A lapping apparatus for carbon steel gaskets

Abstract

The application discloses a lapping equipment for carbon steel gaskets and relates to the technical field of gasket lapping, which comprises two lapping assemblies for lapping gaskets, one of the lapping assemblies is used for automatically feeding gaskets and lapping one side of the gaskets, and the other lapping assembly is used for adjusting the positions of the gaskets and lapping the other side of the gaskets. The application further comprises two placing assemblies for placing gaskets, one of the placing assemblies is provided with a plurality of detachable placing blocks one, the other placing assembly is provided with a plurality of detachable placing blocks two, the gaskets are placed on the placing blocks one and the placing blocks two, the placing blocks one and the placing blocks two are used for fixing the gaskets through electromagnet blocks, and a transfer assembly is arranged between the placing assembly one and the placing assembly two, the transfer assembly turns over the placing blocks one to the placing blocks two, and the gaskets are turned over. The application laps the gaskets and automatically turns over the gaskets, and the lapping efficiency of the gaskets is improved.

Description

Technical Field

[0001] This invention relates to the field of gasket grinding technology, and in particular to a precision grinding device for carbon steel gaskets. Background Technology

[0002] In the fastener manufacturing industry, gaskets, as key load-bearing and sealing elements in bolted connections, directly affect the preload stability and anti-loosening performance of threaded connections due to their surface quality and thickness accuracy. The two parallel end faces of the gasket usually need to be ground to obtain the specified surface roughness, flatness, and thickness tolerances, ensuring that they can bear the load evenly after assembly.

[0003] Currently, the grinding of gasket end faces generally adopts a single-sided grinding process. This involves grinding one end face first, then manually removing the gasket from the grinding disc, flipping it over, and putting it back in for grinding the other end face. This work mode has revealed many problems in the mass production of fasteners. First, the manual flipping operation increases auxiliary time, especially at high production volumes, where the flipping process can easily become a bottleneck restricting capacity, leading to a decrease in the effective utilization rate of the grinding equipment.

[0004] Furthermore, the repositioning accuracy of the gasket after flipping is difficult to reliably guarantee. Fastener gaskets are mostly thin-walled annular parts with poor rigidity, making them prone to tilting or misalignment during manual placement. If the gasket fails to accurately embed into the workpiece hole of the grinding disc after flipping, it will lead to uneven distribution of grinding allowance on both ends, or even localized unground or overground areas, affecting the consistency and parallelism of the finished product thickness. Existing equipment typically uses fixed positioning structures, requiring manual replacement or adjustment of positioning components when gasket specifications change, which is time-consuming and makes precise, rapid switching difficult.

[0005] Currently, the entire process of grinding gaskets, from grinding one side to flipping them over and grinding the other side, relies heavily on manual assistance and has not yet formed a continuous, automated closed-loop operation. This not only limits the automation upgrade of the fastener gasket grinding process but also hinders the improvement of product quality consistency. Summary of the Invention

[0006] To address the aforementioned technical problems, this invention discloses a precision grinding device for carbon steel gaskets.

[0007] The technical solution adopted by the present invention to solve the above-mentioned technical problems is as follows: a precision grinding device for carbon steel gaskets, comprising a placement component one, a placement component two, and a transfer component. The placement component one includes a base two, on which a placement disk one is rotatably disposed. Multiple sets of placement blocks one are detachably disposed on the placement disk one. The placement component two includes a base four, on which a placement disk two is rotatably disposed. Multiple sets of placement blocks two are detachably disposed on the placement disk two. Both placement blocks one and placement blocks two are provided with grooves, in which gaskets are placed. The height of the placement disk two is lower than that of the placement disk one. Both placement blocks one and placement blocks two are fixed to the gaskets by electromagnet blocks. It also includes a grinding component one and a grinding component two. The grinding component one includes a base one, a grinding mechanism one and a mounting frame three are provided on the base one, and a feeding rack is provided on the mounting frame three. Multiple sets of pads are stacked inside the feeding rack, and the feeding rack is aligned with the groove on the placement block one. The grinding assembly 2 includes a base 5, on which a grinding mechanism 2 and a mounting frame 4 are provided. A mounting frame 7 is slidably provided on the mounting frame 4, and a limit frame is slidably provided on the mounting frame 7.

[0008] Furthermore, the diameter of the grooves on both placement block one and placement block two is greater than the diameter of the gasket, and the depth of the groove in placement block two is less than the depth of the groove on gear two.

[0009] Furthermore, the grinding mechanism includes a mounting frame that is slidably mounted on a base, a grinding frame that is mounted on the mounting frame, and a grinding belt that is rotatably mounted on the grinding frame, the grinding belt grinding the pad.

[0010] Furthermore, the lower end of the limiting frame is provided with multiple sets of limiting plates, which adjust the position of the gasket.

[0011] Furthermore, the placement block is provided with a limiting post and two sets of power ports. One set of power ports is located on the outside of the placement block, and the other set of power ports is located on the inside of the placement block. The placement plate is provided with a power post, which is inserted into the power port on the inside of the placement block.

[0012] Furthermore, the reversing plate is provided with a locking hole and a second power-conducting post. The first limiting post is inserted into the locking hole, and the locking hole fixes the first placement block by an electromagnet block. The second power-conducting post is inserted into the power-conducting port on the outside of the first placement block to provide power.

[0013] Furthermore, the first placement block and the second placement block are fixed by bolts and bolt 2 respectively. A disassembly frame is slidably provided at the lower end of the placement assembly. A motor 7 is provided inside the disassembly frame, and the motor 7 tightens or loosens the bolts.

[0014] Furthermore, the second grinding mechanism includes a mounting frame five that is slidably mounted on the base five. A second grinding frame is provided at the lower end of the mounting frame five, and a second grinding belt is rotatably mounted on the second grinding frame. The second grinding belt grinds the other side of the pad.

[0015] Furthermore, the second placement block is provided with power ports on both its inner and outer sides, and the second placement plate is provided with a power post, which is inserted into the power port on the inner side of the second placement block to supply power.

[0016] Furthermore, the transfer assembly includes a base three, an adjustment frame slidably disposed on the base three, and a reversing plate rotatably disposed on the adjustment frame. The reversing plate drives the placement block one to flip, placing the placement block one on the placement block two.

[0017] The beneficial effects of this invention compared with the prior art are as follows: This invention limits and transfers the gasket by setting placement block one and placement block two, moving the gasket to different working positions. The feeding rack cooperates with placement block one to achieve rapid feeding. The transfer component flips the gasket that has been ground on placement block one onto placement block two, completing the automatic flipping of the gasket. After the flipping is completed, the position of the gasket is automatically adjusted by the setting limiting plate to ensure that the gasket is placed in the groove of placement block two. This invention realizes double-sided grinding of the gasket and improves the grinding efficiency of the gasket. Attached Figure Description

[0018] Figure 1 This is a front view of the overall structure of the present invention.

[0019] Figure 2 This is a top view of the overall structure of the present invention.

[0020] Figure 3 This is a schematic diagram of the overall structure of the present invention.

[0021] Figure 4 This is a schematic diagram of the grinding assembly of the present invention.

[0022] Figure 5 This is a right view of a partial structure of the grinding assembly of the present invention.

[0023] Figure 6 The right view shows the structure of the component placed in this invention.

[0024] Figure 7 This is a partial structural diagram of the placement component of the present invention.

[0025] Figure 8 This is a schematic diagram of the transfer component structure of the present invention.

[0026] Figure 9 This is a partial structural diagram of the transfer component of the present invention.

[0027] Figure 10 The left view shows the structure of component two in this invention.

[0028] Figure 11 This is a partial structural diagram of the placement component two of the present invention.

[0029] Figure 12 This is a schematic diagram of the second grinding component of the present invention.

[0030] Figure 13 This is a schematic diagram of the installation position of the limiting plate of the present invention.

[0031] Attached reference numerals: 1-Grinding component one; 2-Placement component one; 3-Transfer component; 4-Placement component two; 5-Grinding component two; 101-Base one; 102-Mounting bracket one; 103-Motor one; 104-Motor two; 105-Motor three; 106-Mounting bracket two; 107-Motor four; 108-Wiping disc one; 109-Mounting bracket three; 110-Feeding rack; 111-Locking bracket; 112-Electric... 113-Grinding Frame 1; 114-Grinding Belt; 115-Motor 5; 116-Shim; 201-Base 2; 202-Disassembly Frame; 203-Motor 6; 204-Gear 1; 205-Gear 2; 206-Motor 7; 207-Placement Plate 1; 208-Placement Block 1; 209-Limiting Post 1; 210-Power Port 1; 211-Electric Cylinder 2; 212-Bolt; 213-Power Post 1. 301-Base 3; 302-Adjusting bracket; 303-Motor 8; 304-Motor 9; 305-Reversing plate; 306-Locking hole; 307-Power post 2; 401-Base 4; 402-Placement tray 2; 403-Motor 10; 404-Gear 3; 405-Gear 4; 406-Placement block 2; 407-Limit post 2; 408-Power port 2; 409-Bolt 2; 410-Power supply Column 3; 501-Base 5; 502-Mounting bracket 4; 503-Motor 11; 504-Motor 12; 505-Mounting bracket 5; 506-Grinding bracket 2; 507-Grinding belt 2; 508-Motor 13; 509-Mounting bracket 6; 510-Motor 14; 511-Wiping disc 2; 512-Limit bracket; 513-Electric cylinder 3; 514-Limit plate; 515-Electric cylinder 4; 516-Mounting bracket 7. Detailed Implementation

[0032] refer to Figures 1 to 13The invention discloses a precision grinding device for carbon steel gaskets, comprising a placement component 2 and a placement component 4 for placing gaskets 116. The placement components 2 and 4 rotate the gaskets 116, sequentially transferring them to the feeding, cleaning, and grinding stations. A transfer component 3 is provided between the placement components 2 and 4, which flips the ground gaskets 116 on the placement components 2. When the gaskets 116 are flipped and placed on the placement component 4, the automatic flipping function of the gaskets 116 is realized. A grinding component 1 is provided on the side of the placement components 2, which performs feeding, cleaning, and grinding work on the gaskets 116 on the placement components 2, thereby improving the feeding speed of the gaskets 116. A grinding component 5 is provided at the upper end of the placement component 4, which performs sorting, cleaning, and grinding work on the gaskets 116 on the placement component 4. This invention automatically realizes the double-sided grinding of the gaskets 116, improving the grinding efficiency and grinding effect of the gaskets 116.

[0033] refer to Figures 1 to 6 As shown, the grinding assembly 1 includes a base 101. A motor 103, a motor 2 104, and a motor 3 105 are mounted on the upper end of the base 101. Each of the output shafts of the motors 103, 2 104, and 3 105 is equipped with a lead screw. A mounting bracket 2 106 is slidably mounted on the base 101. The mounting bracket 2 106 is threadedly connected to the lead screw on the output shaft of the motor 2 104. When the motor 2 104 starts, it drives the mounting bracket 2 106 to slide on the base 101. A motor 4 107 is mounted on the mounting bracket 2 106. A wiping disc 108 is mounted on the output shaft of the motor 4 107. The wiping disc 108 wipes the surface of the pad 116.

[0034] A mounting bracket 102 is slidably mounted on one side of the base 101. The mounting bracket 102 is connected to the lead screw on the output shaft of the motor 103 by a thread. When the motor 103 starts, it drives the mounting bracket 102 to slide on the base 101. A grinding frame 113 is also mounted on the mounting bracket 102. A grinding belt 114 is rotatably mounted on the grinding frame 113. A motor 115 is mounted on the side of the grinding frame 113. The output shaft of the motor 115 is connected to the grinding belt 114. When the motor 115 starts, it drives the grinding belt 114 to rotate, and the grinding belt 114 grinds the pad 116.

[0035] A mounting bracket 109 is slidably mounted on the other side of the base 101. The mounting bracket 109 is connected to the lead screw of the output shaft of the motor 105 by a thread. When the motor 105 starts, it drives the mounting bracket 109 to slide on the base 101. A feeding rack 110 is mounted on the mounting bracket 109. Multiple sets of shims 116 are stacked inside the feeding rack 110. A locking frame 111 is slidably mounted on the side of the feeding rack 110. When the locking frame 111 is inserted into the feeding rack 110, it blocks the shims 116. An electric cylinder 112 is also mounted on the side of the feeding rack 110. The movable end of the electric cylinder 112 is connected to the locking frame 111.

[0036] refer to Figures 6 to 7 As shown, the placement component 2 includes a base 201, a placement disk 207 rotatably mounted on the base 201, a gear 205 coaxially mounted on the placement disk 207, a motor 6 203 mounted on the base 201, a gear 1 204 mounted on the output shaft of the motor 6 203, the gear 1 204 meshing with the gear 2 205, when the motor 6 203 starts, it drives the gear 1 204 to rotate, and the gear 1 204 drives the gear 2 205 and the placement disk 207 to rotate.

[0037] Multiple sets of placement blocks 208 are slidably mounted on the placement tray 207. The lower end of the feeding rack 110 is in contact with the placement blocks 208. Placement blocks 208 have grooves, and a gasket 116 is placed within one of these grooves. The diameter of the groove on the placement block 208 is larger than the diameter of the gasket 116. An electromagnet is installed inside the placement block 208, and the placement block 208 uses the electromagnet to fix the gasket 116 in place. Placement blocks 208 are equipped with… Multiple sets of limiting posts 209 and power ports 210 are provided. One set of power ports 210 is located on the outside of the placement block 208, and another set of power ports 210 is located on the inside of the placement block 208. A power post 213 is provided on the placement plate 207. When the placement block 208 is installed on the placement plate 207, the power post 213 is inserted into the power port 210 on the inside of the placement block 208 to supply power to the electromagnet block inside the placement block 208.

[0038] Placement tray 207 is fixed to placement block 208 by multiple sets of bolts 212. When the bolts 212 are tightened, placement block 208 is fixed on placement tray 207. When the bolts 212 are loosened, placement block 208 is released from placement tray 207. A disassembly frame 202 is slidably provided at the lower end of base 201. Multiple sets of motors 7 206 are provided on disassembly frame 202. Electric cylinder 211 is also provided on base 201. The movable end of electric cylinder 211 is connected to disassembly frame 202. When electric cylinder 211 is started, it drives disassembly frame 202 and motors 7 206 to insert into bolts 212. When motors 7 206 are started, they drive bolts 212 to rotate.

[0039] refer to Figures 8 to 9As shown, the transfer assembly 3 includes a base 301, a motor 303 is mounted on the base 301, a lead screw is mounted on the output shaft of the motor 303, an adjustment frame 302 is slidably mounted on the base 301, the adjustment frame 302 is threadedly connected to the lead screw on the output shaft of the motor 303, a motor 304 is mounted on the adjustment frame 302, the output shaft of the motor 304 is connected to a reversing plate 305, the reversing plate 305 is rotatably connected to the adjustment frame 302, the reversing plate 305 is provided with a locking hole 306 and a power-conducting post 307, a limiting post 209 is inserted into the locking hole 306, the limiting post 209 fixes the placement block 208 by an electromagnet block, when the limiting post 209 is inserted into the locking hole 306, the power-conducting post 207 is also inserted into the power-conducting port 210, the power-conducting post 207 supplies power to the electromagnet block in the power-conducting port 210.

[0040] refer to Figures 10 to 11 As shown, the placement component 2 4 includes a base 401, on which a placement disk 2 402 is rotatably mounted. The height of the placement disk 2 402 is lower than that of the placement disk 1 207. A gear 405 is coaxially mounted on the placement disk 2 402. A motor 10 403 is also mounted on the base 401. A gear 3 404 is mounted on the output shaft of the motor 10 403. The gear 3 404 meshes with the gear 405. When the motor 10 403 starts, it drives the gear 3 404 to rotate, which in turn drives the gear 405 to rotate, and the gear 405 drives the placement disk 2 402 to rotate.

[0041] The second placement plate 402 is provided with multiple sets of second placement blocks 406. The second placement blocks 406 are fixed to the pads 116 by electromagnet blocks. The second placement plate 402 is fixed to the second placement blocks 406 by bolts 409. The second placement blocks 406 are provided with grooves for the pads 116. The diameter of the grooves on the pads 116 is larger than that of the pads 116. The second placement blocks 406 are also provided with limit posts 407 and power ports 408. There are two sets of power ports 408. One set of power ports 408 is located on the outside of the second placement blocks 406, and the other set of power ports 408 is located on the inside of the second placement blocks 406. The second placement plate 402 is provided with a third power post 410. The third power post 410 is inserted into the power port 408 on the inside of the second placement blocks 406 to supply power to the second placement blocks 406.

[0042] refer to Figure 12 , Figure 13As shown, the grinding assembly 25 includes a base 501, on which motors 11 and 12 are mounted. Both motors 11 and 12 have lead screws on their output shafts. A mounting bracket 6 509 is slidably mounted on the base 501. The mounting bracket 6 509 is connected to the lead screw on the output shaft of motor 11 503 by a thread. When motor 11 503 starts, it drives the mounting bracket 6 509 to move and adjust its position. Motor 14 510 is mounted on the mounting bracket 6 509. A wiping disc 2 511 is mounted on the output shaft of motor 14 510. The wiping disc 2 511 wipes the pad 116 on the placement block 2 406.

[0043] A mounting bracket 505 is slidably mounted on the side of the base 501. The mounting bracket 505 is connected to the lead screw on the output shaft of the motor 12 504 by a thread. A grinding frame 2 506 is mounted at the lower end of the mounting bracket 505. A grinding belt 2 507 is rotatably mounted on the grinding frame 2 506. A motor 13 508 is mounted on the side of the grinding frame 2 506. The output shaft of the motor 13 508 is connected to the grinding belt 2 507. When the motor 13 508 starts, it drives the grinding belt 2 507 to rotate. The grinding belt 2 507 grinds the pad 116 on the placement block 2 406.

[0044] On the other side of the base 501, there is a mounting bracket 4 502. Mounting bracket 7 516 is slidably mounted on mounting bracket 4 502. Mounting bracket 4 502 is also equipped with electric cylinder 4 515. The movable end of electric cylinder 4 515 is connected to mounting bracket 7 516. When electric cylinder 4 515 is started, it drives mounting bracket 7 516 to move. Mounting bracket 7 516 is equipped with electric cylinder 3 513. The movable end of electric cylinder 3 513 is connected to limit frame 512. Limit frame 512 is slidably connected to mounting bracket 7 516. Multiple sets of limit plates 514 are provided at the lower end of mounting bracket 7 516. Limit plates 514 adjust the position of shim 116.

[0045] Working principle: During operation, multiple sets of pads 116 are stacked inside the feeding rack 110. In the initial state, the locking frame 111 is inserted inside the feeding rack 110. The driving mounting frame three 109 slides on the base one 101. The mounting frame three 109 drives the lower end of the feeding rack 110 to align with the groove on the placement block one 208. The height between the lower end of the feeding rack 110 and the placement block one 208 is adjusted so that only one pad 116 in the feeding rack 110 falls into the groove at a time. The driving placement plate one 207 rotates on the base two 201. The placement plate one 207 drives multiple sets of placement blocks one 208 to rotate. At this time, the pads 116 in the feeding rack 110 fall into the grooves of the placement block one 208 in sequence. When the grooves on the placement block one 208 are completely filled with pads 116, the electromagnet block in the placement block one 208 is energized through the energizing post one 213. The placement block one 208 then fixes the multiple sets of pads 116.

[0046] First, the placement tray 207 drives the placement block 208 to the lower end of the wiping tray 108, and drives the mounting bracket 2 106 to slide on the base 101. The mounting bracket 2 106 drives the wiping tray 108 to move, so that the wiping tray 108 is in contact with the surface of the pad 116. The wiping tray 108 is driven to rotate, and the wiping tray 108 wipes the surface of the pad 116 to improve the cleanliness of the pad 116.

[0047] Next, the placement plate 207 drives the placement block 208 to the lower end of the grinding belt 114, drives the mounting bracket 102 to slide on the base 101, and the mounting bracket 102 drives the grinding belt 114 to descend and fit against the pad 116. The grinding belt 114 is driven to rotate, and the grinding belt 114 grinds the surface of the pad 116. The grinding depth of the pad 116 is determined by controlling the movement of the mounting bracket 102.

[0048] After grinding, the first set of placement blocks 208 aligns with the pad 116 and the transfer assembly 3. At this time, the bolt 212 of the first set of placement blocks 208 aligns with the motor 206. The reverse plate 305 is driven to rotate on the adjustment frame 302. The reverse plate 305 aligns with the first set of placement blocks 208. The adjustment frame 302 is driven to slide on the base 301. The adjustment frame 302 drives the reverse plate 305 to approach the first set of placement blocks 208. At this time, the first limit post 209 is inserted into the locking hole 306. The second energizing post 307 is inserted into the energizing port 210 on the outside of the first set of placement blocks 208. The electromagnet block in the locking hole 306 is activated. The reverse plate 305 is fixed to the first set of placement blocks 208. The disassembly frame 202 is driven to slide on the base 201. The disassembly frame 202 drives the motor 206 to insert into the bolt 212. The motor 206 is activated. The motor 206 loosens the bolt 212 and releases the fixation between the first set of placement plates 207 and the first set of placement blocks 208.

[0049] At this time, the energizing post 213 on the placement block 208 is turned off, releasing the fixation of the placement block 208 by the energizing post 213. Simultaneously, the energizing post 307 is activated, which supplies power to the electromagnet block inside the placement block 208, causing the pad to be attracted and fixed, thus fixing the pad 116. First, the adjusting frame 302 is driven to move, which in turn moves the placement block 208, pulling it out of the energizing post 213 and driving the reversing plate. Rotation 305 causes the reversing plate 305 to flip the placement block 208, which then flips onto the placement block 206. The placement block 208 and the placement block 206 are opposite each other, and the grooves on the placement block 208 and the placement block 206 correspond to each other. At this time, the energizing post 207 is turned off, and the electromagnet block on the placement block 208 is turned off. After the energizing post 207 is turned off, the pad 116 falls into the groove of the placement block 206. The transfer assembly 3 resets the placement block 208.

[0050] After the pad 116 is placed on the second placement block 406, the second placement plate 402 is driven to rotate. The second placement plate 402 drives the second placement block 406 to the lower end of the limit frame 512, and drives the limit frame 512 to descend. The limit frame 512 drives the limit plate 514 to descend. The distance between the multiple sets of limit plates 514 is greater than the diameter of the pad 116. When the transfer component 3 flips the pad 116, there may be some problems with the pad 116 not entering the groove, and some pads 116 may have their sides raised. After the limit plate 514 approaches the second placement block 406, the seventh mounting bracket 516 is driven to slide on the fourth mounting bracket 502. When the limit plate 514 moves, it pushes the pad 116 to move. The limit plate 514 pushes the pad 116 into the groove of the second placement block 406, completing the placement of the pad 116. Then, the electromagnet block on the second placement block 406 is activated to complete the fixation of the pad 116.

[0051] Continue to drive the placement disc 2 402 to rotate. The placement disc 2 402 drives the placement block 2 406 to the lower end of the wiping disc 2 511. Drive the mounting bracket 6 509 to move. The mounting bracket 6 509 drives the wiping disc 2 511 to fit with the pad 116. Start the wiping disc 2 511. The wiping disc 2 511 polishes the surface of the pad 116. Then, the placement block 2 406 reaches the lower end of the grinding bracket 2 506. Drive the mounting bracket 5 505 to move. The mounting bracket 5 505 drives the grinding belt 2 507 to fit with the pad 116. Drive the grinding belt 2 507 to rotate. The grinding belt 2 507 polishes the pad 116, completing the double-sided polishing of the pad 116.

Claims

1. A precision grinding device for carbon steel gaskets, characterized in that: The system includes a placement component 1 (2), a placement component 2 (4), and a transfer component (3). The placement component 1 (2) includes a base 2 (201), on which a placement disk 1 (207) is rotatably mounted. Multiple placement blocks 1 (208) are detachably mounted on the placement disk 1 (207). The placement component 2 (4) includes a base 4 (401), on which a placement disk 2 (402) is rotatably mounted. Multiple placement blocks 2 (406) are detachably mounted on the placement disk 2 (402). Both placement blocks 1 (208) and placement blocks 2 (406) have grooves, in which a pad (116) is placed. The placement disk 2 (402) is positioned at a lower height than the placement disk 2 (402). Both placement blocks 1 (208) and placement blocks 2 (406) are fixed to the pad (116) by electromagnet blocks. It also includes a grinding component one (1) and a grinding component two (5). The grinding component one (1) includes a base one (101), a grinding mechanism one and a mounting frame three (109) are provided on the base one (101), a feeding rack (110) is provided on the mounting frame three (109), and multiple sets of pads (116) are stacked inside the feeding rack (110). The feeding rack (110) is aligned with the groove on the placement block one (208). The grinding component 2 (5) includes a base 5 (501), on which a grinding mechanism 2 and a mounting bracket 4 (502) are provided. A mounting bracket 7 (516) is slidably provided on the mounting bracket 4 (502), and a limit bracket (512) is slidably provided on the mounting bracket 7 (516).

2. The precision grinding equipment for carbon steel gaskets according to claim 1, characterized in that: The diameter of the grooves on the first placement block (208) and the second placement block (406) is greater than the diameter of the gasket (116), and the depth of the groove in the second placement block (406) is less than the depth of the groove on the second gear (205).

3. The precision grinding equipment for carbon steel gaskets according to claim 1, characterized in that: The grinding mechanism includes a mounting frame (102) that is slidably mounted on a base (101). A grinding frame (113) is provided on the mounting frame (102). A grinding belt (114) is rotatably provided on the grinding frame (113). The grinding belt (114) grinds the pad (116).

4. The precision grinding equipment for carbon steel gaskets according to claim 1, characterized in that: The lower end of the limiting frame (512) is provided with multiple sets of limiting plates (514), which adjust the position of the gasket (116).

5. The precision grinding equipment for carbon steel gaskets according to claim 1, characterized in that: The placement block (208) is provided with a limiting post (209) and two sets of power ports (210). One set of power ports (210) is located on the outside of the placement block (208), and the other set of power ports (210) is located on the inside of the placement block (208). The placement tray (207) is provided with a power post (213), which is inserted into the power port (210) on the inside of the placement block (208).

6. The precision grinding equipment for carbon steel gaskets according to claim 5, characterized in that: The reversing plate (305) is provided with a locking hole (306) and a second power-conducting post (307). The first limiting post (209) is inserted into the locking hole (306). The locking hole (306) fixes the first placement block (208) by an electromagnet block. The second power-conducting post (307) is inserted into the first power-conducting port (210) on the outside of the first placement block (208) to provide power.

7. The precision grinding equipment for carbon steel gaskets according to claim 1, characterized in that: The placement block one (208) and placement block two (406) are fixed by bolts (212) and bolt two (409) respectively. The lower end of the placement component one (2) is slidably provided with a disassembly frame (202). The disassembly frame (202) is provided with a motor seven (206), which tightens or loosens the bolts (212).

8. The precision grinding equipment for carbon steel gaskets according to claim 1, characterized in that: The second grinding mechanism includes a mounting frame five (505) that is slidably mounted on a base five (501). A second grinding frame two (506) is provided at the lower end of the mounting frame five (505). A second grinding belt two (507) is rotatably mounted on the second grinding frame two (506). The second grinding belt two (507) grinds the other side of the pad (116).

9. The precision grinding equipment for carbon steel gaskets according to claim 8, characterized in that: The second placement block (406) has power ports (408) on both its inner and outer sides. The second placement plate (402) has a power post (410) inserted into the power port (408) on the inner side of the second placement block (406) to supply power.

10. The precision grinding equipment for carbon steel gaskets according to claim 1, characterized in that: The transfer component (3) includes a base three (301), an adjustment frame (302) is slidably arranged on the base three (301), a reversing plate (305) is rotatably arranged on the adjustment frame (302), and the reversing plate (305) drives the placement block one (208) to flip, placing the placement block one (208) on the placement block two (406).

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