A tapered mesh flange clamping structure for automated production

Abstract

This invention relates to the field of pharmaceutical equipment technology, specifically to an automated production method for a conical mesh flange clamping structure. The structure includes a mounting base plate, a hydraulic main pipe at the lower end of the base plate, a clamping device at the upper end of the hydraulic main pipe, a rotating table at the outer end of the clamping device, a bottom mold fixedly connected to the top of the rotating table, a rotary drive device mounted on the left side of the rotating table, and a pinion gear connected to the lower end of the rotary drive device. The clamping device achieves the purpose of limiting and clamping the conical mesh and the flange. It also limits and engages the flange and the screen, while the bottom mold supports the screen. Simultaneously, the rotary drive device drives the pinion gear to rotate, causing the bottom mold to rotate and connect. The mounting base plate provides overall support, and the hydraulic main pipe provides hydraulic drive for the clamping device, allowing it to rotate and perform the clamping operation.

Description

Technical Field

[0001] This invention relates to the field of pharmaceutical equipment technology, specifically to an automated production tapered mesh flange clamping structure. Background Technology

[0002] Conical screens commonly used in pharmaceutical equipment, including large flanges, screen mesh plates, and small flanges, are used to granulate drugs into fixed-size particles. To achieve high granulation efficiency and ensure uniform drug particles, the overall manufacturing precision of the screen is required. Furthermore, due to the high-speed operation of the equipment at thousands of revolutions per minute, it is necessary to effectively control noise, temperature rise, and friction. Therefore, the requirements for screen concentricity and roundness are also high. In the traditional manufacturing process, the screen mesh plates are rolled by hand, welded using argon arc welding, and then rounded before being welded to the upper and lower large flanges and small flanges. After the entire assembly is completed, it is then precision machined.

[0003] Currently, the conical mesh flange clamping structure on the market requires efficient clamping and fixing due to the need for automated control and the difficulty in welding the conical structure of the conical screen. At the same time, the docking performance should be improved to prevent the conical mesh from falling off the flange and affecting the screening operation. Therefore, an improved device is needed to address these issues. Summary of the Invention

[0004] To address the problems in the prior art, this invention provides an automated production method for a tapered mesh flange clamping structure.

[0005] The technical solution adopted by the present invention to solve its technical problem is: an automated production tapered mesh flange clamping structure, including a mounting base plate, a hydraulic main pipeline at the lower end of the mounting base plate, a clamping device at the upper end of the hydraulic main pipeline, a rotating table at the outer end of the clamping device, a bottom mold fixedly connected to the top of the rotating table, a rotation drive device installed on the left side of the rotating table, and a small gear driven by the lower end of the rotation drive device.

[0006] Specifically, a pairing assembly structure is fixedly connected to the upper end of the mounting base plate. The pairing assembly structure includes a support frame, a telescopic motor, a telescopic connecting plate, and a combined connecting component. The support frame is fixedly connected to the upper end of the combined connecting component. A telescopic motor is installed at the center of the support frame. A telescopic connecting plate is telescopically connected to the lower end of the telescopic motor.

[0007] Specifically, the combined connecting component includes a limiting side frame and a support frame. The upper end of the support frame is fixedly connected to the limiting side frame. The combined connecting component also includes a docking and assembly mechanism and a bearing column. The bearing column is fixedly connected to the center of the support frame. The docking and assembly mechanism is slidably positioned with the limiting side frame.

[0008] Specifically, the docking assembly mechanism includes a first lead screw, a displacement frame, and an adjustment part. The upper end of the adjustment part is limited by a displacement frame, and both the front and rear ends of the displacement frame are threadedly connected to the first lead screw. The adjustment part includes a mating transmission module, a positioning main frame, an annular sleeve, and a first hydraulic cylinder. The lower end of the mating transmission module is provided with a positioning main frame, and the center of the positioning main frame is fixedly connected with an annular sleeve. Both the left and right ends of the annular sleeve are provided with first hydraulic cylinders.

[0009] Specifically, the coordination and transmission module includes a derivation and connection main component and a coordination and control main component, with the lower end of the derivation and connection main component fixedly connected to the coordination and control main component.

[0010] Specifically, the main push-connecting component includes a second hydraulic cylinder, a tilting push shaft, a sliding connecting block, a second lead screw, a guide frame, a linkage frame, a limiting frame, and a push seat block. The right end of the second hydraulic cylinder is telescopically connected to the push seat block, the lower end of the push seat block is slidably connected to the limiting frame, the bottom of the push seat block is fixedly connected to the linkage frame, the lower end of the linkage frame is fixedly connected to the guide frame, the right side of the guide frame is rotatably connected to the second lead screw, the upper end of the second lead screw is threadedly connected to the sliding connecting block, and the upper end of the sliding connecting block is rotatably connected to the tilting push shaft.

[0011] Specifically, the main control component includes an adjustment component, a tension shaft frame, a tension seat, a first mating guard plate, a telescopic guide rod frame, and a second mating guard plate. The upper end of the first mating guard plate is fixedly connected to the tension seat, and the upper end of the tension seat is telescopically connected to the second mating guard plate through the telescopic guide rod frame. The left side of the tension seat is fixedly connected to the tension shaft frame, and the adjustment component is located at the upper end of the tension shaft frame.

[0012] Specifically, the main adjusting component includes a rotating gear shaft, a third lead screw, a limiting guide block, a fourth lead screw, a limiting frame, and a motor. The motor is installed on the rear side of the upper end inside the main adjusting component. The lower end of the motor is fixedly connected to the fourth lead screw. The limiting frame is threadedly connected to the fourth lead screw. The front end of the limiting frame is slidably connected to the limiting guide block. A rotating gear shaft is provided near the limiting guide block in the limiting frame. The center of the rotating gear shaft is fixedly connected to the third lead screw.

[0013] Specifically, the tensioning shaft is threadedly connected to the third lead screw, and the limiting frame causes the rotating gear shaft to rotate by displacement on the limiting guide block, thereby driving the third lead screw to rotate.

[0014] A method for using an automated production tapered mesh flange clamping structure includes the following steps:

[0015] S1. First, the bearing is transferred to the upper end of the guide frame. Then, the second lead screw is started. The second lead screw rotates, driving the flip push shaft and the sliding block to move in a limited state. Then, the flip push shaft can be rotated by the drive, so that the flip push shaft is connected to the bearing.

[0016] S2. Then, start the second lead screw. The second lead screw rotates, driving the flip push shaft and sliding block to move in the limit state. Then, the flip push shaft can be driven to rotate, so that the flip push shaft is connected to the bearing. Then, the user controls the push block to extend and retract through the second hydraulic cylinder, so that the push block drives the guide frame to move. With the push of the flip push shaft, the bearing reaches the upper end of the second mating guard plate.

[0017] S3. Finally, the user drives the motor to operate, causing the fourth lead screw to rotate, which in turn causes the limit frame to adjust its displacement. This, in turn, causes the rotating gear shaft to rotate on the limit guide block, resulting in the third lead screw rotating as well. The rotation of the third lead screw causes the tension shaft frame to move laterally, separating the first mating guard plate, the tension seat, the telescopic guide rod frame, and the second mating guard plate, thus changing the center position of the second mating guard plate. At this point, the bearing falls to the upper end of the bottom mold at the screen position. Then, the first hydraulic cylinder operates, extending and retracting on the annular sleeve, pressing and limiting the bearing and screen. Finally, the top is welded, thereby achieving the goal of overall automated production.

[0018] The beneficial effects of this invention are:

[0019] First, this invention, through the setting of a clamping device, can limit and clamp the flange and the screen, the bottom mold can bear the screen, and at the same time, the rotary drive device can drive the pinion to rotate, thereby driving the bottom mold to rotate and connect, the mounting base plate to bear the overall load, and the hydraulic main pipeline enables the hydraulic drive of the clamping device to work, so that the clamping device can rotate and perform clamping operation.

[0020] Second, this invention facilitates bearing loading by setting up the main connecting component. The bearing is transmitted to the side of the guide frame, driving the second lead screw to rotate, changing the position of the sliding block and the flip push shaft. Then, the motor on the flip push shaft drives the flip push shaft to rotate, which can push the bearing to move. At the same time, the second hydraulic cylinder can drive the push seat block to change its position, driving the entire linkage frame to move. When the bearing contacts the upper end of the main matching control component, it is convenient to push the material, realizing automated bearing transmission. At the same time, the setting of the main matching control component facilitates the docking of the upper bearing. The first matching guard plate can be symmetrically separated by stretching the shaft frame, thereby achieving better bearing descent. Moreover, the flare size can be adjusted according to the position of the rotating gear shaft, making the device more adaptable to installation. Attached Figure Description

[0021] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0022] Figure 1 This is a three-dimensional structural diagram of the main body from a frontal perspective in this invention;

[0023] Figure 2 This is a schematic diagram of the structure of the second embodiment of the main body in this invention;

[0024] Figure 3 This is a frontal perspective three-dimensional structural diagram of the paired combination structure in this invention;

[0025] Figure 4 This is a frontal perspective three-dimensional structural diagram of the combined connecting component in this invention;

[0026] Figure 5 This is a three-dimensional structural diagram of the combined connecting component from the left side view in this invention;

[0027] Figure 6 This is a frontal perspective three-dimensional structural diagram of the docking and assembly mechanism in this invention;

[0028] Figure 7 This is a split view of the adjustment part in this invention;

[0029] Figure 8 This is a split diagram of the conductive module in this invention;

[0030] Figure 9 This is a frontal perspective three-dimensional structural diagram of the main connected component in this invention.

[0031] Figure 10 This is a three-dimensional structural diagram of the front view of the main control component in this invention;

[0032] Figure 11This is a three-dimensional structural diagram of the front view of the main component in this invention.

[0033] In the diagram: 2-Bottom mold, 4-Rotating table, 5-Rotating drive device, 501-Pinary gear, 7-Clamping device, 8-Hydraulic main pipeline, 103-Mounting base plate, 10-Matching combination structure, 11-Support frame, 12-Telescopic motor, 13-Telescopic connecting plate, 14-Combined connecting component, 15-Limiting side frame, 16-Support frame seat, 17-Dating combination mechanism, 18-Bearing column, 19-First lead screw, 20-Displacement frame, 21-Adjusting part, 22-Matching transmission module, 23-Positioning main frame, 24-Annular sleeve, 25-First hydraulic... 26-Push-through connecting main component, 27-Matching and adjusting main component, 28-Second hydraulic cylinder, 29-Tilting push shaft, 30-Sliding connecting block, 31-Second lead screw, 32-Guide frame, 33-Linkage frame, 34-Limiting frame plate, 35-Push seat block, 36-Adjusting main component, 37-Tension shaft frame, 38-Tension seat, 39-First mating guard plate, 40-Telescopic guide rod frame, 41-Second mating guard plate, 42-Rotating gear shaft, 43-Third lead screw, 44-Limiting guide block, 45-Fourth lead screw, 46-Limiting frame, 47-Motor. Detailed Implementation

[0034] To enable those skilled in the art to better understand the present application, the technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present application, and not all embodiments. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art without creative effort should fall within the scope of protection of the present application.

[0035] It should be noted that the terms "first," "second," etc., in the specification, claims, and accompanying drawings of this application are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence. It should be understood that such data can be interchanged where appropriate for the embodiments of this application described herein. Furthermore, the terms "comprising" and "having," and any variations thereof, are intended to cover non-exclusive inclusion; for example, a process, method, system, product, or apparatus that comprises a series of steps or units is not necessarily limited to those steps or units explicitly listed, but may include other steps or units not explicitly listed or inherent to such processes, methods, products, or apparatus.

[0036] The invention will be further described below with reference to the accompanying drawings.

[0037] Example 1

[0038] like Figure 1As shown, an automated production tapered mesh flange clamping structure of the present invention includes a mounting base plate 103. The lower end of the mounting base plate 103 is provided with a hydraulic main pipe 8. The upper end of the hydraulic main pipe 8 is connected to a clamping device 7. The outer end of the clamping device 7 is limited and connected to a rotating table 4. The top of the rotating table 4 is fixedly connected to a bottom mold 2. A rotation drive device 5 is installed on the left side of the rotating table 4. The lower end of the rotation drive device 5 is driven and connected to a pinion 501.

[0039] The working principle of Example 1 is as follows: When in use, the bearing is placed at the lower end of the bottom mold 2, the screen is installed on the bearing, and the rotary drive device 5 is driven to work. The rotary drive device 5 drives the pinion 501 to rotate, so that the connected rotary table 4 rotates. At the same time, the hydraulic main pipe 8 is connected to the clamping device 7, and the clamping device 7 is controlled to rotate, so that the bearing and the screen are pressed together. Through the rotation of the rotary table 4, in conjunction with the external welding device, the bottom welding production work is carried out.

[0040] Example 2

[0041] Based on Example 1, such as Figure 1 , Figure 2 , Figure 3 As shown, a pairing assembly structure 10 is fixedly connected to the upper end of the mounting base plate 103. The pairing assembly structure 10 includes a support frame 11, a telescopic motor 12, a telescopic connecting plate 13, and a combination connecting component 14. The support frame 11 is fixedly connected to the upper end of the combination connecting component 14. The telescopic motor 12 is installed at the center of the support frame 11. The telescopic connecting plate 13 is telescopically connected to the lower end of the telescopic motor 12.

[0042] like Figure 4 , Figure 5 As shown, the combined connecting component 14 includes a limiting side frame 15 and a support frame 16. The upper end of the support frame 16 is fixedly connected to the limiting side frame 15. The combined connecting component 14 also includes a docking and combining mechanism 17 and a bearing column 18. The bearing column 18 is fixedly connected to the center of the support frame 16. The docking and combining mechanism 17 and the limiting side frame 15 are limited and slidably configured.

[0043] like Figure 6 , Figure 7As shown, the docking assembly mechanism 17 includes a first lead screw 19, a displacement frame 20, and an adjustment part 21. The upper end of the adjustment part 21 is limited and connected to the displacement frame 20. Both the front and rear ends of the displacement frame 20 are threadedly connected to the first lead screw 19. The adjustment part 21 includes a mating transmission module 22, a positioning main frame 23, an annular sleeve 24, and a first hydraulic cylinder 25. The lower end of the mating transmission module 22 is provided with the positioning main frame 23. The center of the positioning main frame 23 is fixedly connected to the annular sleeve 24. Both the left and right ends of the annular sleeve 24 are provided with first hydraulic cylinders 25. The first lead screw 19 and the displacement frame 20 limit each other. Driven by the first lead screw 19, the displacement frame 20 can be moved and adjusted in the limited state.

[0044] like Figure 8 As shown, the cooperating transmission module 22 includes a derivation and connection main component 26 and a cooperating control main component 27, with the lower end of the derivation and connection main component 26 fixedly connected to the cooperating control main component 27.

[0045] like Figure 9 As shown, the main connecting component 26 includes a second hydraulic cylinder 28, a tilting push shaft 29, a sliding connecting block 30, a second lead screw 31, a guide frame 32, a linkage frame 33, a limiting frame plate 34, and a pushing seat block 35. The right end of the second hydraulic cylinder 28 is telescopically connected to the pushing seat block 35, and the lower end of the pushing seat block 35 is slidably connected to the limiting frame plate 34. The bottom of the pushing seat block 35 is fixedly connected to the linkage frame 33, and the lower end of the linkage frame 33 is fixedly connected to the guide frame 32. The right side of the guide frame 32 is rotatably connected to the second lead screw 31, and the upper end of the second lead screw 31 is threadedly connected to the sliding connecting block 30. The upper end is rotatably connected to a tilting push shaft 29, a second hydraulic cylinder 28, a sliding connecting block 30, a second lead screw 31, a guide frame 32, a linkage frame 33, a limit frame 34, and a push seat block 35. This combination improves the transmission of the automated bearing. The tilting push shaft 29 can rotate relative to the sliding connecting block 30, causing the tilting push shaft 29 to push the bearing to move, so that the bearing is disengaged from the upper end of the guide frame 32. The drive of the second hydraulic cylinder 28 can change the position of the push seat block 35, so that through the transmission of the linkage frame 33, it acts on the guide frame 32, driving the guide frame 32 to adjust its position.

[0046] like Figure 10As shown, the main control component 27 includes an adjustment component 36, a tension shaft bracket 37, a tension seat 38, a first mating guard plate 39, a telescopic guide rod bracket 40, and a second mating guard plate 41. The upper end of the first mating guard plate 39 is fixedly connected to the tension seat 38, and the upper end of the tension seat 38 is telescopically connected to the second mating guard plate 41 through the telescopic guide rod bracket 40. The left side of the tension seat 38 is fixedly connected to the tension shaft bracket 37. The adjustment component 36 is located at the upper end of the tension shaft bracket 37. The arrangement of the adjustment component 36, tension shaft bracket 37, tension seat 38, first mating guard plate 39, telescopic guide rod bracket 40, and second mating guard plate 41 facilitates mating control. The adjustment component 36 provides a drive to limit the tension shaft bracket 37, tension seat 38, and first mating guard plate 39 on the adjustment component 36, allowing the symmetrically arranged tension shaft bracket 37, tension seat 38, and first mating guard plate 39 to be separated.

[0047] like Figure 11 As shown, the main adjusting component 36 includes a rotating gear shaft 42, a third lead screw 43, a limiting guide block 44, a fourth lead screw 45, a limiting frame 46, and a motor 47. The motor 47 is installed on the rear side of the upper end inside the main adjusting component 36. The lower end of the motor 47 is fixedly connected to the fourth lead screw 45. The limiting frame 46 is threadedly connected to the fourth lead screw 45. The front end of the limiting frame 46 is slidably connected to the limiting guide block 44. The rotating gear shaft 42 is provided near the limiting guide block 44 in the limiting frame 46. The center of the rotating gear shaft 42 is fixedly connected to the third lead screw 43.

[0048] The tension shaft bracket 37 is threadedly connected to the third lead screw 43. The limit frame 46 causes the rotating gear shaft 42 to rotate by displacement on the limit guide block 44, which in turn drives the third lead screw 43 to rotate.

[0049] A method for using an automated production tapered mesh flange clamping structure includes the following steps:

[0050] S1. First, the bearing is transferred to the upper end of the guide frame 32. Then, the second lead screw 31 is started and rotated, which drives the flip push shaft 29 and the sliding connecting block 30 to move in a limited state. Then, the flip push shaft 29 can be rotated by the drive, so that the flip push shaft 29 is connected to the bearing.

[0051] S2. Then, start the second lead screw 31. The second lead screw 31 rotates, driving the flip push shaft 29 and the sliding connecting block 30 to move in the limited state. Then, the flip push shaft 29 can be driven to rotate, so that the flip push shaft 29 is connected to the bearing. Then, the user controls the push seat block 35 to extend and retract through the second hydraulic cylinder 28, so that the push seat block 35 drives the guide frame 32 to move. With the push of the flip push shaft 29, the bearing reaches the upper end of the second mating guard plate 41.

[0052] S3. Finally, the user drives the motor 47 to work, causing the fourth lead screw 45 to rotate, which in turn causes the limit frame 46 to adjust its displacement. This, in turn, causes the rotating gear shaft 42 to rotate on the limit guide block 44, causing the third lead screw 43 to rotate as well. The rotation of the third lead screw 43 causes the tension shaft frame 37 to move laterally, causing the first mating guard plate 39, the tension seat 38, the telescopic guide rod frame 40, and the second mating guard plate 41 to separate and change the center position of the second mating guard plate 41. At this time, the bearing falls to the upper screen position of the bottom mold 2. Then, the first hydraulic cylinder 25 works, extending and retracting on the annular sleeve 24, which presses and limits the bearing and the screen. After that, the top is welded, thus achieving the goal of overall automated production.

[0053] The working principle of Example 2 is as follows: The paired combination structure 10 is installed on the upper part of the mounting base plate 103. The support frame 11 and the combined connecting component 14 are fixed. The telescopic motor 12 can control the telescopic connecting plate 13 to extend and retract for easy maintenance. The support frame 16 and the bearing column 18 are connected to the bottom of the combined connecting component 14 to achieve the bearing function. At the same time, the first lead screw 19 can be driven by the motor to drive the displacement frame 20 to change its position. The limiting side frame 15 realizes the movement limit of the displacement frame 20, so that the displacement frame 20 can perform longitudinal linear movement. The second hydraulic cylinder 28 and the limiting frame 34 are fixed on the support frame 11 to realize the limiting function. When the user uses it, the bearing is transmitted to the upper end of the guide frame 32, and then the second lead screw 31 is started. The second lead screw 31 rotates, driving the flip push shaft 29 and the sliding connecting block 30 to move in the limited state. Then, it can be driven to make the flip push shaft 29 rotate, so that the flip push shaft 29 is connected to the bearing. Then the user uses the second hydraulic cylinder 28 to drive the displacement frame 32 to change its position. Cylinder 28 controls the extension and retraction of the push block 35, causing the push block 35 to move the guide frame 32. Combined with the movement of the flip push shaft 29, the bearing reaches the upper end of the second mating guard plate 41. Then, the user can drive the motor 47 to rotate the fourth lead screw 45, causing the limit frame 46 to adjust its displacement. Simultaneously, the rotating gear shaft 42 rotates on the limit guide block 44, causing the third lead screw 43 to rotate as well. The rotation of the third lead screw 43 causes the tension shaft frame 37 to move laterally, separating the first mating guard plate 39, tension seat 38, telescopic guide frame 40, and second mating guard plate 41, changing the center position of the second mating guard plate 41. This causes the bearing to fall to the upper screen position of the bottom mold 2. Then, the first hydraulic cylinder 25 operates, extending and retracting on the annular sleeve 24, pressing and limiting the bearing against the screen. Finally, the top is welded, achieving overall automated production.

[0054] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An automated production method for a tapered mesh flange clamping structure, comprising a mounting base plate (103), characterized in that: The lower end of the mounting base plate (103) is provided with a hydraulic main pipe (8), the upper end of the hydraulic main pipe (8) is connected to a clamping device (7), the outer end of the clamping device (7) is limited and connected to a rotating table (4), the top of the rotating table (4) is fixedly connected to a bottom mold (2), a rotating drive device (5) is installed on the left side of the rotating table (4), and the lower end of the rotating drive device (5) is driven and connected to a small gear (501). The upper end of the mounting base plate (103) is fixedly connected to a pairing combination structure (10). The pairing combination structure (10) includes a support frame (11), a telescopic motor (12), a telescopic connecting plate (13), and a combination connecting component (14). The upper end of the combination connecting component (14) is fixedly connected to the support frame (11). The center of the support frame (11) is equipped with a telescopic motor (12). The lower end of the telescopic motor (12) is telescopically connected to the telescopic connecting plate (13). The combined connecting component (14) includes a limiting side frame (15) and a support frame (16). The upper end of the support frame (16) is fixedly connected to the limiting side frame (15). The combined connecting component (14) also includes a docking combination mechanism (17) and a bearing column (18). The bearing column (18) is fixedly connected to the center of the support frame (16). The docking combination mechanism (17) and the limiting side frame (15) are limited and slidably arranged. The docking assembly mechanism (17) includes a first lead screw (19), a displacement frame (20), and an adjustment part (21). The upper end of the adjustment part (21) is limitedly connected to the displacement frame (20). Both the front and rear ends of the displacement frame (20) are threadedly connected to the first lead screw (19). The adjustment part (21) includes a mating transmission module (22), a positioning main frame (23), an annular sleeve (24), and a first hydraulic cylinder (25). The lower end of the mating transmission module (22) is provided with the positioning main frame (23). The center of the positioning main frame (23) is fixedly connected to the annular sleeve (24). Both the left and right ends of the annular sleeve (24) are provided with the first hydraulic cylinder (25). The coordination and transmission module (22) includes a derivation and connection main component (26) and a coordination and control main component (27), and the lower end of the derivation and connection main component (26) is fixedly connected to the coordination and control main component (27); The main push-connecting component (26) includes a second hydraulic cylinder (28), a flip push shaft (29), a sliding connecting block (30), a second lead screw (31), a guide frame (32), a linkage frame (33), a limiting frame (34), and a push seat block (35). The right end of the second hydraulic cylinder (28) is telescopically connected to the push seat block (35). The lower end of the push seat block (35) is slidably connected to the limiting frame (34). The bottom of the push seat block (35) is fixedly connected to the linkage frame (33). The lower end of the linkage frame (33) is fixedly connected to the guide frame (32). The right side of the guide frame (32) is rotatably connected to the second lead screw (31). The upper end of the second lead screw (31) is threadedly connected to the sliding connecting block (30). The upper end of the sliding connecting block (30) is rotatably connected to the flip push shaft (29). The main control component (27) includes an adjustment component (36), a tension shaft frame (37), a tension seat (38), a first mating guard plate (39), a telescopic guide rod frame (40), and a second mating guard plate (41). The upper end of the first mating guard plate (39) is fixedly connected to the tension seat (38). The upper end of the tension seat (38) is telescopically connected to the second mating guard plate (41) through the telescopic guide rod frame (40). The left side of the tension seat (38) is fixedly connected to the tension shaft frame (37). The adjustment component (36) is located at the upper end of the tension shaft frame (37). The main adjusting component (36) includes a rotating gear shaft (42), a third lead screw (43), a limiting guide block (44), a fourth lead screw (45), a limiting frame (46), and a motor (47). The motor (47) is installed on the rear side of the upper end inside the main adjusting component (36). The lower end of the motor (47) is fixedly connected to the fourth lead screw (45). The limiting frame (46) is threadedly connected to the fourth lead screw (45). The front end of the limiting frame (46) is slidably connected to the limiting guide block (44). The rotating gear shaft (42) is provided near the limiting guide block (44) of the limiting frame (46). The center of the rotating gear shaft (42) is fixedly connected to the third lead screw (43).

2. The tapered mesh flange clamping structure for automated production according to claim 1, characterized in that: The tensioning shaft bracket (37) is threadedly connected to the third lead screw (43). The limiting frame (46) causes the rotating gear shaft (42) to rotate by displacement on the limiting guide block (44), thereby driving the third lead screw (43) to rotate.

3. A method for using an automated production tapered mesh flange clamping structure, employing the automated production tapered mesh flange clamping structure described in claim 2, characterized in that... It includes the following steps: S1. First, the bearing is transferred to the upper end of the guide frame (32). Then, the second lead screw (31) is started. The second lead screw (31) rotates, driving the flip push shaft (29) and the sliding block (30) to move in a limited state. Then, the flip push shaft (29) can be rotated by the drive, so that the flip push shaft (29) is connected to the bearing. S2. Then, start the second lead screw (31). The second lead screw (31) rotates, driving the flip push shaft (29) and sliding connecting block (30) to move in the limit state. Then, the flip push shaft (29) can be driven to rotate, so that the flip push shaft (29) is connected to the bearing. Then, the user controls the push block (35) to extend and retract through the second hydraulic cylinder (28), so that the push block (35) drives the guide frame (32) to move. With the push of the flip push shaft (29), the bearing reaches the upper end of the second mating guard plate (41). S3. Finally, the user drives the motor (47) to work, so that the motor (47) drives the fourth lead screw (45) to rotate, so that the limit frame (46) is displaced and adjusted, and the rotating gear shaft (42) is driven to rotate on the limit guide block (44) in sync, so that the third lead screw (43) follows and rotates. The rotation of the third lead screw (43) causes the tension shaft frame (37) to move laterally, so that the first mating guard plate (39), the tension seat (38), the telescopic guide rod frame (40), and the second mating guard plate (41) are separated and the center position of the second mating guard plate (41) is changed. At this time, the bearing falls and reaches the upper screen position of the bottom mold (2). Then the first hydraulic cylinder (25) works and extends and retracts on the annular sleeve frame (24), so that the first hydraulic cylinder (25) presses and limits the bearing and the screen. Then the top is welded, thereby achieving the overall automated production purpose.

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