A forging processing pick-up device

Abstract

This invention discloses a forging removal device, relating to the field of forging processing technology. It includes a base, a cooling assembly, and an ejection assembly. A first hydraulic cylinder is mounted on the top outer end of the base, and a lifting assembly is mounted on the output end of the first hydraulic cylinder. In this invention, a motor drives a drive gear to mesh with a driven gear, causing a rotating table to rotate via the rotating base. The rotating table drives a rotating rod to rotate, but due to the rectangular outer and circular inner structure of the lifting sleeve, it does not rotate itself. Rotation causes the locking block to align with the locking groove. The lifting base moves downwards with the forging, causing the lifting sleeve to move to the same height as the locking block and locking groove. An electric push rod pushes out the locking block and engages it in the locking groove, combining the lifting sleeve with the rotating rod. After the forging cools, the first hydraulic cylinder drives the lifting assembly to move the ejection assembly upwards, and the lifting base ejects the forging from the forging press. This design protects the lifting base from forging damage and ensures smooth ejection of the forging through the combined structure, thus extending the equipment's lifespan.

Description

Technical Field

[0001] This invention relates to the field of forging processing technology, specifically to a forging removal device. Background Technology

[0002] Forging is the main method for manufacturing high-strength and high-reliability parts. During the forging process, the high-temperature forging is placed in the forging press for plastic deformation. The finished product needs to be pushed out of the forging press in a timely and stable manner so that subsequent processes can be carried out.

[0003] However, existing product launch structures have many shortcomings in practical applications:

[0004] 1. Problem of easy damage to lifting components: During the forging impact process, the huge pressure of the forging is directly applied to the lifting components (usually lifting rods or lifting blocks). Traditional rigid lifting structures lack effective buffer protection mechanisms. Under the long-term huge impact load, they are prone to deformation, breakage or wear, resulting in high equipment failure rate, increased maintenance costs and shortened overall equipment life.

[0005] 2. Difficulty in determining the forming state of forgings: The forging process is carried out under high temperature and high pressure. The internal environment of the forging press is harsh, and it is difficult to directly observe with the naked eye whether the forging has completely filled the cavity and reached the final forming size. Existing technologies often rely on experience judgment or simple stroke control, which makes it difficult to accurately and reliably confirm whether the forging has been truly forged. If it is forcibly pushed out before it is fully formed, it will cause scrap. If the forging is over-forged and the waiting time is too long, it will reduce production efficiency.

[0006] 3. High-temperature environment and thermal deformation: The temperature of the forging and the die is extremely high during forging. The strong heat radiation generated will act on the ejection mechanism and its supporting structure under the forging press. The long-term high-temperature environment will cause the metal parts to thermally expand or even deform, affecting the motion accuracy, jamming reliability and performance stability of components such as sensors of the ejection mechanism. Existing equipment lacks effective active protection measures against this.

[0007] 4. Cooling efficiency bottleneck: The natural cooling rate of forgings in the forging press is relatively slow, which has become an important factor restricting the improvement of production cycle. Although mold cooling technology has been widely used, existing technical solutions have limitations in the targeted and rapid cooling of the forging press body and the high-temperature area around the ejection mechanism, especially in how to efficiently guide the cooling medium to the key high-temperature area to accelerate the cooling of the forgings and protect the ejection mechanism. Summary of the Invention

[0008] The purpose of this invention is to provide a part-removing device for forging processing, so as to solve the problems mentioned in the background art.

[0009] To achieve the above objectives, the present invention provides the following technical solution: a forging removal device, comprising a base, a cooling assembly, and an ejection assembly. A first hydraulic cylinder is mounted on the top outer end of the base, and a lifting assembly is mounted on the output end of the first hydraulic cylinder. Cooling assemblies are mounted on both outer ends of the base, and an ejection assembly is mounted inside the lifting assembly. The ejection assembly includes a rotating seat, a rotating platform is mounted on the top outer end of the rotating seat, and a driven gear is provided on the outer end of the rotating platform. A motor is mounted inside the lifting assembly, and the output end of the motor... The rotating platform is equipped with a drive gear. A rotating rod is mounted on the top outer end of the rotating platform, and a pressure sensor is fixed to the outer end of the rotating rod. An electric push rod is mounted inside the rotating rod, and a locking block is provided at the output end of the electric push rod. A lifting sleeve is sleeved on the outer end of the rotating rod, and a buffer spring is provided between the lifting sleeve and the rotating rod. A lifting seat is provided on the top outer end of the lifting sleeve, and a pressing seat is provided on the bottom outer end of the lifting sleeve. A locking groove is opened inside the lifting sleeve. A positioning frame is mounted on the top outer end of the base, and a forging seat is mounted on the top of the positioning frame.

[0010] Furthermore, the lifting assembly includes a lifting platform, the interior of which is provided with a water channel, and the two ends of the lifting platform are provided with connecting ports.

[0011] Furthermore, the rotating seat and rotating platform are installed inside the lifting platform, and the rotating rod extends through the lifting platform to its top outer end.

[0012] Furthermore, the cooling component includes a support base, a second hydraulic cylinder is mounted on the outer end of the support base, and a side fitting seat is provided at the output end of the second hydraulic cylinder. An upper fitting seat is provided on the side of the side fitting seat away from the second hydraulic cylinder. Water injection grooves are opened on the inner sides of the side fitting seat and the upper fitting seat. A water pipe is provided on the side of the side fitting seat near the second hydraulic cylinder, and a connecting pipe is provided on the side of the side fitting seat near the lifting platform.

[0013] Furthermore, the side fitting seat and the upper fitting seat are an integrated structure, and the side fitting seat is fitted to the outer surface of the lifting platform.

[0014] Furthermore, the upper surface of the upper fitting seat is fitted with the lower surface of the forging seat, and the lower surface of the upper fitting seat is fitted with the top surface of the lifting platform.

[0015] Furthermore, when the side fitting seat is fitted with the lifting platform, the connecting pipe is inserted into the inside of the connecting port, and the water pipe is connected to the connecting pipe through the water injection groove.

[0016] Furthermore, the lifting sleeve is connected to the forging seat, and the outer contour of the lifting sleeve is rectangular, while the inner contour of the lifting sleeve is circular.

[0017] Furthermore, the motor drives the drive gear to rotate, and the drive gear, through meshing with the driven gear, drives the rotating table and the rotating rod to rotate.

[0018] Furthermore, the lifting sleeve is elastically connected to the rotating rod via a buffer spring, and the size of the engaging block matches that of the engaging groove.

[0019] This invention provides a forging removal device, which has the following advantages:

[0020] 1. During the forging process of this invention, the bottom surface of the forging is attached to the lifting seat. The impact force is transmitted to the lifting seat through the forging. The lifting seat is buffered by the compression buffer spring of the lifting sleeve to prevent damage and deformation from affecting the subsequent lifting and ejection. After the forging is formed, it will squeeze the lifting seat to the designated position, so that the compression seat at the bottom of the lifting sleeve is attached to the pressure sensor at the outer end of the rotating rod. By detecting whether the pressure sensors of all ejection components are under pressure, it can be determined whether the forging is fully formed, effectively avoiding the problem of incomplete forming caused by high temperature and difficulty in observation.

[0021] 2. In this invention, when all pressure sensors of the ejection components sense pressure, the motor drives the drive gear to mesh with the driven gear, causing the rotating table to rotate via the rotating seat. The rotating table drives the rotating rod to rotate, but due to the rectangular outer and circular inner structure of the lifting sleeve, it does not rotate itself. The rotation aligns the locking block with the locking groove. The lifting seat moves down with the forging, causing the lifting sleeve to move to the same height as the locking block and the locking groove. The electric push rod pushes out the locking block and engages it in the locking groove, combining the lifting sleeve with the rotating rod. After the forging cools, the first hydraulic cylinder drives the lifting component to move the ejection component upward. The lifting seat pushes the forging out of the forging press seat. This design protects the lifting seat from forging damage and ensures smooth ejection of the forging through the combined structure, thus improving the equipment life.

[0022] 3. Before the forging enters the forging press, the second hydraulic cylinder drives the side contact seat to move towards the lifting platform, so that its side contacts the lifting platform. At the same time, the upper contact seat contacts the forging press and the lifting platform respectively. During the movement, the connecting pipe is inserted into the connecting port to connect with the water channel. During forging, the external water pipe is connected to the water channel on one side to inject clean water. The water flows through the water channel, the connecting pipe, and the water channel to the water channel on the other side and flows out from the water channel on that side. This circulating cold water reduces the high temperature radiation received by the ejection component (located in the lifting platform and exposed on both sides of the upper contact seat), prevents its thermal deformation, and improves stability. The continuous injection of cold water can also remove the heat of the forging press through the upper contact seat, accelerate the cooling of the forging, and improve the forging efficiency. Attached Figure Description

[0023] Figure 1 This is a schematic diagram of the overall three-dimensional structure of a forging processing device according to the present invention;

[0024] Figure 2 This is a schematic diagram of the unfolded structure of the cooling component of a forging removal device according to the present invention;

[0025] Figure 3 This is a schematic diagram of the cooling component storage structure of a forging processing part removal device according to the present invention;

[0026] Figure 4 This is a schematic diagram of the internal structure of the lifting platform of a forging processing device according to the present invention;

[0027] Figure 5 This is a schematic diagram of the overall structure of the ejection assembly of a forging processing device according to the present invention;

[0028] Figure 6 This is an exploded view of the ejection assembly of a forging processing device according to the present invention;

[0029] Figure 7 This is a cross-sectional view of the ejection assembly of a forging processing device according to the present invention.

[0030] Figure 8 This is a schematic cross-sectional view of the overall structure of a forging processing device according to the present invention.

[0031] In the diagram: 1. Base; 2. First hydraulic cylinder; 3. Lifting assembly; 301. Lifting platform; 302. Water channel; 303. Through port; 4. Cooling assembly; 401. Support seat; 402. Second hydraulic cylinder; 403. Side fitting seat; 404. Upper fitting seat; 405. Water injection tank; 406. Water pipe; 407. Through pipe; 5. Push-out assembly; 501. Rotating seat; 502. Rotating platform; 503. Driven gear; 504. Motor; 505. Drive gear; 506. Rotating rod; 507. Pressure sensor; 508. Electric push rod; 509. Locking block; 510. Lifting sleeve; 511. Buffer spring; 512. Lifting seat; 513. Extrusion seat; 514. Locking groove; 6. Positioning frame; 7. Forging seat. Detailed Implementation

[0032] Please see Figures 1 to 8The present invention provides a technical solution: a forging removal device, comprising a base 1, a cooling component 4, and an ejection component 5. A first hydraulic cylinder 2 is mounted on the top outer end of the base 1, and a lifting component 3 is mounted on the output end of the first hydraulic cylinder 2. The cooling components 4 are mounted on both outer ends of the base 1, and the ejection component 5 is mounted inside the lifting component 3. The ejection component 5 includes a rotating seat 501, a rotating platform 502 is mounted on the top outer end of the rotating seat 501, and a driven gear 503 is provided on the outer end of the rotating platform 502. A motor 504 is mounted inside the lifting component 3, and a driving gear 505 is provided on the output end of the motor 504. A rotating rod 506 is mounted on the top outer end of the rotating platform 502, and a pressure sensor 507 is fixed on the outer end of the rotating rod 506. An electric push rod 508 is mounted inside the rotating rod 506, and a locking block 509 is provided on the output end of the electric push rod 508. A lifting sleeve 510 is sleeved on the outer end of the rotating rod 506, and a buffer spring 511 is provided between the lifting sleeve 510 and the rotating rod 506. A lifting seat 512 is provided on the top outer end of the lifting sleeve 510, and a pressing seat 513 is provided on the bottom outer end of the lifting sleeve 510. A locking groove 514 is opened inside the lifting sleeve 510. A positioning frame 6 is installed on the top outer end of the base 1, and a forging seat 7 is installed on the top of the positioning frame 6. The lifting sleeve 510 is sleeved and connected to the forging seat 7. The outer contour of the lifting sleeve 510 is rectangular, and the inner contour of the lifting sleeve 510 is circular. The motor 504 drives the drive gear 505 to rotate, and the drive gear 505 drives the rotating table 502 and the rotating rod 506 to rotate by meshing with the driven gear 503. The lifting sleeve 510 is elastically connected to the rotating rod 506 through the buffer spring 511. The size of the locking block 509 matches that of the locking groove 514.

[0033] The specific operation is as follows: After the worker places the heated forging into the forging press 7, the forging press is used to forge the forging inside the forging press 7. This allows the forging to be forged into the shape of the inner contour of the forging press 7 by external force, thus forming the specified shape. During the forging process, the bottom surface of the forging will fit against the lifting seat 512, and the impact force generated during the forging process will be transmitted to the lifting seat 512 through the forging. After the lifting seat 512 is subjected to the impact force, the lifting sleeve 510 will squeeze the buffer spring 511 to buffer the impact force. This can effectively prevent the lifting seat 512 from being damaged or deformed by the impact force during the forging process, which would affect the subsequent lifting and ejection. The inner bottom of the forging press 7 has a groove with the same shape and size as the outer contour of the forging press 7 (see...). Figure 8During the forging process, the lifting seat 512 retracts into the groove on the inner side of the bottom of the forging seat 7. At this time, the top surface of the lifting seat 512 is at the same height as the inner wall of the forging seat 7. This allows the lifting seat 512 to be used as the bottom surface of the forging seat 7 during the forging process. After the forging is formed, the forging will force the lifting seat 512 to retract completely into the groove inside the forging seat 7. At this point, the pressing seat 513 at the bottom of the lifting sleeve 510 will be in contact with the pressure sensor 507 at the outer end of the rotating rod 506. This allows the pressure sensor 507 to sense the pressure. The design allows operators to determine whether the forging is fully formed by checking if the pressure sensors 507 of all ejection components 5 have detected pressure. Because the temperature of the forging is extremely high during the forging process and the interior of the forging press 7 is difficult to observe effectively, this design greatly reduces the occurrence of incomplete forging due to insufficient forging pressure. After all the pressure sensors 507 of the ejection components 5 have detected pressure, the motor 504 operates, which, through the meshing of the drive gear 505 and driven gear 503, drives the rotating table 502 to rotate via the rotating base 501. The rotating table 502 can drive the rotating rod 506 to rotate. Because the outer contour of the lifting sleeve 510 is rectangular and the inner contour is circular, the rotating rod 506 can rotate without driving the lifting sleeve 510 to rotate. However, the rotation of the rotating rod 506 can cause the locking block 509 to rotate to the same side as the locking groove 514. After the lifting seat 512 moves down with the forging, the lifting sleeve 510 will move to the position where the locking block 509 is at the same height as the locking groove 514. At this time, the electric actuator 508 can push the locking block 509 out of the rotating rod 506 and lock it in. The lifting sleeve 510 is integrated with the rotating rod 506 inside the locking groove 514. After the forging is completely cooled inside the forging press seat 7, the first hydraulic cylinder 2 works to drive the lifting assembly 3 to move the ejection assembly 5 upward. This allows the lifting seat 512 to apply an upward force to the forging, which allows the forging to be ejected from inside the forging press seat 7. Through this design, the lifting seat 512 will not be damaged by the forging pressure during the forging process, and the forging can be smoothly ejected after the forging is completed through the combination connection. This can greatly improve the service life of the equipment.

[0034] Please see Figures 1 to 8The lifting assembly 3 includes a lifting platform 301, with a water channel 302 inside the lifting platform 301 and through ports 303 at both ends outside the lifting platform 301. A rotating seat 501 and a rotating platform 502 are housed inside the lifting platform 301, and a rotating rod 506 extends through the lifting platform 301 to its top outer end. The cooling assembly 4 includes a support base 401, with a second hydraulic cylinder 402 mounted on its outer end. A side-fitting seat 403 is provided at the output end of the second hydraulic cylinder 402, and an upper-fitting seat 404 is provided on the side of the side-fitting seat 403 away from the second hydraulic cylinder 402. Inlet ports are provided on the inner sides of the side-fitting seat 403 and the upper-fitting seat 404. A water tank 405 and a side-fitting seat 403 are provided with a water pipe 406 on the side near the second hydraulic cylinder 402, and a connecting pipe 407 is provided on the side of the side-fitting seat 403 near the lifting platform 301. The side-fitting seat 403 and the upper-fitting seat 404 are an integrated structure, and the side-fitting seat 403 is fitted with the outer surface of the lifting platform 301. The upper surface of the upper-fitting seat 404 is fitted with the lower surface of the forging seat 7, and the lower surface of the upper-fitting seat 404 is fitted with the top surface of the lifting platform 301. When the side-fitting seat 403 is fitted with the lifting platform 301, the connecting pipe 407 is inserted into the inside of the connecting port 303, and the water pipe 406 is connected to the connecting pipe 407 through the water injection tank 405.

[0035] The specific operation is as follows: Before the forging workpiece enters the forging press 7 for forging, the second hydraulic cylinder 402 operates, which drives the side fitting seat 403 to move towards the lifting platform 301. This allows the side fitting seat 403 to fit against the side of the lifting platform 301, while the upper fitting seat 404 fits against the forging press 7 and the lifting platform 301 on its upper and lower surfaces, respectively. During the process of the side fitting seat 403 fitting against the side of the lifting platform 301, the connecting pipe 407 can be inserted into the connecting port 303. During the forging process, the operator can connect the water pipe outside the equipment to the water pipe 406 on one side of the equipment and fill it with water. Clean water can enter the water tank 405 through the water pipe 406. Because the connecting pipe 407 can be inserted into the connecting port 303 and connected to the water tank 302, clean water can enter the water tank 305. 02 Inside, and into the water injection tank 405 on the other side of the equipment. Because the ejector component 5 is placed inside the lifting platform 301 and its exposed part is located on both sides of the upper fitting seat 404, the equipment can reduce the high temperature radiation from forging to the ejector component 5 by using low temperature clean water. This can prevent the ejector component 5 from thermal deformation due to the high temperature during forging. This design can greatly improve the working stability of the equipment. In addition, by injecting water into the water pipe 406 on one side, the water can flow out from the water pipe 406 on the other side. This allows the water in the water injection tank 405 and the water channel 302 to remain at a low temperature. After the forging is completed, by continuously injecting low temperature clean water, the heat of the forging seat 7 can be carried away by the upper fitting seat 404 that is attached to it. This can accelerate the cooling speed of the forging and thus improve the forging efficiency of the forging.

[0036] In summary, this forging processing part-removing device, before the forging enters the forging press 7 for forging, operates via the second hydraulic cylinder 402, which moves the side-fitting seat 403 towards the lifting platform 301. This allows the side-fitting seat 403 to fit against the side of the lifting platform 301, while the upper-fitting seat 404 fits against the forging press 7 and the lifting platform 301 respectively. During the process of the side-fitting seat 403 fitting against the side of the lifting platform 301, the connecting pipe 407 can be inserted into the connecting port 303. During the forging process, the operator can connect the water pipe outside the equipment to the water pipe 406 on one side of the equipment. Water is then added, and clean water can enter the water injection tank 405 through the water pipe 406. Since the connecting pipe 407 can be inserted into the connecting port 303 and connected to the water injection tank 302, clean water can enter the water injection tank 302 and then enter the water injection tank 405 on the other side of the equipment. Since the ejector component 5 is placed inside the lifting platform 301 and its exposed part is located on both sides of the upper fitting seat 404, through this design, the equipment can reduce the high temperature radiation from forging to the ejector component 5 by using low temperature clean water. This can prevent the ejector component 5 from thermal deformation due to the high temperature during forging. Through this design, the working stability of the equipment can be greatly improved.

[0037] Then, the worker places the heated forging inside the forging press 7, and uses a forging press to forge the forging inside the forging press 7. This allows the forging to be forged into the shape of the inner contour of the forging press 7 by external force, thus forming the specified shape. During the forging process, the bottom surface of the forging will fit against the lifting seat 512, and the impact force generated during the forging process will be transmitted to the lifting seat 512 through the forging. After the lifting seat 512 is subjected to the impact force, it will buffer the impact force by squeezing the buffer spring 511 through the lifting sleeve 510. This can effectively prevent the lifting seat 512 from being damaged or deformed by the impact force during the forging process, which would affect the subsequent lifting and ejection. The inner bottom of the forging press 7 has a groove with the same shape and size as the outer contour of the forging press 7 (see...). Figure 8During the forging process, the lifting seat 512 retracts into the groove on the inner side of the bottom of the forging seat 7. At this time, the top surface of the lifting seat 512 is at the same height as the inner wall of the forging seat 7. This allows the lifting seat 512 to be used as the bottom surface of the forging seat 7 during the forging process. After the forging is formed, the forging will squeeze the lifting seat 512 into the groove inside the forging seat 7. At this point, the extrusion seat 513 at the bottom of the lifting sleeve 510 will be in contact with the pressure sensor 507 at the outer end of the rotating rod 506. This allows the pressure sensor 507 to sense the pressure. Through this design, the operator can determine whether the pressure sensor 507 of all the ejector components 5 senses the pressure and determine whether the forging is completely forged. Because the temperature of the forging is extremely high during the forging process and it is difficult to effectively observe the inside of the forging seat 7, this design can greatly reduce the occurrence of incomplete forging due to insufficient forging during the forging process.

[0038] Next, water is injected into one side of the water pipe 406, and the water can flow out from the other side of the water pipe 406. This allows the water in the water injection tank 405 and the water channel 302 to remain at a low temperature. After the forging is completed, by continuously injecting low-temperature clean water, the heat of the forging seat 7 can be carried away by the upper contact seat 404 that is in contact with it. This can accelerate the cooling rate of the forging and thus improve the forging efficiency of the forging.

[0039] Then, after all the pressure sensors 507 of the ejection components 5 of the equipment have sensed the pressure, the motor 504 works, which drives the rotating table 502 to rotate through the rotating seat 501 via the meshing of the drive gear 505 and the driven gear 503. This allows the rotating table 502 to drive the rotating rod 506 to rotate. Since the outer contour of the lifting sleeve 510 is rectangular and the inner contour is circular, the rotating rod 506 does not drive the lifting sleeve 510 to rotate during the rotation. However, the rotation of the rotating rod 506 can cause the locking block 509 to rotate to the same side as the locking groove 514. After the lifting seat 512 moves down with the forging, the lifting sleeve 510 will move to the position where the locking block 509 is at the same height as the locking groove 514. At this time, the electric push rod 508 works, which can push the locking block 509 out of the rotating rod 506 and lock it into the locking groove 514. This allows the lifting sleeve 510 to be combined with the rotating rod 506 as one unit.

[0040] After the forging is completely cooled inside the forging press 7, the first hydraulic cylinder 2 operates, which causes the lifting assembly 3 to drive the ejection assembly 5 to move upward. This allows the lifting press 512 to apply an upward force to the forging, enabling the forging to be ejected from inside the forging press 7. This design ensures that the lifting press 512 will not be damaged by the forging pressure during the forging process, and that the forging can be smoothly ejected after the forging is completed through a combination connection, which greatly improves the service life of the equipment.

[0041] It should be noted that, in this document, the terms “comprising,” “including,” or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0042] This article uses specific examples to illustrate the principles and implementation methods of the present invention. The above examples are only for the purpose of helping to understand the method and core ideas of the present invention. The above descriptions are only preferred embodiments of the present invention. It should be noted that due to the limitations of textual expression, while there are objectively infinite specific structures, those skilled in the art can make several improvements, modifications, or changes without departing from the principles of the present invention, and can also combine the above technical features in an appropriate manner. These improvements, modifications, changes, or combinations, or the direct application of the inventive concept and technical solution to other situations without modification, should all be considered within the scope of protection of the present invention.

Claims

1. A forging removal device, characterized in that, The system includes a base (1), a cooling assembly (4), and a push-out assembly (5). A first hydraulic cylinder (2) is mounted on the top outer end of the base (1), and a lifting assembly (3) is mounted on the output end of the first hydraulic cylinder (2). The cooling assembly (4) is mounted on both outer ends of the base (1), and a push-out assembly (5) is mounted inside the lifting assembly (3). The push-out assembly (5) includes a rotating seat (501), a rotating platform (502) is mounted on the top outer end of the rotating seat (501), and a driven gear (503) is provided on the outer end of the rotating platform (502). A motor (504) is mounted inside the lifting assembly (3), and a driving gear (505) is provided on the output end of the motor (504). A rotating rod is mounted on the top outer end of the rotating platform (502). 506), and a pressure sensor (507) is fixed at the outer end of the rotating rod (506). An electric push rod (508) is installed inside the rotating rod (506), and a locking block (509) is provided at the output end of the electric push rod (508). A lifting sleeve (510) is sleeved on the outer end of the rotating rod (506), and a buffer spring (511) is provided between the lifting sleeve (510) and the rotating rod (506). A lifting seat (512) is provided at the top outer end of the lifting sleeve (510), and a pressing seat (513) is provided at the bottom outer end of the lifting sleeve (510). A locking groove (514) is opened inside the lifting sleeve (510). A positioning frame (6) is installed at the top outer end of the base (1), and a forging seat (7) is installed at the top of the positioning frame (6).

2. The forging removal device according to claim 1, characterized in that, The lifting assembly (3) includes a lifting platform (301), the interior of which is provided with a water channel (302), and the two ends of the exterior of the lifting platform (301) are provided with connecting ports (303).

3. The forging removal device according to claim 2, characterized in that, The rotating seat (501) and rotating platform (502) are located inside the lifting platform (301), and the rotating rod (506) extends through the lifting platform (301) to its top outer end.

4. A forging removal device according to claim 2, characterized in that, The cooling component (4) includes a support base (401), a second hydraulic cylinder (402) is mounted on the outer end of the support base (401), and a side fitting seat (403) is provided at the output end of the second hydraulic cylinder (402). An upper fitting seat (404) is provided on the side of the side fitting seat (403) away from the second hydraulic cylinder (402). A water injection groove (405) is opened on the inner side of the side fitting seat (403) and the upper fitting seat (404). A water pipe (406) is provided on the side of the side fitting seat (403) near the second hydraulic cylinder (402), and a connecting pipe (407) is provided on the side of the side fitting seat (403) near the lifting platform (301).

5. A forging removal device according to claim 4, characterized in that, The side fitting seat (403) and the upper fitting seat (404) are an integrated structure, and the side fitting seat (403) is fitted to the outer surface of the lifting platform (301).

6. A forging removal device according to claim 4, characterized in that, The upper surface of the upper fitting seat (404) is fitted with the lower surface of the forging seat (7), and the lower surface of the upper fitting seat (404) is fitted with the top surface of the lifting platform (301).

7. A forging removal device according to claim 4, characterized in that, When the side fitting seat (403) is fitted with the lifting platform (301), the connecting pipe (407) is inserted into the inside of the connecting port (303), and the water pipe (406) is connected to the connecting pipe (407) through the water injection tank (405).

8. A forging removal device according to claim 1, characterized in that, The lifting sleeve (510) is connected to the forging seat (7), and the outer contour of the lifting sleeve (510) is rectangular, while the inner contour of the lifting sleeve (510) is circular.

9. A forging removal device according to claim 1, characterized in that, The motor (504) drives the drive gear (505) to rotate, and the drive gear (505) drives the rotating table (502) and the rotating rod (506) to rotate by meshing with the driven gear (503).

10. A forging removal device according to claim 1, characterized in that, The lifting sleeve (510) is elastically connected to the rotating rod (506) via a buffer spring (511), and the size of the locking block (509) matches that of the locking groove (514).

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