Automatic fettling device for insulator production

Abstract

The invention discloses an automatic fettling device for insulator production, which mainly comprises a device machine table, a rotary tray mechanism, a fettling mechanism and a driving mechanism, the rotary tray mechanism is composed of a tray, a material bearing part and a first driving device, and the material bearing part forms a blank die cavity through an outer material bearing table and an inner material bearing table; the driving mechanism drives the material bearing component to rotate through a second driving device, a driving shaft and a friction wheel, the fettling mechanism comprises a longitudinal movement module and a transverse movement module, the longitudinal movement module and the transverse movement module drive an inner fettling cutter and a side fettling cutter to trim the rotating blank correspondingly, power is transmitted through a linkage assembly, and the blank is automatically lifted through the linkage assembly. According to the device, the reciprocating motion of the inner fettling cutter and the synchronous stretching and retracting of the side fettling cutter are realized, the automation degree is high, the fettling of the insulator blank can be efficiently completed, the production efficiency is improved, and the overall failure rate is low.

Description

Technical Field

[0001] This invention relates to the field of blank trimming equipment technology, specifically to an automated blank trimming equipment for insulator production. Background Technology

[0002] As an important insulating component in the power system, the production quality of insulators directly affects the safety and reliability of power equipment. In the insulator production process, blank trimming is one of the key processing steps. Its purpose is to finely trim the formed blank to ensure that the dimensional accuracy and surface quality of the blank meet the requirements of subsequent processes. The traditional insulator blank trimming process mainly relies on manual operation. That is, after the worker fixes the blank in the rotating fixture, he uses a hand-held trimming tool to cut and trim the blank. This method requires full manual participation in the blank trimming process, which is labor-intensive, requires high skills from the operators, and has low production efficiency. To address the aforementioned issues, existing technologies include automated blank trimming devices. However, common automated blank trimming equipment typically employs multiple electric or pneumatic drives, resulting in bulky equipment structures, high failure rates, and inconvenient maintenance and repair. Summary of the Invention

[0003] In view of the above-mentioned shortcomings of the existing technology, the purpose of this invention is to provide a blank repair device that reduces manpower, speeds up production efficiency, has a low failure rate, and is easy to maintain and repair.

[0004] The technical solution adopted by the present invention to achieve the above objectives is: an automated blank trimming device for insulator production, comprising a machine base, a rotating material tray mechanism, a blank trimming mechanism, and a drive mechanism. The rotating material tray mechanism is provided on the machine base. The rotating material tray mechanism includes a material tray and a material-bearing component. Multiple sets of the material-bearing components are rotatably connected in a circular array on the material tray. The drive mechanism is fixedly connected to a set of material-bearing components on the machine platform of the device, and the drive mechanism can drive the corresponding material-bearing components to rotate. The blank trimming mechanism is located on one side of the rotating material tray mechanism on the machine platform of the device. The blank trimming mechanism corresponds to a set of material receiving components. The blank trimming mechanism cooperates with the driving mechanism so that the blank trimming mechanism is driven to work by the driving mechanism.

[0005] In the above technical solution, in order to realize the work required by the rotating material tray mechanism, the rotating material tray mechanism further includes a first driving device, that is, the material tray is rotatably connected to the machine base of the device, the first driving device is fixedly connected inside the machine base of the device, and the first driving device is poweredly connected to the material tray.

[0006] In the above technical solution, the specific structure of the material-bearing component is as follows: The material-bearing component includes an outer material-bearing platform, an inner material-bearing platform, and an elastic component. The outer material-bearing platform is rotatably connected to the material tray. The top surface of the outer material-bearing platform is provided with an outer fitting groove. The outer material-bearing platform is provided with a lifting groove located in the middle of the outer fitting groove. The inner material-bearing platform is fitted inside the lifting groove. The top surface of the inner material-bearing platform is provided with an inner fitting groove. The inner fitting groove and the outer fitting groove form a blank mold groove. The elastic component is provided on the bottom surface of the outer material-bearing platform in cooperation with the inner material-bearing platform. The device platform is fixedly connected to a set of material-bearing components with guide ramps. The elastic component cooperates with the guide ramps to push the corresponding inner material-bearing platform upward.

[0007] In the above technical solution, the specific structure of the elastic component is as follows: The elastic component includes a spring, a sliding column, and a pusher platform. The sliding column is slidably connected to the outer support platform corresponding to the lifting groove. The top end of the sliding column is fixedly connected to the inner support platform, and the pusher platform is fixedly connected to the bottom end of the sliding column. The spring is sleeved on the sliding column. One end of the spring is fixedly connected to the pusher platform, and the other end is fixedly connected to the bottom surface of the outer support platform. The guide ramp is provided with a guide ramp, and the push platform cooperates with the guide ramp.

[0008] In the above technical solution, the driving mechanism adopts the following structure: The drive mechanism includes a second drive device, a drive shaft, and a main drive wheel. The drive shaft is rotatably connected to the device base. The second drive device is fixedly connected inside the device base. The second drive device is poweredly connected to the drive shaft. The main drive wheel is fixedly connected to the drive shaft. Furthermore, a rotating shaft is fixedly connected to the center of the bottom surface of the material-bearing component, and a driven wheel is fixedly connected to the rotating shaft. The main drive wheel cooperates with the driven wheel. Furthermore, both the main drive wheel and the driven wheel are friction wheels.

[0009] In the above technical solution, the structure of the blank trimming mechanism is as follows: The trimming mechanism includes a frame, a longitudinal motion module, a transverse motion module, a side trimming knife, and an inner trimming knife. The frame is fixedly connected to the machine base of the device. The longitudinal motion module is provided on the frame. The longitudinal motion module includes a longitudinal motion table. The inner trimming knife is fixedly connected to the longitudinal motion table. The transverse motion module is fixedly connected to the frame. The transverse motion module includes a transverse motion table, and the side trimming blade is fixedly connected to the transverse motion table. The longitudinal motion module and the drive shaft are connected by a first linkage component, and the longitudinal motion table and the transverse motion module are connected by a second linkage mechanism.

[0010] Furthermore, the longitudinal motion module also includes a reciprocating lead screw, the longitudinal motion table is slidably connected to the frame, the reciprocating lead screw is threadedly connected to the longitudinal motion table, and the reciprocating lead screw and the drive shaft are powered through the first linkage component. Furthermore, the transverse motion module also includes a module frame and a one-way lead screw. The module frame is fixedly connected to the frame, and the transverse motion table is slidably connected to the module frame. The one-way lead screw is threadedly connected to the transverse motion table, and the one-way lead screw and the longitudinal motion table are poweredly connected through the second linkage component.

[0011] In one implementation, the first linkage component has the following structure: The first linkage component includes a worm gear, a worm shaft, a first input shaft, a second input shaft, a first bevel gear, and a second bevel gear. The first input shaft is rotatably connected to the machine base of the device. The first bevel gear is fixedly connected to the first input shaft. The second bevel gear is fixedly connected to the drive shaft. The first bevel gear and the second bevel gear are meshed together. The worm shaft is fixedly connected to the first input shaft. The second input shaft is fixedly connected to the reciprocating lead screw, and the worm gear is fixedly connected to the second input shaft. The worm and the worm gear are meshed together.

[0012] In one embodiment, the second linkage component has the following structure: The second linkage component includes a third input shaft, a transmission gear, and a transmission rack. One end of the one-way lead screw is fixedly connected to the third input shaft, the transmission gear is fixedly connected to the third input shaft, and the transmission rack is fixedly connected to the longitudinal motion table. The transmission rack meshes with the transmission rack.

[0013] The beneficial effects of this invention are: 1. The billet can be placed on the receiving component, and the billet can be driven by the rotating material tray mechanism to drive the corresponding trimming mechanism. The receiving component can be driven to rotate by the drive mechanism, thereby causing the upper billet to rotate. At the same time, the drive mechanism drives the trimming mechanism to work, so that the trimming mechanism can trim the rotating billet. Through the above structure, the trimming work can be automated, reducing manpower and speeding up production efficiency. 2. The material receiving component is equipped with a blank mold groove. The blank is placed in the blank mold groove. After the blank trimming mechanism completes the blank trimming, the rotating material tray mechanism can drive the material receiving component to move in coordination with the guide ramp. This allows the guide ramp to push the inner material receiving platform upward, thereby pushing the trimmed insulator blank upward. This facilitates the unloading of the insulator blank. After the insulator blank is unloaded, the rotating material tray mechanism drives the material receiving component to rotate. Then, under the action of the elastic component, the inner material receiving platform returns to its original position. Through the above structure, the power of the rotating material tray mechanism can be used to push the insulator blank to realize the unloading work, which can reduce additional driving components and reduce the overall failure rate of the device. 3. The rotating tray mechanism can drive the material-bearing component to rotate in conjunction with the drive mechanism. That is, the main drive wheel of the drive mechanism is in conjunction with the driven wheel. In this way, after the second drive device drives the main drive wheel to rotate, the main drive wheel can drive the driven wheel to rotate, and finally realize the rotation of the bearing component. With this structure, one set of drive mechanisms can drive the bearing component, eliminating the need to install a drive source for each bearing component, thus reducing the cost of the device and the failure rate. 4. When the second drive device drives the drive shaft to rotate, the material-bearing component drives the billet to rotate. At this time, the first linkage component can transmit power to the longitudinal motion module, causing the longitudinal motion module to drive the inner trimming cutter to descend. At the same time, when the longitudinal motion table descends, the second linkage component can also drive the transverse motion module to move, causing the transverse motion module to drive the side trimming cutter to move laterally. As the inner trimming cutter gradually descends, it can trim the rotating billet internally, while the extended side trimming cutter can trim the edge of the billet. Furthermore, the longitudinal motion module uses a reciprocating screw to achieve longitudinal movement. By utilizing the characteristics of the reciprocating screw, the inner trimming cutter can automatically rise after reaching its end point (after the longitudinal motion table reaches the end point of the reciprocating screw), thus realizing the trimming work. Through the above structure, mechanical linkage operation between various parts can be realized, greatly reducing the overall drive source of the device while achieving the required working conditions, making the device more durable, with a low failure rate, and very convenient for maintenance and repair. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the structure of one state of the present invention; Figure 2 This is a schematic diagram of the structure from another perspective of one state of the present invention; Figure 3 This is a schematic diagram of another state of the present invention; Figure 4 This is a structural schematic diagram of another state and another perspective of the present invention; Figure 5 This is a schematic diagram of the internal structure of the device of the present invention. Figure 6This is an exploded view of the material receiving component and the material tray in this invention; Figure 7 This is a schematic diagram of the material-bearing component in this invention when it is bearing material; Figure 8 This is a schematic diagram of the material-bearing component during material feeding in this invention; Figure 9 This is a schematic diagram of the blank trimming mechanism in this invention; Figure 10 This is a schematic diagram of the blank-repairing mechanism from another angle in this invention.

[0015] In the picture: 100 equipment / machinery; 200 Rotary tray mechanism, 201 Tray, 2011 Rotary mounting hole, 202 Material receiving component, 203 First drive device, 204 Outer material receiving platform, 205 Inner material receiving platform, 206 Elastic component, 207 Outer fitting groove, 208 Lifting groove, 209 Inner fitting groove, 210 Blank mold groove, 211 Spring, 212 Sliding column, 213 Pushing platform, 214 Guide inclined platform, 215 Guide inclined surface, 216 Rotating shaft, 217 Drive wheel; 300 trimming mechanism, 301 frame, 302 longitudinal motion module, 303 transverse motion module, 304 side trimming cutter, 305 internal trimming cutter, 306 reciprocating lead screw, 307 longitudinal motion table, 308 module frame, 309 one-way lead screw, 310 transverse motion table. 400 Drive mechanism, 401 Second drive device, 402 Drive shaft, 403 Main drive wheel; 500 First linkage assembly, 501 worm gear, 502 worm, 503 first input shaft, 504 second input shaft, 505 first bevel gear, 506 second bevel gear; 600 Second linkage component, 601 Third input shaft, 602 Transmission gear, 603 Transmission rack. Detailed Implementation

[0016] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0017] Please see Figure 1-10 An automated blank trimming device for insulator production includes a machine base 100, a rotating material tray mechanism 200, a blank trimming mechanism 300, and a drive mechanism 400. Firstly, please refer to... Figure 5A rotating material tray mechanism 200 is provided on the machine base 100. The rotating material tray mechanism 200 includes a material tray 201, a material supporting component 202, and a first driving device 203. That is, the material tray 201 is rotatably connected to the machine base 100, and the first driving device 203 is fixedly connected inside the machine base 100. The first driving device 203 is poweredly connected to the material tray 201, and multiple sets of material supporting components 202 are rotatably connected in a ring array on the material tray 201. The material supporting components 202 are used to support the billet. Specifically, in this embodiment, please refer to Figure 6-8 The material support component 202 includes an outer material support platform 204, an inner material support platform 205, and an elastic component 206. Specifically, the material tray 201 has multiple sets of rotating mounting holes 2011 arranged in a ring array, and an outer material support platform 204 is rotatably connected to each set of rotating mounting holes 2011. The top surface of the outer material support platform 204 has an outer fitting groove 207. A lifting groove 208 is provided on the outer material support platform 204 at the middle of the outer fitting groove 207. The inner material support platform 205 is fitted into the lifting groove 208. The top surface of the inner material support platform 205 has an inner fitting groove 209. The inner fitting groove 209 and the outer fitting groove 207 form a blank mold groove 210. The blank mold groove 210 matches the top or bottom contour of the insulator. Furthermore, an elastic component 206 is provided on the bottom surface of the outer material support platform 204 that matches the inner material support platform 205. Furthermore, the elastic component 206 includes a spring 211, a sliding column 212, and a pusher 213. Specifically, a sliding column 212 is slidably connected to the lifting groove 208 on the outer material support platform 204. The top end of the sliding column 212 is fixedly connected to the inner material support platform 205, and the bottom end of the sliding column 212 is fixedly connected to the pusher 213. A spring 211 is sleeved on the sliding column 212. One end of the spring 211 is fixedly connected to the pusher 213, and the other end is fixedly connected to the bottom surface of the outer material support platform 204. Furthermore, please refer to Figure 3 On the device platform 100, a guide ramp 214 is fixedly connected to a set of material-bearing components 202. The elastic component 206 cooperates with the guide ramp 214 and can push the corresponding inner material-bearing platform 205 upward. In other words, the guide ramp 214 is provided with a guide ramp 215, and the pushing platform 213 cooperates with the guide ramp 215. The first driving device 203 can drive the material tray 201 to rotate, thereby rotating the material support component 202 and the blank on it. When a set of material support components 202 passes the guide ramp 214, the guide ramp 215 of the guide ramp 214 can gradually push the push platform 213 upward, thereby causing the inner material support platform 205 to push the insulator blank upward, making it easier to unload the insulator blank. At this time, the spring 211 is compressed. After the insulator blank is unloaded, the material tray 201 drives the material support component 202 to rotate, causing the push platform 213 to disengage from the guide ramp 214. Then, under the elastic force of the spring 211, the inner support platform returns to its original position. Secondly, please refer to Figure 5 A drive mechanism 400 is fixedly connected to a set of material-bearing components 202 on the machine base 100. The drive mechanism 400 can drive the corresponding material-bearing components 202 to rotate. Specifically, the drive mechanism 400 includes a second drive device 401, a drive shaft 402, and a main drive wheel 403. That is, the drive shaft 402 is rotatably connected to the machine base 100, the second drive device 401 is fixedly connected inside the machine base 100, the second drive device 401 is poweredly connected to the drive shaft 402, and the main drive wheel 403 is fixedly connected to the drive shaft 402. In addition, the rotating shaft 216 is fixedly connected to the center of the bottom surface of the outer material support platform 204. The driven wheel 217 is fixedly connected to the rotating shaft 216. When the material tray 201 drives a set of material support components 202 to rotate, the main drive wheel 403 can cooperate with the driven wheel 217. In this way, after the second drive device 401 drives the main drive wheel 403 to rotate, the main drive wheel 403 can drive the driven wheel 217 to rotate. In this way, the entire support component can rotate. When a blank is placed on the support component, the blank can also rotate. Furthermore, both the main drive wheel 403 and the driven wheel 217 mentioned above are friction wheels, so that the main drive wheel 403 and the driven wheel 217 rely on friction to achieve drive. Furthermore, a trimming mechanism 300 is also provided on the machine base 100 on one side of the rotating material tray mechanism 200. The trimming mechanism 300 corresponds to a set of material receiving components 202, so that the trimming mechanism 300 can trim the blanks located on the material receiving components 202. The trimming mechanism 300 cooperates with the drive mechanism 400, so that the drive mechanism 400 drives the trimming mechanism 300 to work. Specifically, please refer to Figure 9 , Figure 10The billet trimming mechanism 300 includes a frame 301, a longitudinal motion module 302, a transverse motion module 303, a side trimming blade 304, and an inner trimming blade 305. Specifically, the frame 301 is fixedly connected to the machine base 100, and the longitudinal motion module 302 is provided on the frame 301. The longitudinal motion module 302 includes a reciprocating screw 306 and a longitudinal motion table 307. The longitudinal motion table 307 is slidably connected to the frame 301, and the reciprocating screw 306 is threadedly connected to the longitudinal motion table 307. The inner trimming blade 305 for trimming the top surface of the billet is fixedly connected to the longitudinal motion table 307. When the reciprocating screw 306 rotates, the longitudinal motion table 307 drives the inner trimming blade 305 to perform lifting and lowering work. Utilizing the characteristic of the reciprocating screw 306 (driving the slider to complete axial reciprocating motion when the main shaft rotates in one direction), the inner trimming blade 305 can achieve reciprocating lifting and lowering motion. Furthermore, a transverse motion module 303 is fixedly connected to the frame 301. The transverse motion module 303 includes a module frame 308, a one-way screw 309, and a transverse motion table 310. That is, a module frame 308 is fixedly connected to the frame 301, a transverse motion table 310 is slidably connected to the module frame 308, a one-way screw 309 is threadedly connected to the transverse motion table 310, and a side trimming blade 304 for trimming the side of the billet is fixedly connected to the transverse motion table 310. When the one-way screw 309 rotates, the transverse motion table 310 can drive the side trimming blade 304 to move laterally, so that the side trimming blade 304 abuts against the side of the billet. Furthermore, the reciprocating lead screw 306 and the drive shaft 402 are powered by a first linkage assembly 500, and the unidirectional lead screw 309 and the longitudinal motion table 307 are powered by a second linkage assembly 600. In this embodiment, the first linkage assembly 500 includes a worm gear 501, a worm 502, a first input shaft 503, a second input shaft 504, a first bevel gear 505, and a second bevel gear 506. That is, the first input shaft 503 is rotatably connected to the machine tool 100, and the first bevel gear 505 is fixedly connected to the first input shaft 503. The second bevel gear 506 is also fixedly connected to the drive shaft 402. The first bevel gear 505 and the second bevel gear 506 are meshed together, and the worm 502 is fixedly connected to the first input shaft 503. A second input shaft 504 is fixedly connected to the reciprocating screw 306, and a worm gear 501 is fixedly connected to the second input shaft 504. The worm 502 is meshed with the worm gear 501. When the second drive device 401 drives the drive shaft 402 to rotate, the power can be transmitted to the worm 502 through the first bevel gear 505 and the second bevel gear 506. Then the worm 502 drives the worm gear 501 to rotate, causing the reciprocating screw 306 to rotate. In this way, the longitudinal motion table 307 can drive the inner trimming cutter 305 to descend. When the inner trimming cutter 305 descends to the end (after the longitudinal motion table 307 moves to the bottom end of the reciprocating screw 306), the inner trimming cutter 305 can rise. The deceleration effect of the worm 502 and the worm gear 501 can also reduce the descent speed of the inner trimming cutter 305. Furthermore, the second linkage assembly 600 includes a third input shaft 601, a transmission gear 602, and a transmission rack 603. Specifically, one end of the one-way lead screw 309 is fixedly connected to the third input shaft 601, the transmission gear 602 is fixedly connected to the third input shaft 601, and the transmission rack 603 is fixedly connected to the longitudinal motion table 307. The transmission rack 603 meshes with the other transmission rack 603. Thus, when the longitudinal motion table 307 descends, the transmission rack 603 can drive the transmission gear 602 to rotate. At this time, the one-way lead screw 309 rotates, causing the transverse motion table 310 to drive the side trimming cutter 304 to extend. When the longitudinal motion table 307 rises, the transmission rack 603 can drive the transmission gear 602 to rotate in the opposite direction. At this time, the transverse motion table 310 drives the side trimming cutter 304 to retract.

[0018] In summary, this embodiment discloses an automated blank trimming device for insulator production, mainly used for trimming blanks. Specifically, the blank is placed in the blank mold groove 210, and then the first drive device 203 drives the material tray 201 to rotate, causing the blank to move. The corresponding trimming mechanism 300 moves accordingly. At this time, the driven wheel 217 of the blank-holding component 202 abuts against the main drive wheel 403. The second drive device 401 drives the main drive wheel 403 to rotate, and the main drive wheel 403 drives the driven wheel 217. Simultaneously, the material-holding component 202 rotates the blank. The power of the second drive device 401 is transmitted to the reciprocating screw 306 through the first linkage component 500. The reciprocating screw 306 rotates, and the longitudinal motion table 307 drives the inner trimming cutter 305 to descend. The longitudinal motion table 307 descends, and under the action of the transmission rack 603 and the transmission gear 602, the one-way screw 309 rotates. The transverse motion table 310 drives the side trimming cutter 304 to extend. In this way, the rotating billet can be trimmed under the action of the inner trimming cutter 305 and the side trimming cutter 304. When the inner trimming cutter 305 reaches the end, the inner trimming cutter 305 rises, and at this time the side trimming cutter 304 also retracts. After the blank is trimmed, the first drive device 203 continues to drive the material tray 201 to rotate. In this way, the material-bearing component 202 carrying the insulator blank passes through the guide ramp 214. Under the action of the guide ramp 214, the inner material-bearing platform 205 drives the insulator blank to rise, which facilitates the unloading of the insulator blank. At this time, another set of material-bearing components 202 carrying blanks corresponds to the blank trimming mechanism 300, and so on.

[0019] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

[0020] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. An automatic roughing device for insulator production, comprising a device machine table (100), a rotating tray mechanism (200), a roughing mechanism (300) and a driving mechanism (400), wherein the rotating tray mechanism (200) is arranged on the device machine table (100), and characterized in that: The rotating tray mechanism (200) comprises a tray (201) and a material receiving component (202), a plurality of groups of the material receiving component (202) are rotationally connected on the tray (201) in an annular array; A driving mechanism (400) is fixedly connected to the device machine (100) corresponding to a group of the material receiving component (202), and the driving mechanism (400) can drive the corresponding material receiving component (202) to rotate; A blank repairing mechanism (300) is arranged on one side of the rotating tray mechanism (200) on the device machine (100), the blank repairing mechanism (300) corresponds to a group of the material receiving component (202), and the blank repairing mechanism (300) cooperates with the driving mechanism (400) to drive the blank repairing mechanism (300) to work through the driving mechanism (400).

2. An automated green shaping apparatus for the production of insulators as claimed in claim 1, wherein: The rotating tray mechanism (200) further comprises a first driving device (203), the tray (201) is rotationally connected on the device machine (100), and the device machine (100) is fixedly connected with the first driving device (203), and the first driving device (203) is power-connected with the tray (201).

3. An automated green shaping apparatus for the production of insulators as claimed in claim 2, wherein: The material receiving component (202) comprises an outer material receiving table (204), an inner material receiving table (205) and an elastic assembly (206), the outer material receiving table (204) is rotationally connected on the tray (201), the top surface of the outer material receiving table (204) is provided with an outer fitting groove (207), the middle part of the outer fitting groove (207) on the outer material receiving table (204) is provided with a lifting groove (208), the inner material receiving table (205) is fitted in the lifting groove (208), the top surface of the inner material receiving table (205) is provided with an inner fitting groove (209), the inner fitting groove (209) and the outer fitting groove (207) form a blank mold groove (210), and the bottom surface of the outer material receiving table (204) is provided with the elastic assembly (206) cooperating with the inner material receiving table (205); A guide inclined table (214) is fixedly connected to the device machine (100) corresponding to a group of the material receiving component (202), and the elastic assembly (206) cooperates with the guide inclined table (214) to push the corresponding inner material receiving table (205) upward.

4. An automated green shaping apparatus for the production of insulators as claimed in claim 3, wherein: The elastic assembly (206) comprises a spring (211), a sliding column (212) and a pushing table (213), the sliding column (212) is slidingly connected to the outer material receiving table (204) corresponding to the lifting groove (208), the top end of the sliding column (212) is fixedly connected with the inner material receiving table (205), the bottom end of the sliding column (212) is fixedly connected with the pushing table (213), the spring (211) is sleeved on the sliding column (212), one end of the spring (211) is fixedly connected on the pushing table (213), and the other end is fixedly connected on the bottom surface of the outer material receiving table (204). The guiding inclined plane (215) is arranged on the guiding inclined table (214), and the pushing table (213) is matched with the guiding inclined plane (215).

5. An automated green shaping apparatus for the production of insulators as claimed in claim 1, wherein: The driving mechanism (400) comprises a second driving device (401), a driving shaft (402) and a main driving wheel (403), the driving shaft (402) is rotatably connected to the device machine table (100), the second driving device (401) is fixedly connected inside the device machine table (100), the second driving device (401) is power-connected with the driving shaft (402), and the main driving wheel (403) is fixedly connected to the driving shaft (402). The bottom surface center of the material receiving component (202) is fixedly connected with a rotating shaft (216), the rotating shaft (216) is fixedly connected with a driven wheel (217), and the main driving wheel (403) is matched with the driven wheel (217).

6. An automated green shaping apparatus for the production of insulators as claimed in claim 5, wherein: The trimming mechanism (300) comprises a rack (301), a longitudinal movement module (302), a transverse movement module (303), a side trimming cutter (304) and an inner trimming cutter (305), the rack (301) is fixedly connected to the device machine table (100), the longitudinal movement module (302) is arranged on the rack (301), the longitudinal movement module (302) comprises a longitudinal movement table (307), and the inner trimming cutter (305) is fixedly connected to the longitudinal movement table (307). The transverse movement module (303) is fixedly connected to the rack (301), the transverse movement module (303) comprises a transverse movement table (310), and the side trimming cutter (304) is fixedly connected to the transverse movement table (310). The longitudinal movement module (302) and the driving shaft (402) are power-connected through a first linkage assembly (500), and the longitudinal movement table (307) and the transverse movement module (303) are power-connected through a second linkage mechanism.

7. An automated green shaping apparatus for the production of insulators as claimed in claim 6, wherein: The longitudinal movement module (302) further comprises a reciprocating screw (306), the longitudinal movement table (307) is slidably connected to the rack (301), the reciprocating screw (306) is threadedly connected to the longitudinal movement table (307), and the reciprocating screw (306) and the driving shaft (402) are power-connected through the first linkage assembly (500). The transverse movement module (303) further comprises a module rack (308) and a one-way screw (309), the module rack (308) is fixedly connected to the rack (301), the transverse movement table (310) is slidably connected to the module rack (308), the one-way screw (309) is threadedly connected to the transverse movement table (310), and the one-way screw (309) and the longitudinal movement table (307) are power-connected through a second linkage assembly (600).

8. An automated green shaping apparatus for the production of insulators as claimed in claim 7, wherein: The first linkage assembly (500) comprises a worm gear (501), a worm (502), a first input shaft (503), a second input shaft (504), a first bevel gear (505) and a second bevel gear (506), the device machine (100) is rotatably connected with the first input shaft (503), the first input shaft (503) is fixedly connected with the first bevel gear (505), the driving shaft (402) is fixedly connected with the second bevel gear (506), the first bevel gear (505) is meshed with the second bevel gear (506), and the first input shaft (503) is fixedly connected with the worm (502); The second input shaft (504) is fixedly connected with the worm (502), and the worm (502) is meshed with the worm gear (501).

9. An automated green shaping apparatus for the production of insulators as claimed in claim 7, wherein: The second linkage assembly (600) comprises a third input shaft (601), a transmission gear (602) and a transmission rack (603), one end of the one-way screw (309) is fixedly connected with the third input shaft (601), the third input shaft (601) is fixedly connected with the transmission gear (602), and the longitudinal motion table (307) is fixedly connected with the transmission rack (603).

10. An automated green shaping apparatus for the production of insulators as claimed in claim 5, wherein: The main drive wheel (403) and the driven wheel (217) are friction wheels.

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