both sides of the disc. Each of the inner lining grid plates is sleeved outside the disc in an array, and is located between the clamping disc frames on both sides, and is connected to the clamping disc frames by bolts. The outer cylinder is installed outside the clamping disc frames by bolts.

[0009] Preferably, the driving assembly comprises a bidirectional telescopic member and a push plate. The bidirectional telescopic member is sleeved inside the ring platform and penetrates through both sides of the ring platform. The push plates are symmetrically connected to the output ends on both sides of the bidirectional telescopic member respectively. The push plates are in contact with the collars in a matching manner. The outer side surface of the annular rubber ring is in contact with the inner wall of the ball mill shell.

[0010] Preferably, the linkage assembly includes a second guide rod, a sliding seat, and a second rotating plate. The two sides of the annular platform are symmetrically connected with the second guide rod. The sliding seat is slidably sleeved outside the second guide rod. A first spring is connected between the sliding seat and the annular platform, and the first spring is sleeved outside the second guide rod. One end of the second rotating plate is rotatably connected to the sliding seat, and the other end is rotatably connected to the insertion block.

[0011] Preferably, one end of the second guide rod away from the annular platform is connected with a mounting plate. The guide rail is connected to the mounting plate. A sliding frame is slidably connected to the guide rail. The insertion block is connected to the sliding frame.

[0012] Preferably, a first rotating plate is rotatably connected to the sliding seats on both sides of the annular platform. The mutually approaching ends of the two first rotating plates are jointly rotatably connected with a clamping seat. A second cleaning brush is clamped on the side of the clamping seat away from the outer cylinder.

[0013] Preferably, the dredging assembly includes a top frame, a sliding hole, a sliding rod, an arc-shaped seat, a mounting frame, a dredging plate, and a mesh hole. The top frame is connected to the first cleaning brush. The sliding hole is opened through both sides of the annular platform and the outer cylinder. The sliding rod is slidably sleeved in the sliding hole, and both ends of the sliding rod extend to the two outer sides of the outer cylinder. The arc-shaped seat is connected to the end of the sliding rod away from the discharge port and is in sliding contact with the top frame in a fitting manner. The mounting frame is connected to the end of the sliding rod close to the discharge port. The mesh hole is opened on the inner lining grid plate. The dredging plate is connected to the mounting frame and slides in the mesh hole.

[0014] Preferably, a support plate is connected to one side of the mounting seat. The first cleaning brush is installed on the side of the support plate close to the inner lining grid plate. The top frame is connected to the side of the support plate away from the inner lining grid plate.

[0015] Preferably, a plurality of third guide rods are arrayedly connected to the side of the outer cylinder close to the discharge port. The mounting frame is slidably sleeved outside the third guide rods. A second spring is connected between the mounting frame and the outer cylinder, and the second spring is sleeved outside the third guide rods.

[0016] The beneficial effects of the present invention are as follows: 1. In the technical solution of the present invention, when the bidirectional telescopic members in the driving assembly move away from each other, they can push the push plates on both sides thereof to abut against the collar, thereby driving the collars on both sides to slide away from each other, and then extruding the annular rubber rings sleeved on both ends of the outer cylinder, so that the middle part of the annular rubber ring can bulge, and then abut against the inner wall of the ball mill shell, realizing the sealed sleeving of the inner wall of the ball mill shell, ensuring that only the processed qualified diamond micropowder can pass through the mesh holes on the inner lining grid plate. During the process, when the push plates on both sides move away from each other, they will also drive the insertion block to be inserted into the slot through the linkage assembly, realizing the stable installation of the outer cylinder in the ball mill shell and improving the stability during the operation of the equipment; 2. The technical solution of the present invention can cancel the insertion of the plug block and the slot by driving the push plates on both sides to approach each other through the driving assembly, and at the same time, the annular rubber ring is reset to cancel the contact with the inner wall of the ball mill barrel shell. At this time, the outer cylinder is separated from the inner wall of the ball mill barrel shell, and at the same time, the push blocks are approaching each other, which will also push the slide seats on both sides to approach each other and compress the spring 1, thereby driving the rotating plate 1 to rotate, so that the clamping plate and the cleaning brush 2 gradually move away from the outer cylinder along the radial direction of the outer cylinder until they contact the inner wall of the ball mill barrel shell. At this time, the inner wall of the ball mill barrel shell can be cleaned by the telescopic member 1 and the motor, so as to avoid the inner wall of the ball mill from adhering to the continuous powder and agglomerating into blocks during long-term use, thereby affecting the grinding efficiency. 3. The technical solution of the present invention can drive the outer cylinder to rotate with the rotation of the ball mill shell, but the mounting seat is rotated with each lining grid plate, so the mounting seat and the bracket plate thereon will be relatively immobile. At this time, the top frame connected to the bracket plate will collide with the arc-shaped seat rotated to the highest position one by one, and then pull the slide bar to slide toward the side away from the discharge port, thereby driving the dredging plate to be inserted into the mesh to dredge the large-particle powder and agglomerated fine powder that may be blocked in the mesh. At the same time, its function is limited to the lining grid plate rotated to the highest point, so it will not affect the discharge of the lower lining grid plate, and at the same time can ensure that the powder with qualified particle size is discharged in time, thereby improving the grinding efficiency and reducing energy consumption. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a structural schematic diagram of the present invention; Figure 2 is a cross-sectional view of the structure of the present invention; Figure 3 It is a schematic diagram of the related structure of the bracket and the outer cylinder of the present invention; Figure 4 It is a schematic diagram of the relevant structure on the outer cylinder of the present invention; Figure 5 It is a cross-sectional view of the relevant structure on the outer cylinder of the present invention; Figure 6 for Figure 5 The enlarged view of point A in the middle; Figure 7 It is a structural schematic diagram of the driving component and the linkage component of the present invention; Figure 8 is a schematic diagram of the relevant structure on the guide rail of the present invention; Figure 9 It is a schematic diagram of the inner structure of the outer cylinder of the present invention; Figure 10 It is a structural schematic diagram of the dredging component of the present invention; Figure 11 It is a left-side structural schematic diagram of the inner lining grid plate and the chuck frame of the present invention; Figure 12It is a right side structural schematic diagram of the lining grid plate and the chuck frame of the present invention.

[0018] Description of reference numerals: 1. Ball mill shell; 2. Drive control module; 3. Feed inlet; 4. Discharge outlet; 5. Lining plate layer; 6. Bracket; 7. Connecting beam; 8. Telescopic member 1; 9. Motor; 10. Mounting seat; 11. Disc; 12. Chuck rack; 13. Lining grid plate; 14. Outer cylinder; 15. Bracket plate; 16. Cleaning brush 1; 17. Top frame; 18. Guide rod 1; 19. Ring; 20. Annular rubber ring; 21. Ring table; 2 2. Two-way telescopic member; 23. Push plate; 24. Guide rod 2; 25. Slide seat; 26. Spring 1; 27. Turn plate 1; 28. Clamp seat; 29. ​​Cleaning brush 2; 30. Mounting plate; 31. Guide rail; 32. Slide frame; 33. Insert block; 34. Turn plate 2; 35. Slide hole; 36. Slide rod; 37. Arc seat; 38. Mounting frame; 39. Clearing plate; 40. Guide rod 3; 41. Spring 2; 42. Mesh; 43. Slot. DETAILED DESCRIPTION

[0019] The following will be combined with the attached Figure 1 To Attachment Figure 12 The technical solutions in the embodiments of the present invention are described clearly and completely. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0020] Embodiment 1: like Figures 1-9 As shown, the present invention discloses an energy-saving ball mill based on diamond micro powder processing, comprising a ball mill barrel shell 1 and a feed port 3 and a discharge port 4 arranged at two ends thereof, the ball mill barrel shell 1 is connected to a bracket 6 on one side of the discharge port 4, and the bracket 6 is connected to a connecting beam 7, one end of the connecting beam 7 extends into the ball mill barrel shell 1, and a mounting seat 10 is arranged at the extended end, a plurality of lining grid plates 13 are rotatably mounted on the outer side of the mounting seat 10, an outer cylinder 14 is bolted on the outer side of the plurality of lining grid plates 13, both ends of the outer cylinder 14 are slidably mounted with sleeve rings 19, an annular rubber ring 20 is mounted between each sleeve ring 19 and one end of the outer cylinder 14, and a ring platform 21 is mounted on the outer side of the outer cylinder 14; The two ends of the annular rubber ring 20 are respectively connected to one end of the outer cylinder 14 and the outside of the corresponding side sleeve 19, and have a preliminary bulge, so that when the sleeve 19 approaches the annular rubber ring 20 toward the outer cylinder 14, the sleeve 19 will be squeezed, and its bulge will be aggravated to achieve the fit and contact with the inner wall of the ball mill shell 1, and then seal, to ensure that the diamond powder with qualified particle size after processing can only be discharged from the inner lining grid plate 13; A driving component is provided on the annular platform 21. The driving component is used to drive the collar rings 19 on both sides to move away from each other to extrude the annular rubber ring 20. A guide rail 31 is also connected to the outer cylinder 14. A plug 33 is slidably connected to the guide rail 31. A slot 43 for fitting and inserting the plug 33 is provided on the inner wall of the ball mill shell 1. A linkage component is provided on the outer cylinder 14. The linkage component is used to drive the plug 33 to be inserted into the slot 43 when the push plate 23 slides. One end of the mounting seat 10 away from the discharge port 4 is connected with a first cleaning brush 16. A dredging component is also provided on the outer cylinder 14. The dredging component is used to dredge the inner lining grid plate 13 when the first cleaning brush 16 faces the outer cylinder 14.

[0021] The outer cylinder 14 is an I-shaped cylinder, and guide rods 18 are connected in an array on one side where the two ends of the outer cylinder 14 are close to each other. The collar rings 19 are slidably sleeved on the outer side of the guide rods 18. A drive control module 2 is provided at one end of the ball mill shell 1 at the feed port 3. The inner wall of the ball mill shell 1 is paved with a lining plate layer 5. The outer cylinder 14 is located inside the lining plate layer 5. Among them, the lining plate layer 5 is formed by splicing and paving the existing ball mill lining plates, and the drive control module 2 is the drive control component of the existing ball mill.

[0022] One end of the connecting beam rod 7 extending into the ball mill shell 1 is provided with a plurality of first telescopic members 8 installed in an array. One end of the first telescopic member 8 away from the discharge port 4 is provided with a motor 9. And the output end of the motor 9 on the side away from the discharge port 4 is connected with a disc 11. The mounting seat 10 is installed and sleeved inside the disc 11. Both sides of the disc 11 are connected with chuck frames 12. Each inner lining grid plate 13 is installed and sleeved on the outside of the disc 11 in an array, and is located between the two chuck frames 12 on both sides, and is connected to the chuck frames 12 by bolts. The outer cylinder 14 is installed on the outside of the chuck frames 12 by bolts.

[0023] As Figure 7 and 8 shown, each inner lining grid plate 13 is installed and sleeved on the outside of the disc 11 in an array. The chuck frames 12 arranged on both axial sides of the disc 11 can limit each inner lining grid plate 13, and each inner lining grid plate 13 is installed on it by bolts. At the same time, both the disc 11 and the chuck frames 12 are sleeved on the outside of the mounting seat 10 by bolts. At the same time, the two chuck frames 12 on both sides are sleeved on the inner wall of the outer cylinder 14 by bolts. This facilitates the disassembly and assembly of the whole. That is, when an inner lining grid plate 13 needs to be replaced due to long-term wear during use, it can also be disassembled and replaced flexibly.

[0024] Embodiment 2: As Figures 1-10 shown, the present invention discloses an anti-collision platform for an ocean fishing boat with a protection function. Compared with Embodiment 1, the structure of the driving component is disclosed in this embodiment.

[0025] The driving component includes a bidirectional telescopic member 22 and a push plate 23. The bidirectional telescopic member 22 is sleeved inside the annular platform 21 and penetrates through both sides of the annular platform 21. The push plate 23 is symmetrically connected to the output ends on both sides of the bidirectional telescopic member 22. The push plate 23 is in mating contact with the collar 19, and the outer side of the annular rubber ring 20 is in fitting contact with the inner wall of the ball mill shell 1.

[0026] In this way, when the bidirectional telescopic member 22 extends, it drives the push plates 23 on both sides to move away from each other, thereby pushing the collars 19 on both sides to move away from each other and respectively squeezing the annular rubber rings 20 on their respective sides, realizing the bulging of the annular rubber rings 20 and the fitting contact and sealing with the inner wall of the ball mill shell 1.

[0027] Embodiment 3: As Figures 1-10 shown, the present invention discloses an anti-collision platform for an ocean fishing vessel with a protection function. Compared with Embodiment 2, the structure of the linkage component is disclosed in this embodiment.

[0028] The linkage component includes a guide rod II 24, a sliding seat 25, and a rotating plate II 34. Guide rods II 24 are symmetrically connected to both sides of the annular platform 21. The sliding seat 25 is slidably sleeved outside the guide rod II 24. A spring I 26 is connected between the sliding seat 25 and the annular platform 21, and the spring I 26 is sleeved outside the guide rod II 24. One end of the rotating plate II 34 is rotatably connected to the sliding seat 25, and the other end is rotatably connected to the insert block 33.

[0029] When the collars 19 on both sides are pushed to move away from each other, the push plate 23 will also move away from the sliding seat 25. The sliding seats 25 on both axial sides of the annular platform 21 can move away from each other under the action of the spring I 26, thereby driving the rotating plate II 34 to rotate and driving the insert block 33 to move along the guide rail 31 towards the side away from the axis of the outer cylinder 14, so that the insert block 33 is gradually inserted into the slot 43, ensuring that while the outer cylinder 14 is sealed through the annular rubber ring 20, it can also be stably installed on the inner wall of the ball mill shell 1.

[0030] One end of the guide rod II 24 away from the annular platform 21 is connected with a mounting plate 30. The guide rail 31 is connected to the mounting plate 30. A sliding frame 32 is slidably connected to the guide rail 31. The insert block 33 is connected to the sliding frame 32, which can ensure the stable sliding of the insert block 33.

[0031] The sliding seats 25 on both sides of the ring platform 21 are rotatably connected with rotating plates 27. The rotating plates 27 on both sides are close to each other at one end and are rotatably connected with a clamping seat 28. A cleaning brush 29 is clamped on the side of the clamping seat 28 away from the outer cylinder 14. In this way, when the two-way telescopic member 22 is contracted, the annular rubber ring 20 rebounds to cancel the seal, and the plug block 33 is separated from the slot 43. At the same time, the push plate 23 will drive the sliding seats 25 on both sides to approach each other, and then through the rotation of the rotating plate 27, the clamping seat 28 and the cleaning brush 29 are driven to slide along the radial direction of the outer cylinder 14 toward the inner wall of the ball mill shell 1 until they are in contact with its inner wall. At this time, the telescopic member 8 can be extended and retracted with the drive of the motor 9, so that the outer cylinder 14 can slide along the axial direction of the ball mill shell 1 and rotate at the same time to clean the inner wall of the ball mill shell 1, so as to avoid the inner wall of the ball mill from adhering to the continuous powder and agglomerating into blocks during long-term use, thereby affecting the grinding efficiency.

[0032] Embodiment 4: like Figures 1-12 As shown, the present invention discloses an anti-collision platform for ocean-going fishing vessels with a protective function. Compared with the third embodiment, this embodiment discloses the structure of a dredging component.

[0033] The dredging assembly includes a top frame 17, a sliding hole 35, a sliding rod 36, an arc seat 37, a mounting frame 38, a dredging plate 39, and a mesh 42. The top frame 17 is connected to the cleaning brush 16. The sliding hole 35 is opened through the ring platform 21 and the two sides of the outer cylinder 14. The sliding rod 36 is slidably sleeved in the sliding hole 35, and the two ends of the sliding rod 36 extend to the two outer sides of the outer cylinder 14. The arc seat 37 is connected to the end of the sliding rod 36 away from the discharge port 4, and slides in contact with the top frame 17. The mounting frame 38 is connected to the end of the sliding rod 36 close to the discharge port 4. The mesh 42 is opened on the lining grating plate 13. The dredging plate 39 is connected to the mounting frame 38, and the dredging plate 39 slides in the mesh 42.

[0034] A bracket plate 15 is connected to one side of the mounting seat 10, a cleaning brush 16 is installed on the side of the bracket plate 15 close to the lining grating plate 13, a top frame 17 is connected to the side of the bracket plate 15 away from the lining grating plate 13, a plurality of guide rods 3 40 are connected in an array on one side of the outer cylinder 14 close to the discharge port 4, a mounting frame 38 is slidably sleeved on the outside of the guide rod 3 40, a spring 2 41 is connected between the mounting frame 38 and the outer cylinder 14, and the spring 2 41 is sleeved on the outside of the guide rod 3 40.

[0035] By the rotation of the cylinder shell 1 of the ball mill, the outer cylinder 14 can be driven to rotate. However, the mounting seat 10 is rotationally sleeved with each inner lining grid plate 13. Therefore, the mounting seat 10 and the support plate 15 thereon will remain relatively stationary. At this time, the top frame 17 connected to the support plate 15 will successively contact the arc-shaped seat 37 rotated to a high position, thereby pulling the slide rod 36 to slide away from the discharge port 4, and then driving the dredging plate 39 to be inserted into the mesh hole 42 to dredge the large-particle-size powder and agglomerated fine powder that may be blocked in the mesh hole 42. At the same time, its function is limited to the inner lining grid plate 13 rotated to the highest position. Therefore, it will not affect the discharging of the inner lining grid plate 13 at a low position, and at the same time, it can ensure that the powder with qualified particle size is discharged in time, so as to improve the grinding efficiency and reduce the energy consumption.

[0036] According to the disclosure and teachings of the above specification, those skilled in the art to which the present invention pertains can also make changes and modifications to the above embodiments. Therefore, the present invention is not limited to the specific embodiments disclosed and described above, and some modifications and changes to the present invention should also fall within the protection scope of the claims of the present invention. In addition, although some specific terms are used in this specification, these terms are only for convenience of description and do not constitute any limitation to the present invention.

Claims

1. An energy-saving ball mill based on diamond micro-powder processing, comprising a ball mill shell (1) and a feed port (3) and a discharge port (4) arranged at both ends thereof, the ball mill shell (1) being connected to a bracket (6) on one side of the discharge port (4), and the bracket (6) being connected to a connecting beam (7), characterized in that: One end of the connecting beam (7) extends into the ball mill barrel (1), and a mounting seat (10) is provided at the extended end. A plurality of lining grid plates (13) are rotatably sleeved on the outer side of the mounting seat (10). An outer cylinder (14) is sleeved with bolts on the outer sides of the plurality of lining grid plates (13). Both ends of the outer cylinder (14) are slidably sleeved with collars (19). An annular rubber ring (20) is sleeved between each collar (19) and one end of the outer cylinder (14). A ring platform (21) is sleeved on the outer side of the outer cylinder (14); The ring platform (21) is provided with a driving assembly, and the driving assembly is used to drive the sleeve rings (19) on both sides to move away from each other to squeeze the annular rubber ring (20). The outer cylinder (14) is also connected to a guide rail (31), and an insert block (33) is slidably connected to the guide rail (31). The inner wall of the ball mill barrel shell (1) is provided with a slot (43) for inserting the insert block (33). The outer cylinder (14) is provided with a linkage assembly, and the linkage assembly is used to drive the insert block (33) to be inserted into the slot (43) when the push block (23) slides. The end of the mounting seat (10) away from the discharge port (4) is connected to a cleaning brush (16). The outer cylinder (14) is also provided with a dredging assembly, and the dredging assembly is used to dredge the inner lining grid plate (13) when the cleaning brush (16) is relative to the outer cylinder (14).

2. The energy-saving ball mill based on diamond micro powder processing according to claim 1 is characterized in that: The outer cylinder (14) is an I-shaped cylinder, and two ends of the outer cylinder (14) are close to each other and are connected in an array with a guide rod (18) on one side, the collar (19) is slidably sleeved on the outer side of the guide rod (18), the ball mill barrel shell (1) is provided with a drive control module (2) at one end of the feed port (3), the inner wall of the ball mill barrel shell (1) is paved with an inner lining plate layer (5), and the outer cylinder (14) is located on the inner side of the inner lining plate layer (5).

3. The energy-saving ball mill based on diamond micro powder processing according to claim 1 is characterized in that: The connecting beam (7) extends into one end of the ball mill barrel shell (1) and is provided with a plurality of telescopic members (8) in an array. A motor (9) is provided at one end of the telescopic member (8) away from the discharge port (4), and a disc (11) is connected to the output end of the motor (9) away from the discharge port (4). The mounting seat (10) is installed and sleeved in the disc (11). Both sides of the disc (11) are connected to chuck frames (12). Each of the lining grid plates (13) is sleeved in an array on the outside of the disc (11) and is located between the chuck frames (12) on both sides and is connected to the chuck frames (12) by bolts. The outer cylinder (14) is installed on the outside of the chuck frames (12) by bolts.

4. The energy-saving ball mill based on diamond micro powder processing according to claim 1 is characterized in that: The driving assembly comprises a bidirectional telescopic member (22) and a push plate (23). The bidirectional telescopic member (22) is sleeved in the ring platform (21) and passes through both sides of the ring platform (21). The push plate (23) is symmetrically connected to the output ends on both sides of the bidirectional telescopic member (22). The push plate (23) cooperates with and contacts the sleeve ring (19). The outer side surface of the annular rubber ring (20) fits and contacts the inner wall of the ball mill barrel shell (1).

5. The energy-saving ball mill based on diamond micro powder processing according to claim 1, characterized in that: The linkage assembly comprises a second guide rod (24), a slide seat (25), and a second rotating plate (34). The two sides of the ring platform (21) are symmetrically connected with the second guide rod (24). The slide seat (25) is slidably sleeved on the outer side of the second guide rod (24). A first spring (26) is connected between the slide seat (25) and the ring platform (21), and the first spring (26) is sleeved on the outer side of the second guide rod (24). One end of the second rotating plate (34) is rotatably connected to the slide seat (25), and the other end is rotatably connected to the plug block (33).

6. The energy-saving ball mill based on diamond micro powder processing according to claim 4, characterized in that: One end of the guide rod 2 (24) away from the ring platform (21) is connected to a mounting plate (30), the guide rail (31) is connected to the mounting plate (30), a sliding frame (32) is slidably connected to the guide rail (31), and the insert block (33) is connected to the sliding frame (32).

7. The energy-saving ball mill based on diamond micro powder processing according to claim 4, characterized in that: The slide seats (25) on both sides of the ring platform (21) are rotatably connected to rotating plates (27), and the rotating plates (27) on both sides are rotatably connected to a clamping seat (28) at one end close to each other, and a cleaning brush (29) is clamped on the side of the clamping seat (28) away from the outer cylinder (14).

8. The energy-saving ball mill based on diamond micro powder processing according to claim 1, characterized in that: The dredging assembly comprises a top frame (17), a sliding hole (35), a sliding rod (36), an arc seat (37), a mounting frame (38), a dredging plate (39), and a mesh (42); the top frame (17) is connected to a cleaning brush (16); the sliding hole (35) penetrates through the ring platform (21) and is opened on both sides of the outer cylinder (14); the sliding rod (36) is slidably sleeved in the sliding hole (35), and both ends of the sliding rod (36) extend to the outer cylinder The arc seat (37) is connected to the end of the slide bar (36) away from the discharge port (4) and slides in contact with the top frame (17). The mounting frame (38) is connected to the end of the slide bar (36) close to the discharge port (4). The mesh (42) is formed on the inner lining lattice plate (13). The dredging plate (39) is connected to the mounting frame (38), and the dredging plate (39) slides in the mesh (42).

9. The energy-saving ball mill based on diamond micro powder processing according to claim 8, characterized in that: A support plate (15) is connected to one side of the mounting seat (10), the cleaning brush 1 (16) is mounted on a side of the support plate (15) close to the inner lining grating plate (13), and the top frame (17) is connected to a side of the support plate (15) away from the inner lining grating plate (13).

10. The energy-saving ball mill based on diamond micro powder processing according to claim 8, characterized in that: A plurality of guide rods three (40) are connected in an array on one side of the outer cylinder (14) close to the discharge port (4); the mounting frame (38) is slidably sleeved on the outside of the guide rod three (40); a spring two (41) is connected between the mounting frame (38) and the outer cylinder (14), and the spring two (41) is sleeved on the outside of the guide rod three (40).

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