Post-processing device for processing diaphragm blank of flexible coupling

Abstract

The invention provides a post-processing device for processing a diaphragm blank of a flexible coupling, and relates to a post-processing structure, the post-processing device comprises a stacking unit and a carrying unit, the stacking unit comprises a bottom plate, a bottom support, a top plate and a rotating plate, the bottom plate is installed at the driving end of the carrying unit, the bottom support is installed on the bottom plate, and a set of electric rotating discs are connected to the bottom support through a top cylinder; a center rotating shaft of the electric rotating disc penetrates through the top plate in a rotating mode to be connected to the rotating plate, the rotating plate is arranged on the top plate in a rotating mode, the top plate is further provided with a guide rod connected into the bottom support in a guiding mode, and the top cylinder is used for driving the top plate and the rotating plate to synchronously ascend and descend in the guide direction of the guide rod through the electric rotating disc. By means of the membrane blank collecting device, membrane blanks can be collected in batches in order to be subjected to soaking cleaning and drying operation in aftertreatment, meanwhile, the operated membrane blanks can be automatically and orderly stacked on a conveying line, the cleaning effect and the cleaning efficiency are good, and more time and labor are saved.

Description

Technical Field

[0001] The invention relates to a post-processing structure, in particular to a post-processing device for processing a diaphragm blank of a flexible coupling. Background Art

[0002] Diaphragm couplings, also known as laminated flexible couplings, are gaining widespread application in various industries due to their advantages, such as lubrication-free operation, high-temperature resistance, and strong environmental adaptability. The diaphragm structure is shown in the patented "A New Diaphragm Assembly Structure for High-Speed ​​Couplings" (Announcement No. CN205956238U). After the diaphragm blanks are heat-treated and formed, they are generally subjected to post-processing operations such as soaking, cleaning, and air-drying. However, in existing processing procedures, the diaphragm blanks inevitably stack during soaking and cleaning, affecting the cleaning effect. The picking operation during soaking is also laborious and time-consuming. If a conveyor line is used for cleaning by scraping with a brush, as shown in the patented "A Diaphragm Cleaning Device for a Washing Machine" (Announcement No. CN214718675U), individual products must be continuously flipped over, and side cleaning of the diaphragms is also limited. Furthermore, to improve the cleaning effect, individual diaphragms must be flipped over one by one, which is time-consuming and labor-intensive, resulting in poor cleaning efficiency and effectiveness. Summary of the Invention

[0003] In order to solve the above technical problems, the purpose of the present invention is to provide a post-processing device for processing diaphragm blanks for flexible couplings, which can collect diaphragm blanks in batches and neatly for soaking, cleaning and drying operations in post-processing. At the same time, the diaphragm blanks after operation can also be automatically and neatly stacked on the conveyor line, with better cleaning effect and efficiency, and more time-saving and labor-saving.

[0004] The present invention provides the following technical solutions: A post-processing device for processing diaphragm blanks of flexible couplings, comprising a stacking unit for stacking diaphragms and a transport unit for transporting the stacking unit between an input conveyor line, an immersion tank, an ultrasonic cleaning tank, a drying box and an output conveyor line for transitional transmission, wherein the stacking unit comprises a bottom plate, a bottom support, a top plate and a turntable, wherein the bottom plate is mounted on the driving end of the transport unit, the bottom support is mounted on the bottom plate, a group of electric turntables are connected to the bottom support through a top cylinder, the central rotating shaft of the electric turntable is transferred through the top plate and connected to the turntable, and the turntable is placed on the top plate for transfer. The top plate is provided with a guide rod connected to the bottom support, and the top cylinder is used to drive the top plate and the rotating plate to rise and fall synchronously along the guide direction of the guide rod through the electric turntable. A plurality of groups of coding columns are evenly distributed around the rotation center on the rotating plate. The coding columns are used to receive and set the diaphragms sequentially delivered to the position by the input conveyor line, and are turned 180 degrees under the drive of the transport unit and placed in the soaking liquid tank, ultrasonic cleaning tank and drying box in turn for corresponding soaking, ultrasonic cleaning and drying operations, and are shifted to the top of the output conveyor line after drying to carry out the diaphragm discharge operation; At this point, the collection of diaphragms by the input conveyor line can be completed in batches and in an orderly manner. After collection, they are transported to the soaking liquid tank, ultrasonic cleaning tank, and drying box in sequence for corresponding soaking, ultrasonic cleaning and drying operations. At the same time, the diaphragm blanks after operation can also be automatically and neatly stacked on the conveyor line, with good cleaning effect and efficiency, and more time-saving and labor-saving.

[0005] Preferably, there are multiple layers of spacer blocks distributed axially in the coding column, and the spacer blocks are used to receive the membrane sleeved along the axial direction after extending from the coding column, and only one group of membrane is placed between two adjacent groups of spacer blocks. At this point, when receiving the material, the membrane transported on the belt of the input conveyor line can be inserted into the coding column after reaching the tail end, and supported by the spacer blocks extending from bottom to top in sequence from the coding column. After one group of coding columns has completed receiving, the turn plate is started to rotate so that the next group of coding columns rotates to the tail end of the input conveyor line belt until the coding columns on the turn plate have completed receiving the material. It can then be driven by the conveying unit and turned 180° and placed in the soaking liquid tank, ultrasonic cleaning tank, and drying box in sequence for corresponding soaking, ultrasonic cleaning and drying operations, and after drying is completed, it is shifted to the top of the output conveyor line for the membrane unloading operation. When unloading, it is only necessary to extend the corresponding spacer blocks into the coding columns in sequence, so that the membrane can be dropped onto the belt of the output conveyor line in sequence.

[0006] Preferably, each layer of the spacer blocks along the axial direction of the material coding column is provided with two groups of symmetrically distributed, and a group of center slots are further provided in the center of the material coding column, and a corresponding guide slot connected to the outside of the spacer block is further provided in the material coding column, and the spacer slot and the center slot are through-set, and a compression spring for pressing the spacer block into the center slot is further provided in the spacer slot, and when the two groups of spacer blocks on each layer are pressed and positioned in the center slot, the end of the spacer block retracts into the spacer slot, and the rotating plate is installed with a push cylinder through the mounting bracket corresponding to the bottom of the material coding column, and the push cylinder The driving end is connected to a group of push rods, which pass through the rotating plate and are introduced into the central slot. The ends of the push rods are also provided with pointed sliding surfaces on both sides, and the two groups of spacer blocks on each layer are also provided with inclined surfaces corresponding to the sliding surfaces on the opposite side. When the push rods are extended into the central slot, they are used to push the spacer blocks through the abutment of the sliding surfaces and the inclined surfaces to compress the compression spring to extend the material stacking column, and in the process of pushing the push cylinder, the spacer blocks are extended one by one. At this point, a group of material stacking columns only needs one group of push cylinders to complete the support spacing of each layer of diaphragm. The structure is relatively simple and maintenance is also relatively convenient.

[0007] Preferably, the end of the material-stacking column is further provided with a truncated cone-shaped guide end, so that when the material-stacking column rotates to the tail end of the input conveyor line, the delivered diaphragm is placed on the guide end and continues to move so that the center hole of the diaphragm is sleeved on the guide end and the center position can be automatically adjusted under the guidance of the conical surface; When receiving the material, the material stacking column is transferred to the tail end of the input conveyor line. After the center hole of the diaphragm transported by the input conveyor line belt moves onto the material stacking column, the top plate pushes the material stacking column up to realize the installation of the diaphragm. At the same time, the turn plate drives the material stacking column to rotate in the opposite direction, so that the diaphragm placed at the tail end of the input conveyor line is completely separated from the belt. At this time, the diaphragm can fall freely along the material stacking column to the protruding spacer block, and then the turn plate is rotated forward to make the material stacking column transferred to the tail end of the input conveyor line again to take over the next group of diaphragms. The cycle is repeated so that the diaphragms are placed on the upper layer of the corresponding material stacking column. After each layer of the material stacking column has taken over the diaphragm, the turn plate is continued to rotate to transfer the next group of material stacking columns to the tail end of the input conveyor line.

[0008] Preferably, the transport unit includes a rotating shaft connected to the base plate, a mounting block installed outside the rotating shaft, a circle of outer gear ring is also provided outside the rotating shaft, and a group of flipping motors are installed on the mounting block. The driving end of the flipping motor is engaged with the outer gear ring through the driving wheel. At this point, by starting the flipping motor, the coding unit can be driven to flip 180° through the base plate.

[0009] Preferably, the transport unit also includes a slide installed on the bottom side of the mounting block, the slide is slidably mounted on the ground rail, and is driven by a screw rod on the ground rail to move back and forth in a straight line between the input conveyor line, the soaking liquid tank, the ultrasonic cleaning tank, the drying box and the output conveyor line.

[0010] Preferably, when the slide plate drives the rotary plate to move above the output conveyor line, the coding columns are sequentially aligned at the ends of the output conveyor line under the rotation drive of the rotary plate.

[0011] Preferably, a group of transition cylinders are also provided at the end of the output conveyor line, and the material-stacking columns are replaced and positioned in sequence above the transition cylinders under the rotation drive of the turn plate. The transition cylinders are driven to rise and fall by the transition cylinders, so that they are used to be sleeved outside the material-stacking columns when the material-stacking columns move to above the transition cylinders, and to support the diaphragms when the spacer blocks are retracted into the material-stacking columns, so that the diaphragms on the top layer will not fall freely from a large height onto the output conveyor line when they fall. After supporting the diaphragms, the transition cylinders are driven by the transition cylinders to descend to align with the output conveyor line, and part of the diaphragms are also placed on the belt of the output conveyor line. When the output conveyor line is started, the diaphragms can be driven to detach from the transition cylinders.

[0012] Preferably, in order to achieve a more stable transition, a group of right-angled push plates are also provided on one side of the transition cylinder, the bottom end of the push plate is connected to the side plate of the transition cylinder along the horizontal guide, and a group of screw rods 2 driven by a screw motor are also mounted on the side plate, and the screw rods 2 are used to drive the push plates to push the diaphragm to the output conveyor line.

[0013] The beneficial effects of the present invention are as follows: the post-processing device for processing diaphragm blanks for flexible couplings provided by the present invention can complete the collection of diaphragms from the input conveyor line in batches and in an orderly manner, and after collection, it can be sequentially transported to the soaking liquid tank, ultrasonic cleaning tank, and drying box for corresponding soaking, ultrasonic cleaning and drying operations. At the same time, the diaphragm blanks after operation can also be automatically and neatly stacked on the conveyor line, with good cleaning effect and efficiency, and more time and labor saving. When receiving the material, the material stacking column is transferred to the tail end of the input conveyor line. After the center hole of the diaphragm transported by the input conveyor line belt moves onto the material stacking column, the material stacking column is pushed up by the top plate to realize the installation of the diaphragm. At the same time, the material stacking column is driven to rotate in the opposite direction by the turn plate, so that the diaphragm placed at the tail end of the input conveyor line is completely separated from the belt. At this time, the diaphragm can fall freely along the material stacking column to the extended spacer block, and then the turn plate is rotated forward again, so that the material stacking column is transferred to the tail end of the input conveyor line again to receive the next group of diaphragms. This cycle is repeated so that the diaphragms are placed on the upper layer of the corresponding material stacking column. After each layer of the material stacking column has received the diaphragm, the turn plate is continued to rotate to transfer the next group of material stacking columns to the tail end of the input conveyor line. When receiving the material, the diaphragm transported on the belt of the input conveyor line can be inserted into the material stacking column after reaching the tail end, and supported by the spacer blocks that extend from the bottom to the top of the material stacking column. After one group of material stacking columns has completed the receiving, the turn plate is started to rotate, so that the next group of material stacking columns rotates to the tail end of the input conveyor line belt until the material stacking columns on the turn plate have completed the material receiving. It can then be driven by the transport unit and turned 180° to be placed in the soaking liquid tank, ultrasonic cleaning tank, and drying box in turn for corresponding soaking, ultrasonic cleaning and drying operations. After drying is completed, it is shifted to the top of the output conveyor line for the diaphragm unloading operation. When unloading, it is only necessary to extend the corresponding spacer blocks into the material stacking column in turn, so that the diaphragm can be dropped onto the belt of the output conveyor line in turn. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings: Figure 1 This is a cross-sectional view of the structure of the present invention when it is connected to the input conveyor line; Figure 2 This is a cross-sectional view of the structure when the stacking column receives the input conveyor line; Figure 3 It is a structural diagram of the distribution of the material columns on the rotating plate; Figure 4 This is a structural diagram of the stacking column when it is turned 180 degrees to align with the transition cylinder; Figure 5 This is a structural diagram of the transition cylinder receiving the diaphragm alignment output conveying line; Markings in the figure: 1. Diaphragm; 2. Stacking unit; 3. Input conveyor line; 4. Output conveyor line; 5. Transport unit; 6. Transition cylinder; 7. Push plate; 8. Screw rod 2; 9. Side plate; 10. Transition cylinder; 21. Bottom plate; 22. Bottom support; 23. Top plate; 24. Turntable; 25. Push cylinder; 26. Electric turntable; 27. Guide rod; 28. Stacking column; 281. Spacer block; 282. Center slot; 283. Spacer slot; 284. Compression spring; 285. Push cylinder; 286. Push rod; 287. Sliding surface; 288. Inclined surface; 289. Guide end; 51. Rotating shaft; 52. Flip motor; 53. Driving wheel; 54. Outer gear ring; 55. Slide plate; 56. Ground rail; 57. Screw rod 1. DETAILED DESCRIPTION

[0015] Example 1 like Figure 1-5As shown, a post-processing device for processing diaphragm blanks of flexible couplings, in this embodiment, includes a stacking unit 2 for stacking diaphragms 1 and a transport unit 5 for transporting the stacking unit 2 between an input conveyor line 3, an immersion tank, an ultrasonic cleaning tank, a drying box and an output conveyor line 4 for transitional transmission. The stacking unit 2 includes a bottom plate 21, a bottom support 22, a top plate 23 and a rotating plate 24. The bottom plate 21 is mounted on the driving end of the transport unit 5, the bottom support 22 is mounted on the bottom plate 21, and a group of electric turntables 26 are connected to the bottom support 22 through a top cylinder 25. The central rotating shaft 51 of the electric turntable 26 is transferred through the top plate 23 and connected to the rotating plate 24. The rotating plate 24 It is placed on the top plate 23 for transfer, and the top plate 23 is also provided with a guide rod 27 connected to the bottom support 22. The top cylinder 25 is used to drive the top plate 23 and the rotating plate 24 to rise and fall synchronously along the guide direction of the guide rod 27 through the electric turntable 26. There are multiple groups of coding columns 28 evenly distributed around the rotation center on the rotating plate 24. The coding columns 28 are used to receive and set the diaphragms 1 delivered to the position in sequence by the input conveyor line 3, and are turned 180 degrees under the drive of the transport unit 5 and placed in the soaking liquid tank, ultrasonic cleaning tank and drying box in sequence for corresponding soaking, ultrasonic cleaning and drying operations. After drying, they are shifted to the top of the output conveyor line 4 for the discharge operation of the diaphragm 1. At this point, the collection of the diaphragms 1 by the input conveyor line 3 can be completed in batches and in an orderly manner, and after collection, they are transported to the soaking liquid tank, ultrasonic cleaning tank, and drying box in sequence for corresponding soaking, ultrasonic cleaning and drying operations. At the same time, the diaphragm blanks 1 after operation can also be automatically and neatly stacked on the conveyor line, with good cleaning effect and efficiency, and more time-saving and labor-saving.

[0016] There are multiple layers of spacer blocks 281 distributed along the axial direction in the stocking column 28. After the spacer blocks 281 extend from the stocking column 28, they are used to receive the diaphragm 1 that is sleeved in the axial direction. There is only one group of diaphragm 1 between two adjacent groups of spacer blocks 281. So far, when receiving the material, the diaphragm 1 transported on the belt of the input conveyor line 3 can be sleeved into the stocking column 28 after reaching the tail end. The spacer blocks 281 that extend from the bottom to the top of the stocking column 28 support the stocking column 28 at intervals. After one group of stocking columns 28 are completed, the rotating plate 24 is started to rotate so that the next group of stocking columns 28 rotates to the tail end of the belt of the input conveyor line 3 until the material-receiving columns 28 on the turn plate 24 have completed the material collection. Then, it can be driven by the transport unit 5 and turned 180° to be placed in the soaking liquid tank, ultrasonic cleaning tank, and drying box in turn for the corresponding soaking, ultrasonic cleaning and drying operations. After the drying is completed, it is shifted to the top of the output conveyor line 4 to carry out the discharge operation of the diaphragm 1. When discharging the material, it is only necessary to extend the corresponding spacer blocks 281 into the material-receiving columns 28 in turn, so that the diaphragm 1 can be dropped onto the belt of the output conveyor line 4 in turn.

[0017] Each layer of the stock column 28 along the axial direction is provided with two groups of symmetrically distributed spacers 281. A group of center slots 282 is also provided in the center of the stock column 28. A corresponding guide slot 283 connected to the outside of the spacer block 281 is also provided in the stock column 28. The spacer slot 283 is connected with the center slot 282. A compression spring 284 is also provided in the spacer slot 283 for pressing the spacer block 281 into the center slot 282. When the two groups of spacer blocks 281 of each layer are pressed and positioned in the center slot 282, the end of the spacer block 281 retracts into the spacer slot 283. The rotating plate 24 is installed with a push cylinder 285 through the mounting bracket corresponding to the bottom of the stock column 28. The driving end of the push cylinder 285 is connected to A group of push rods 286, the push rods 286 pass through the rotating plate 24 and are introduced into the central slot 282. The ends of the push rods 286 are also provided with pointed sliding surfaces 287 on both sides. The two groups of spacer blocks 281 of each layer are also provided with inclined surfaces 288 corresponding to the sliding surfaces 287 on the opposite side. When the push rods 286 are extended into the central slot 282, they are used to push the spacer blocks 281 through the abutment of the sliding surfaces 287 and the inclined surfaces 288 to compress the compression springs 284 to extend the material stacking columns 28. In the process of pushing by the push cylinders 285, the spacer blocks 281 are extended one by one. At this point, a group of material stacking columns 28 only needs a group of push cylinders 285 to complete the support spacing of each layer of diaphragm 1. The structure is relatively simple and maintenance is also relatively convenient.

[0018] The end of the stacking column 28 is also provided with a truncated cone-shaped guide end 289. Therefore, when the stacking column 28 rotates to the end of the input conveyor line 3, the delivered diaphragm 1 is placed on the guide end 289 and continues to move so that the center hole of the diaphragm 1 is placed on the guide end 289. Then, the center position of the diaphragm 1 can be automatically adjusted under the guidance of the conical surface. When receiving the material, the coding column 28 is transferred to the tail end of the input conveyor line 3. After the center hole of the diaphragm 1 conveyed by the belt of the input conveyor line 3 moves onto the coding column 28, the top plate 23 pushes the coding column 28 to rise, and the diaphragm 1 is installed. At the same time, the rotating plate 24 drives the coding column 28 to rotate in the opposite direction, so that the diaphragm 1 placed at the tail end of the input conveyor line 3 is completely separated from the belt. At this time, the diaphragm 1 can fall freely along the coding column 28 to the protruding spacer block 281, and then the rotating plate 24 is rotated forward, so that the coding column 28 is transferred to the tail end of the input conveyor line 3 again to take over the next group of diaphragms 1. The cycle is repeated so that the diaphragms 1 are placed on the upper layer of the corresponding coding column 28. After each layer of the coding column 28 has taken over the diaphragm 1, the rotating plate 24 is continued to rotate so that the next group of coding columns 28 are transferred to the tail end of the input conveyor line 3.

[0019] The transport unit 5 includes a rotating shaft 51 connected to the base plate 21, a mounting block installed outside the rotating shaft 51, a circle of outer gear ring 54 is also provided outside the rotating shaft 51, and a set of flip motors 52 are installed on the mounting block. The driving end of the flip motor 52 is engaged with the outer gear ring 54 through the driving wheel 53. At this point, by starting the flip motor 52, the coding unit can be driven to flip 180° through the base plate 21.

[0020] The transport unit 5 also includes a slide 55 installed on the bottom side of the mounting block. The slide 55 is slidably mounted on the ground rail 56 and is driven by a screw rod 57 on the ground rail 56 to move back and forth in a straight line between the input conveyor line 3, the immersion liquid tank, the ultrasonic cleaning tank, the drying box and the output conveyor line 4.

[0021] When the slide plate 55 drives the rotary plate 24 to move above the output conveyor line 4 , the material-stack columns 28 are sequentially aligned to the ends of the output conveyor line 4 under the rotation drive of the rotary plate 24 .

[0022] Example 2 like Figure 4-5 As shown, a post-processing device for processing diaphragm blanks of flexible couplings is shown. In this embodiment, unlike Example 1, a group of transition cylinders 6 are further provided at the end of the output conveyor line 4. The material stacking columns 28 are replaced by being positioned in sequence above the transition cylinders 6 under the rotation drive of the turn plate 24. The transition cylinders 6 are driven to rise and fall by the transition cylinders 10, so that they are used to be sleeved outside the material stacking columns 28 when the material stacking columns 28 move to above the transition cylinders 6, and to support the diaphragm 1 when the spacer blocks 281 are retracted into the material stacking columns 28, so that the diaphragm 1 on the top layer will not fall freely from a large height onto the output conveyor line 4 when it falls. After supporting the diaphragm 1, the transition cylinder 6 is driven by the transition cylinder to descend to align with the output conveyor line 4, and part of the diaphragm 1 is also placed on the belt of the output conveyor line 4. When the output conveyor line 4 is started, the diaphragm 1 can be driven to separate from the transition cylinder 6.

[0023] In order to achieve a more stable transition, a group of right-angled push plates 7 are also provided on one side of the transition cylinder 6. The bottom end of the push plate 7 is connected to the side plate 9 of the transition cylinder 6 along the horizontal guide, and a group of screw rods 8 driven by a screw motor are also mounted on the side plate 9. The screw rods 2 are used to drive the push plates 7 to push the diaphragm 1 to the output conveyor line 4.

[0024] The working principle of the present invention is as follows: the post-processing device provided by the present invention for processing diaphragm blanks of flexible couplings can complete the collection of diaphragms 1 by the input conveyor line 3 in batches and in an orderly manner, and after collection, it is sequentially transported to the soaking liquid tank, ultrasonic cleaning tank, and drying box for corresponding soaking, ultrasonic cleaning and drying operations. At the same time, the diaphragm blanks 1 after operation can also be automatically and neatly stacked on the conveyor line, with good cleaning effect and efficiency, and more time and labor saving. When receiving the material, the material-stacking column 28 is transferred to the tail end of the input conveyor line 3. After the center hole of the diaphragm 1 conveyed by the belt of the input conveyor line 3 moves onto the material-stacking column 28, the top plate 23 pushes the material-stacking column 28 up to realize the sleeve of the diaphragm 1. At the same time, the material-stacking column 28 is driven to rotate in the opposite direction by the rotating plate 24, so that the diaphragm 1 placed at the tail end of the input conveyor line 3 is completely separated from the belt. At this time, the diaphragm 1 can fall freely along the material-stacking column 28 to the extended spacer block 281, and then the rotating plate 24 is rotated forward again, so that the material-stacking column 28 is transferred to the tail end of the input conveyor line 3 again to receive the next group of diaphragms 1. The cycle is repeated so that the diaphragms 1 are placed on the upper layer of the corresponding material-stacking column 28. After each layer of the material-stacking column 28 has received all the diaphragms 1, the rotating plate 24 is continued to rotate so that the next group of material-stacking columns 28 are transferred to the tail end of the input conveyor line 3. When receiving the material, the diaphragm 1 transported on the belt of the input conveyor line 3 can be inserted into the material stacking column 28 after reaching the tail end, and is supported by the spacer blocks 281 extending from bottom to top of the material stacking column 28. After one group of material stacking columns 28 completes the receiving, the turn plate 24 is started to rotate, so that the next group of material stacking columns 28 rotate to the tail end of the input conveyor line 3 belt, until the material stacking columns 28 on the turn plate 24 have completed the material receiving, and can be driven by the conveying unit 5 and turned 180° to be placed in the soaking liquid tank, ultrasonic cleaning tank, and drying box in turn for corresponding soaking, ultrasonic cleaning and drying operations, and after drying is completed, it is shifted to the top of the output conveyor line 4 for the discharge operation of the diaphragm 1. When discharging, it is only necessary to extend the corresponding spacer blocks 281 into the material stacking columns 28 in turn, so that the diaphragm 1 can be dropped onto the belt of the output conveyor line 4 in turn.

[0025] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art will be able to modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein with equivalents. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principles of the present invention shall be included within the scope of protection of the present invention.

Claims

1. A post-processing device for processing diaphragm blanks of flexible couplings, characterized in that: The utility model comprises a stacking unit for stacking diaphragms and a transport unit for transporting the stacking unit between an input conveyor line, an immersion liquid tank, an ultrasonic cleaning tank, a drying box and an output conveyor line for transition transmission. The stacking unit comprises a bottom plate, a bottom support, a top plate and a rotating plate. The bottom plate is installed at the driving end of the transport unit, the bottom support is installed at the bottom plate, a group of electric turntables are connected to the bottom support through a top cylinder, the central rotating shaft of the electric turntable is transferred through the top plate and connected to the rotating plate, the rotating plate is placed on the top plate for transfer, and the top plate is also provided with a plurality of rotating plates. A guide rod is provided which is connected to the bottom support. The top cylinder is used to drive the top plate and the rotating plate to rise and fall synchronously along the guide direction of the guide rod through an electric turntable. A plurality of coding columns are evenly distributed on the rotating plate around the rotation center. The coding columns are used to receive and position the diaphragms which are sequentially delivered to the position by the input conveyor line, and are turned 180° under the drive of the transport unit and sequentially placed in the immersion liquid tank, ultrasonic cleaning tank and drying box for corresponding immersion, ultrasonic cleaning and drying operations, and are shifted to the top of the output conveyor line after drying to perform the diaphragm discharge operation.

2. A post-processing device for processing diaphragm blanks for flexible couplings according to claim 1, characterized in that: Multiple layers of spacer blocks are distributed axially in the material stacking column. After extending from the material stacking column, the spacer blocks are used to receive diaphragms sleeved in the axial direction, and only one group of diaphragms is placed between two adjacent groups of spacer blocks.

3. A post-processing device for processing a diaphragm blank for a flexible coupling according to claim 2, characterized in that: The cam is provided with a plurality of guide rails at the center of the center slot, and the guide rails are provided with a plurality of guide rails at the center slot.

4. A post-processing device for processing diaphragm blanks for flexible couplings according to claim 3, characterized in that: The end of the material-stacking column is also provided with a truncated cone-shaped guide end.

5. The post-processing device for processing diaphragm blanks for flexible couplings according to claim 1, characterized in that: The transport unit includes a rotating shaft connected to the base plate, a mounting block installed outside the rotating shaft, a circle of outer gear ring is also provided outside the rotating shaft, a group of flip motors are installed on the mounting block, and the driving end of the flip motor is meshed and connected with the outer gear ring through a driving wheel.

6. A post-processing device for processing diaphragm blanks for flexible couplings according to claim 5, characterized in that: The transport unit also includes a slide mounted on the bottom side of the mounting block, the slide is slidably mounted on the ground rail, and is driven by a screw rod on the ground rail to move back and forth in a straight line between the input conveyor line, the soaking liquid tank, the ultrasonic cleaning tank, the drying box and the output conveyor line.

7. A post-processing device for processing a diaphragm blank for a flexible coupling according to claim 6, characterized in that: When the slide plate drives the rotating plate to move above the output conveyor line, the material-coding columns are sequentially aligned at the ends of the output conveyor line under the rotation drive of the rotating plate.

8. A post-processing device for processing diaphragm blanks for flexible couplings according to claim 7, characterized in that: A group of transition cylinders are also provided at the end of the output conveyor line. The material-stacking columns are replaced and positioned above the transition cylinders in sequence under the rotation drive of the turn plate. The transition cylinders are driven to rise and fall by the transition cylinders so that they can be sleeved outside the material-stacking columns when the material-stacking columns move above the transition cylinders, and support the diaphragm when the spacer blocks retract into the material-stacking columns.

9. A post-processing device for processing a diaphragm blank for a flexible coupling according to claim 8, characterized in that: A group of right-angled push plates are also provided on one side of the transition cylinder. The bottom end of the push plate is connected to the side plate of the transition cylinder along the horizontal guide, and a group of screw rods 2 driven by a screw motor are also mounted on the side plate. The screw rods 2 are used to drive the push plates to push the diaphragm to the output conveyor line.

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