An automated processing equipment for insulating pressure plates

Abstract

This invention discloses an automated processing equipment for insulating pressure plates, including a feeding mechanism, a pressure plate processing mechanism, a pressing block processing mechanism, and a splicing mechanism. The pressure plate processing mechanism and the pressing block processing mechanism are arranged side by side. A feeding mechanism is provided at the front end of the pressure plate processing mechanism and the pressing block processing mechanism to feed materials to the pressure plate processing mechanism and the pressing block processing mechanism. A splicing mechanism is provided at the rear end of the pressure plate processing mechanism and the pressing block processing mechanism to splice the pressure plate and the pressing block, thereby realizing the automated processing of insulating pressure plates. This allows for the splicing of insulating pressure plates, which can reduce waste, has high processing efficiency, eliminates the need for manual processing, and minimizes pressure plate waste.

Description

Technical Field

[0001] This invention relates to the field of transformer processing equipment, and more specifically to an automated processing equipment for insulating pressure plates. Background Technology

[0002] The current insulating pressure plate is pressed onto the winding. The main function of the insulating pressure plate is to support the winding and separate the winding from the yoke. The current insulating pressure plate is made by workers cutting multiple oil guide grooves on the pressure plate to facilitate the flow and heat dissipation of oil. The insulating pressure plate is processed by manually cutting grooves. However, the labor intensity and work efficiency of workers are relatively low. In addition, because grooves need to be cut into the insulating pressure plate, there is a lot of wood waste at the groove location, which leads to increased costs. Summary of the Invention

[0003] To address the shortcomings of the existing technology, this invention proposes an automated processing equipment for insulating pressure plates, which enables automated processing of insulating pressure plates. This allows for the splicing of insulating pressure plates, reducing waste, while also achieving high processing efficiency, eliminating the need for manual processing, and minimizing pressure plate waste.

[0004] To achieve the above objectives, the present invention provides an automated processing device for insulating pressure plates, comprising a feeding mechanism, a pressure plate processing mechanism, a pressure block processing mechanism, and a splicing mechanism. The pressure plate processing mechanism and the pressure block processing mechanism are arranged side-by-side. A feeding mechanism is located at the front end of the pressure plate processing mechanism and the pressure block processing mechanism to feed materials to them. A splicing mechanism is located at the rear end of the pressure plate processing mechanism and the pressure block processing mechanism to splice the pressure plates and pressure blocks. The pressure plate processing mechanism includes a first conveying plate, a pressing conveying assembly, and a first grooving assembly. The top surface of the first conveying plate is smooth. A first gantry frame is located on the top surface of the first conveying plate. The pressing conveying assembly is located on the first gantry frame to press the pressure plates onto the first conveying plate for conveying. There are two sets of pressing conveying assemblies arranged side-by-side. Multiple first grooving assemblies are arranged side-by-side between the two sets of pressing conveying assemblies and are located on the first gantry frame. The first grooving assembly is used to press the pressure plates onto the first conveying plate. The top surface is grooved; the pressing mechanism includes a cutting component, a second grooving component, a separating component, and a segmenting component. A second conveying plate is set at the bottom of the pressing mechanism. Baffles are set on the second conveying plate and located on both sides of the second conveying plate. Multiple sets of motor-driven conveying rollers are set on the baffles. The conveying rollers press the pressing block onto the top surface of the second conveying plate. A cutting component is set on the second conveying plate to cut the whole pressing plate into multiple pressing strips of the same width. A separating component is set above the second conveying plate at the rear end of the cutting component to separate the pressing strips. At the same time, a second grooving component is set on the second conveying plate at the rear end of the separating component. There are multiple second grooving components arranged side by side. A segmenting component is set at the end of the second conveying plate to divide the pressing strips into multiple pressing blocks. A gluing mechanism is connected at the end of the second conveying plate to apply glue to the surface of the pressing block. The processed pressing block and pressing plate are spliced ​​together by a splicing mechanism.

[0005] Preferably, the splicing mechanism includes a guide groove, a pushing component, and a negative pressure component. The first conveying plate is lower than the second conveying plate. A guide groove is provided at the ends of the first and second conveying plates, connecting their ends. The first conveying plate conveys the slotted pressure plate into the guide groove. A pushing component is provided on one side of the guide groove, which conveys the pressure plate towards the end of the second conveying plate. When the pressure plate is at the end of the second conveying plate, the groove on the pressure plate matches the groove of the pressure block. A negative pressure component is provided in the guide groove at the end of the second conveying plate, which performs adsorption. A lifting limit plate is provided on the outer wall of the guide groove, which limits the second conveying plate. A drying component is provided above the guide groove, and the drying component is located above the end of the second conveying plate.

[0006] Preferably, a baffle is also provided on the top surface of the first conveying plate to clamp the pressure plate. The first grooving assembly includes a mounting base and a telescopic cutter head. The mounting base is a hollow cylinder with multiple sliding grooves at the bottom for the telescopic cutter head to extend out. The telescopic cutter head is divided into upper and lower groups. An adjustable rod that can be raised and lowered is provided inside the hollow column. A lifting sleeve that can be raised and lowered is sleeved on the adjusting rod. A pull rod is hinged to the bottom of the adjusting rod and the lifting sleeve, and the pull rod is hinged to the telescopic cutter head. Cylinders are provided on the adjusting rod / lifting sleeve and the inner wall of the hollow column, respectively. The length of the telescopic cutter head extending out of the mounting base is adjusted by the cylinders, thus realizing the grooving of the pressure plate. The hollow column is driven to rotate by a motor.

[0007] Preferably, the cutting component is a saw wheel, with multiple saw wheels arranged side by side at equal intervals, cutting the pressure plate with the saw blades; a separating component is provided above the second conveying plate, the separating component includes a lifting plate, a cam assembly, and an inclined surface, wherein multiple lifting plates are arranged side by side, and multiple equally spaced lifting rails are provided on both sides of the multiple lifting plates, the lifting plates slide with the corresponding lifting rails, an inclined surface is provided at the bottom of the lifting plate, the lifting of the lifting plate forces the pressure bars to expand and separate, a cam assembly is provided at the top of the lifting plate, the cam assembly is driven by a motor, multiple cams on the cam assembly correspond to the upper and lower parts of the lifting plate, the multiple cams on the cam assembly are staggered, the rotation of the cam assembly realizes the lifting plate descends from the middle to both sides sequentially; the second grooving component has the same structure as the first grooving component, the second grooving component is vertically upward and located below the first grooving component. The bottom of the telescopic cutter head of the first layer is flush with the second conveyor plate. The second conveyor plate has a long strip-shaped notch for the second grooving assembly to extend out. The second grooving assembly is fixed to the bottom of the second conveyor plate by bolts. A limit plate is provided on the second conveyor plate to clamp the two ends of the pressure strip. The segmentation assembly includes a lifting assembly, a mounting plate, a rack and saw blade. Upgrading assemblies are provided on the plates on both sides of the second conveyor plate. A mounting plate located above the second conveyor plate is provided on the lifting assembly. The mounting plate and the saw blade are connected by a sliding fit. The bottom of the saw blade protrudes downward from the mounting plate. An incomplete gear driven by a motor is installed on the mounting plate. An elongated circular track is fitted around the outer circumference of the incomplete gear. A rack that meshes with the incomplete gear is provided on the inner wall of the elongated circular track. The elongated circular track is fixed on the saw blade to cut the pressure strip.

[0008] Preferably, the gluing mechanism consists of multiple flow channels that correspond to the position of the pressure block. The flow channels are fitted to the bottom of the pressure block. Inside the flow channel, there are glue flow holes. The glue flow holes are connected to the glue box through pipes. The glue in the glue box is transported to the flow channel through pipes, thus achieving the gluing of the bottom of the pressure block.

[0009] Preferably, the feeding mechanism includes a feeding plate, a feeding roller, and a clamping plate. The feeding plate consists of two blocks, which are sequentially connected to the first conveying plate / second conveying plate. A clamping plate is provided on the top surface of each feeding plate to clamp the pressure plate. The clamping plate presses against both sides of the pressure plate. A feeding roller driven by a motor is provided between the two clamping plates. The feeding roller feeds the pressure plate into the pressure plate processing mechanism and the block processing mechanism respectively.

[0010] Compared with the prior art, the advantages of the present invention are: to realize the automated processing of insulating pressure plates, which can splice the insulating pressure plates, thereby reducing waste, while the processing efficiency is relatively high and no manual processing is required, and the waste of pressure plates is relatively small. Attached Figure Description

[0011] Figure 1 This is a top view of the present invention.

[0012] Figure 2 This is a longitudinal sectional view of the pressure plate processing mechanism of the present invention.

[0013] Figure 3 This is a cross-sectional view of the pressure plate processing mechanism of the present invention.

[0014] Figure 4 This is a schematic diagram of the separator component of the present invention.

[0015] Figure 5 This is a schematic diagram of the second slotted component of the present invention.

[0016] Figure 6 This is a schematic diagram of the segmented component of the present invention.

[0017] Figure 7 This is a schematic diagram of the adhesive application mechanism of the present invention.

[0018] Figure 8 This is a schematic diagram of the first slotting component and the second slotting component of the present invention.

[0019] The components include: 1. Feeding mechanism; 1.1 Feeding plate; 1.2 Feeding roller; 1.3 Clamping plate; 2. Pressing plate processing mechanism; 2.1 First conveying plate; 2.2 First gantry frame; 2.3 Pressing conveying assembly; 2.4 First grooving assembly; 2.5 Mounting base; 2.6 Sliding groove; 2.7 Telescopic cutter head; 2.8 Adjusting rod; 2.9 Lifting sleeve; 2.10 Pull rod; 3. Pressing block processing mechanism; 3.1 Second conveying plate; 3.2 Baffle; 3.3 Conveying roller; 3.4 Cutting assembly; 3.5 Second grooving assembly. 3.6. Separating component; 3.7. Lifting plate; 3.8. Lifting rail; 3.9. Cam assembly; 3.10. Inclined surface; 3.11. Limiting plate; 3.12. Segmentation component; 3.13. Lifting component; 3.14. Mounting plate; 3.15. Rack; 3.16. Saw blade; 3.17. Long oval rail; 3.18. Incomplete gear; 4. Glue application mechanism; 4.1. Flow channel; 4.2. Glue flow hole; 4.3. Glue box; 5. Splicing mechanism; 5.1. Guide channel; 5.2. Pushing component; 5.3. Negative pressure component; 5.4. Lifting limiting plate. Detailed Implementation

[0020] The invention will now be further described with reference to the accompanying drawings.

[0021] like Figure 1-8As shown, an automated processing device for insulating pressure plates includes a feeding mechanism 1, a pressure plate processing mechanism 2, a pressing block processing mechanism 3, and a splicing mechanism 5. The pressure plate processing mechanism 2 and the pressing block processing mechanism 3 are arranged longitudinally side-by-side. The feeding mechanism 1 is fixed to the front end of the pressure plate processing mechanism 2 and the pressing block processing mechanism 3 by welding, feeding rectangular plates into them. The splicing mechanism 5 is fixed to the rear end of the pressure plate processing mechanism 2 and the pressing block processing mechanism 3 by welding, splicing the pressure plates and pressing blocks together. The pressure plate processing mechanism 2 includes a first conveying plate 2.1, a pressing and conveying assembly 2.3, and a first slotting assembly 2.4. The top surface of the first conveying plate 2.1 is smooth. The slide facilitates the horizontal transport of the pressure plate on the first conveyor plate. A horizontally arranged first gantry frame 2.2 is fixed to the top surface of the first conveyor plate 2.1 by bolts. A pressing conveyor assembly 2.3 is fixed to the first gantry frame 2.2 by bearings. The pressing conveyor assembly 2.3 presses the pressure plate onto the first conveyor plate 2.1 for transport (the pressing conveyor assembly 2.3 is driven and rotated by a stepper motor). There are two sets of pressing conveyor assemblies 2.3 arranged side-by-side. Between the two sets of pressing conveyor assemblies 2.3 are multiple horizontally arranged first slotted assemblies 2.4, which are mounted on the first gantry frame 2.2. The first slotted assemblies 2.4 achieve pressing on the top surface of the pressure plate. The pressing plate is slotted (i.e., multiple longitudinally arranged slots are cut into the pressing plate); the pressing plate processing mechanism 3 includes a cutting component 3.4, a second slotting component 3.5, a separating component 3.6, and a segmenting component 3.12. A second conveying plate 3.1 (also with a smooth surface for easy conveying) is provided at the bottom of the pressing plate processing mechanism 3. Two baffles 3.2 are bolted to the second conveying plate 3.1 and are located on the left and right sides of the second conveying plate 3.1. The baffles 3.2 press the pressing blocks on the second conveying plate 3.1 together. Multiple sets of motor-driven conveying rollers 3.3 are mounted on the baffles 3.2 via bearings. The conveying rollers 3.3 press the pressing blocks against the second conveying plate 3.1. The platen is conveyed on the top surface of the second conveying platen 3.1. A cutting assembly 3.4 is located on the top surface of the second conveying platen 3.1. The cutting assembly 3.4 cuts the entire platen into multiple strips of uniform width (the cutting assembly 3.4 consists of multiple horizontally arranged saw wheels driven by a motor, thus dividing the platen into multiple parallel strips). A separating assembly 3.6 is located above the second conveying platen 3.1 at the rear end of the cutting assembly 3.4, separating the strips. Simultaneously, a second grooving assembly 3.5 is fixed to the second conveying platen 3.1 at the rear end of the separating assembly 3.6 by bolts. Multiple grooving assemblies 3.5 are arranged side-by-side.5. Grooves are cut on both sides of each pressure strip to allow the bottom of the pressure strip to mate with the groove on the top of the pressure plate. A segmentation component 3.12 is installed at the end of the second conveyor plate 3.1 to divide the pressure strip into multiple pressure blocks. A gluing mechanism 4 is connected at the end of the second conveyor plate 3.1, and the pressure blocks pass through the gluing mechanism 4 for surface gluing. The processed pressure blocks are then spliced ​​to the pressure plate via a splicing mechanism 5, i.e., the pressure blocks are embedded into the grooves of the pressure plate. The bottom of the pressure block is a convex groove, and the top of the pressure plate is a convex groove. They interlock and are secured with glue, thus forming multiple pressure blocks arranged side-by-side on the top surface of the pressure plate.

[0022] The splicing mechanism 5 includes a guide groove 5.1, a pushing component 5.2, and a negative pressure component 5.3. The first conveying plate is lower than the second conveying plate. A guide groove 5.1 connecting the first and second conveying plates is formed at their ends. The pressure plate with its top surface already slotted enters the guide groove 5.1. The guide groove 5.1 connects the ends of the first and second conveying plates. The pressure plate at the left end of the guide groove 5.1 can be conveyed along the guide groove 5.1 to the end of the second conveying plate. The first conveying plate then delivers the slotted pressure plate. The pressure plate is conveyed into the guide groove 5.1. A pushing assembly 5.2 (comprising a push plate and a cylinder) is bolted to the left side of the guide groove 5.1. The cylinder is bolted to the left side wall of the guide groove 5.1, and the piston rod of the cylinder is bolted to the push plate, which pushes the pressure plate to the right. The pushing assembly 5.2 conveys the pressure plate to the end of the second conveying plate 3.1. When the pressure plate is at the end of the second conveying plate 3.1, the groove on the pressure plate mates with the groove of the pressure block. A negative pressure component 5.3 (which is also a negative pressure hole, connected to a negative pressure pump, through which the pressure plate is adsorbed onto the right end of the guide groove 5.1) is located at the bottom of the guide groove 5.1. A lifting limit plate 5.4 is installed on the right side wall of the guide groove 5.1. A cylinder is fixed to the bottom of the lifting limit plate 5.4 by bolts. The cylinder is embedded in the guide groove, and the lifting limit plate 5.4 rises and falls by extending and retracting the cylinder. When the lifting limit plate 5.4 rises... The right side of the pressure plate rests against the lifting limit plate 5.4. After the pressure plate and the pressure block are connected, the lifting limit plate 5.4 descends, and the right end of the pressure plate loses its limit. In this way, the assembled pressure plate can be directly conveyed to the right along the guide groove. The second conveying plate 3.1 is limited by the lifting limit plate 5.4. A drying component is set above the guide groove 5.1 and the drying component is located above the end of the second conveying plate 3.1. The drying component is fixed above the guide groove 5.1 by a gantry frame. The drying component is a hot air blower, which blows towards the pressure plate to dry it.

[0023] On the top surface of the first conveyor plate 2.1, there are also baffles 3.2 fastened with bolts, with the baffles arranged opposite each other on the left and right sides. The baffles 3.2 clamp and guide the left and right ends of the pressure plate. The first grooving assembly 2.4 includes a mounting base 2.5 and a telescopic cutter head 2.7. The mounting base 2.5 is a hollow cylinder and is connected to the output shaft of the motor. The motor drives the mounting base to rotate. Multiple sliding grooves 2.6 are opened at the bottom of the hollow cylinder for the telescopic cutter head 2.7 to extend out. The telescopic cutter head 2.7 is divided into upper and lower groups. An adjustable rod 2.8 that can be raised and lowered is set inside the hollow column. An adjustable rod 2.8 is sleeved on the adjustable rod 2.8. The lifting sleeve 2.9, which is raised and lowered on the adjusting rod 2.8, has a pull rod 2.10 hinged to the bottom of the adjusting rod 2.8 and the lifting sleeve 2.9. The pull rod 2.10 is also hinged to the telescopic cutter head 2.7. The extension of the telescopic cutter head out of the mounting seat 2.5 is adjusted by raising and lowering the adjusting rod 2.8 and the lifting sleeve 2.9, thus adjusting the size of the groove on the pressure plate. Cylinders are welded between the adjusting rod 2.8 / lifting sleeve 2.9 and the inner wall of the hollow column. The length of the telescopic cutter head 2.7 extending out of the mounting seat 2.5 is adjusted by the cylinders, thus adjusting the slot size of the groove on the pressure plate. The hollow column is driven to rotate by a motor.

[0024] The cutting component 3.4 is a saw wheel, with multiple saw wheels arranged side by side at equal intervals. These saw wheels cut the pressure plate into longitudinally parallel pressure strips. Above the second conveyor plate 3.1 is a separating component 3.6, which includes a lifting plate 3.7, a cam assembly 3.9, and an inclined surface 3.10. Multiple lifting plates 3.7 are arranged side by side laterally. On the front and rear sides of each lifting plate 3.7 are multiple equally spaced lifting rails 3.8 (the lifting rails 3.8 are fixed to the front of the lifting plate 3.7 above the second conveyor plate by horizontal fixing rods, and sliding seats are welded onto the lifting rails 3.8, allowing for vertical lifting of the lifting plate 3.7). The lifting plates 3.7 slide along their corresponding lifting rails 3.8. In conjunction with this, an inclined surface 3.10 is provided at the bottom of the lifting plate 3.7. When the inclined surface descends, the pressure blocks move outward along the inclined surface and gradually disperse. The lifting of the lifting plate 3.7 forces the pressure strips to expand and separate. A cam assembly 3.9 is fixed to the top of the lifting plate 3.7 by a bearing. The cam assembly 3.9 is driven by a motor. Multiple cams on the cam assembly 3.9 correspond vertically to the lifting plate 3.7, and the multiple cams on the cam assembly 3.9 are staggered. The rotation of the cam assembly causes the cams to press the top of the lifting plate 3.7, thus moving the lifting plate 3.7 downward. The rotation of the cam assembly 3.9 causes the lifting plate 3.7 to descend sequentially from the middle to both sides, thus dispersing the multiple contacting pressure strips. The second slotting assembly 3.5 is related to the first slotting assembly. Component 2.4 has the same structure (the telescopic cutter head of the second grooving component 3.5 faces upward). The second grooving component 3.5 is vertically upward, and the bottom of the telescopic cutter head 2.7 located below the second grooving component 3.5 is flush with the bottom of the second conveying plate 3.1. A long, narrow notch is cut into the second conveying plate for the second grooving component 3.5 to extend out. The second grooving component 3.5 is bolted to the bottom of the second conveying plate 3.1. A limit plate 3.11 is bolted to the second conveying plate 3.1, clamping both ends of the pressure strip. The bottom mounting base of the second grooving component 3.5 is connected to the output shaft of the motor, and the motor rotates the mounting base, thus allowing the second grooving component 3.5 to move along the left and right sides of the pressure strip. Grooving is performed, and the size of the groove is adjusted according to the extension of the telescopic cutter head beyond the mounting base. The segmented component 3.12 includes a lifting component 3.13, a mounting plate 3.14, a rack 3.15, and a saw blade 3.16. Upgrading components are welded to the plates on both sides of the second conveying plate 3.1. The lifting component 3.13 is mounted on the mounting plate 3.14 located above the second conveying plate 3.1 (the lifting component is a cylinder; the cylinder body is bolted to the second conveying plate, and the piston rod of the lifting component is fixed to the left and right sides of the mounting plate 3.14). The mounting plate 3.14 and the saw blade 3.16 are connected by a sliding fit. The saw blade 3.16 moves left and right along the mounting plate 3.14.A mounting plate 3.14 protrudes downwards from the bottom of saw blade 3.16 (the bottom of saw blade 3.16 has saw teeth). An incomplete gear 3.18, driven by a motor, is mounted on the mounting plate 3.14. An elongated circular track 3.17 is fitted around the outer circumference of the incomplete gear 3.18. A rack 3.15, meshing with the incomplete gear 3.18, is welded to the inner wall of the elongated circular track 3.17. The rotation of the incomplete gear 3.18 causes the elongated circular track 3.17 to move left and right. The elongated circular track 3.17 is welded to the saw blade 3.16 to cut the pressure strip. The left and right movement of the saw blade 3.16 cuts the grooved pressure strip into a pressure block.

[0025] The gluing mechanism 4 consists of multiple flow channels 4.1, with each flow channel 4.1 corresponding to the position of the pressure block (the flow channels 4.1 are fixed to the second conveying plate by bolts). The flow channels 4.1 are fitted to the grooves at the bottom of the pressure block. Glue flow holes 4.2 are provided inside the flow channels 4.1, and these holes are connected to a glue box 4.3 via pipes. The glue in the glue box 4.3 is transported to the flow channels 4.1 through pipes, thus applying glue to the bottom of the pressure block. When the pressure block passes through the flow channels 4.1, the glue in the flow holes 4.2 contacts the outer wall of the pressure block for gluing. When the pressure block aligns with the grooves on the pressure plate, the glue secures the pressure block to the pressure plate, resulting in multiple heat dissipation grooves on the top of the pressure plate.

[0026] The feeding mechanism 1 includes a feeding plate 1.1, a feeding roller 1.2, and a clamping plate 1.3. The feeding plate 1.1 consists of two pieces, and the two feeding plates 1.1 are connected to the first conveying plate 2.1 and the second conveying plate 3.1 by welding. A clamping plate 1.3 is fixed to the top surface of each feeding plate 1.1 by welding to clamp the pressure plate (the clamping plate 1.3 clamps the left and right ends of the two pressure plates that are respectively conveyed to the first conveying plate 2.1 and the second conveying plate 3.1). The clamping plate 1.3 presses against both sides of the pressure plate. A feeding roller 1.2 driven by a motor is fixed between the two clamping plates 1.3 by bearings. The feeding roller 1.2 feeds the pressure plate into the pressure plate processing mechanism 2 and the block processing mechanism 3 respectively.

Claims

1. An automated processing equipment for insulating pressure plates, comprising a feeding mechanism, a pressure plate processing mechanism, a pressing block processing mechanism, and a splicing mechanism, wherein the pressure plate processing mechanism and the pressing block processing mechanism are arranged side by side, and a feeding mechanism is provided at the front end of the pressure plate processing mechanism and the pressing block processing mechanism to feed materials to the pressure plate processing mechanism and the pressing block processing mechanism, characterized in that, A splicing mechanism is provided at the tail end of the pressing plate processing mechanism and the pressing block processing mechanism to achieve splicing of the pressing plate and the pressing block; the pressing plate processing mechanism includes a first conveying plate, a pressing conveying assembly, and a first grooving assembly. The top surface of the first conveying plate is smooth, and a first gantry frame is provided on the top surface of the first conveying plate. The pressing conveying assembly is provided on the first gantry frame to press the pressing plate onto the first conveying plate for conveying. There are two sets of pressing conveying assemblies, and the two sets of pressing conveying assemblies are arranged side by side. Between the two sets of pressing conveying assemblies, multiple first grooving assemblies are arranged side by side and are provided on the first gantry frame to achieve grooving on the top surface of the pressing plate; the pressing block processing mechanism includes a cutting assembly, a second grooving assembly, a separating assembly, and a segmenting assembly. A second conveying plate is provided at the bottom of the pressing block processing mechanism. The conveyor plate is equipped with baffles located on both sides of the second conveyor plate. Multiple sets of motor-driven conveyor rollers are installed on the baffles, pressing the pressure block against the top surface of the second conveyor plate. A cutting assembly is installed on the second conveyor plate to cut the entire pressure plate into multiple pressure strips of uniform width. A separating assembly is installed above the second conveyor plate at the rear end of the cutting assembly to separate the pressure strips. Simultaneously, a second grooving assembly is installed on the second conveyor plate at the rear end of the separating assembly. Multiple grooving assemblies are arranged side by side. A segmenting assembly is installed at the end of the second conveyor plate to divide the pressure strips into multiple pressure blocks. A gluing mechanism is connected at the end of the second conveyor plate to apply glue to the surface of the pressure blocks. The processed pressure blocks and pressure plates are spliced ​​together by a splicing mechanism.

2. The automated processing equipment for insulating pressure plates according to claim 1, characterized in that, The splicing mechanism includes a guide groove, a pushing component, and a negative pressure component. The first conveying plate is lower than the second conveying plate. A guide groove is provided at the end of the first and second conveying plates, connecting their ends. The first conveying plate transports the slotted pressure plate into the guide groove. A pushing component is provided on one side of the guide groove, which transports the pressure plate towards the end of the second conveying plate. When the pressure plate is at the end of the second conveying plate, the groove on the pressure plate matches the groove of the pressure block. A negative pressure component is provided in the guide groove at the end of the second conveying plate, which performs adsorption. A lifting limit plate is provided on the outer wall of the guide groove, which limits the movement of the second conveying plate. A drying component is provided above the guide groove, and the drying component is located above the end of the second conveying plate.

3. The automated processing equipment for insulating pressure plates according to claim 2, characterized in that, A baffle is also provided on the top surface of the first conveyor plate to clamp the pressure plate. The first grooving assembly includes a mounting base and a telescopic cutter head. The mounting base is a hollow cylinder with multiple sliding grooves at the bottom for the telescopic cutter head to extend out. The telescopic cutter head is divided into upper and lower groups. An adjustable rod that can be raised and lowered is provided inside the hollow column. A lifting sleeve that moves up and down on the adjusting rod is fitted on the adjusting rod. A pull rod is hinged to the bottom of the adjusting rod and the lifting sleeve, and the pull rod is hinged to the telescopic cutter head. Cylinders are provided on the adjusting rod / lifting sleeve and the inner wall of the hollow column, respectively. The length of the telescopic cutter head extending out of the mounting base is adjusted by the cylinders, thus achieving the grooving of the pressure plate. The hollow column is driven to rotate by a motor.

4. The automated processing equipment for insulating pressure plates according to claim 3, characterized in that, The cutting component is a saw wheel, with multiple saw wheels arranged side-by-side at equal intervals. The saw blades cut the pressure plate. Above the second conveyor plate is a separating component, which includes a lifting plate, a cam assembly, and an inclined plane. Multiple lifting plates are arranged side-by-side, with multiple equally spaced lifting tracks on both sides of each lifting plate. The lifting plates slide with their corresponding lifting tracks. An inclined plane is located at the bottom of the lifting plate, forcing the pressure bars to expand and separate as the lifting plates rise and fall. A cam assembly is located at the top of the lifting plate, driven by a motor. Multiple cams on the cam assembly correspond vertically to the lifting plates, and are staggered. The rotation of the cam assembly causes the lifting plate to descend sequentially from the center to both sides. The second grooving component has the same structure as the first grooving component, but it is vertically upward and located below the first grooving component. The bottom of the telescopic cutter head is flush with the second conveyor plate. A long, narrow notch is cut into the second conveyor plate for the second grooving assembly to extend from. The second grooving assembly is bolted to the bottom of the second conveyor plate. A limit plate is installed on the second conveyor plate to clamp both ends of the pressure strip. The segmentation assembly includes a lifting assembly, a mounting plate, a rack, and a saw blade. Upgrading assemblies are installed on the plates on both sides of the second conveyor plate. A mounting plate is installed on the lifting assembly above the second conveyor plate. The mounting plate and the saw blade are connected by a sliding fit. The bottom of the saw blade protrudes downwards from the mounting plate. An incomplete gear driven by a motor is mounted on the mounting plate, and an elongated circular track is fitted around the outer circumference of the incomplete gear. A rack meshing with the incomplete gear is installed on the inner wall of the elongated circular track. The elongated circular track is fixed to the saw blade to cut the pressure strip.

5. The automated processing equipment for insulating pressure plates according to claim 4, characterized in that, The gluing mechanism consists of multiple flow channels that correspond to the positions of the pressure block. The flow channels fit into the grooves at the bottom of the pressure block. Inside the flow channels, there are glue flow holes. The glue flow holes are connected to the glue box through pipes. The glue in the glue box is transported to the flow channels through pipes, thus achieving the gluing of the bottom of the pressure block.

6. The automated processing equipment for insulating pressure plates according to claim 5, characterized in that, The feeding mechanism includes a feeding plate, a feeding roller, and a clamping plate. The feeding plate consists of two pieces, which are sequentially connected to the first conveying plate and the second conveying plate. A clamping plate is provided on the top surface of each feeding plate to clamp the pressure plate. The clamping plate presses against both sides of the pressure plate. A feeding roller driven by a motor is provided between the two clamping plates. The feeding roller feeds the pressure plate into the pressure plate processing mechanism and the block processing mechanism respectively.

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