An integrated medium-frequency heating and forging equipment with adaptive push function
By introducing a feeding and pushing mechanism into the medium-frequency heating forging integrated equipment, and utilizing the combined design of cylinders, push plates, baffles and elastic structures, stable feeding and flexible pushing of bar stock are achieved, solving the problems of jamming and impact during bar stock transfer, ensuring the continuity and accuracy of feeding, and improving production efficiency and quality.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- ANHUI LISHENG PRECISION FORGING CO LTD
- Filing Date
- 2026-04-24
- Publication Date
- 2026-06-02
AI Technical Summary
In existing integrated medium-frequency heating forging equipment with adaptive push, when the chain conveyor transports the bar stock to the transfer stage before the push cylinder, it generally adopts the method of direct cylinder push and inclined gravity drop. This causes the bar stock to easily get stuck due to the center of gravity shift and friction with the inclined wall during the descent of the inclined plane, affecting the production cycle. In addition, the bar stock is prone to impact and bounce or even derailment when falling, reducing the feeding accuracy. At the same time, the rigid contact of the push cylinder can easily cause the bar stock to bounce in the track, further increasing the risk of derailment.
The design employs a combination of a feeding mechanism and a pushing mechanism. The first cylinder drives the push plate and the baffle to achieve stable feeding and flexible pushing of the bar stock. The support structure of the support frame and support plate limits the deviation of the bar stock, and the design of the elastic baffle and spring avoids jamming and impact. The pushing mechanism drives the push rod to make flexible contact with the sleeve rod through the second cylinder, and uses spring buffer to reduce the collision force, ensuring smooth pushing and precise guidance of the bar stock.
It effectively solves the problems of jamming and bouncing of bar stock when it slides down the slope, ensuring the continuity and accuracy of feeding, preventing bar stock from bouncing up and derailing in the track, ensuring stable transfer of bar stock and coaxiality during the heating process, and improving the smoothness and precision of production.
Smart Images
Figure CN122125157A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the technical field of metal hot working forging equipment, and in particular to an integrated medium-frequency heating forging equipment with adaptive push function. Background Technology
[0002] Medium-frequency induction heating and forging integrated equipment is an advanced manufacturing equipment that integrates medium-frequency induction heating and forging forming processes into a continuous production line. Its core function is to rapidly and uniformly heat the metal billet to the forging temperature using a medium-frequency power supply, and then a forging press (such as a hydraulic press, mechanical press, or screw press) completes the precision forging at the same or closely connected workstations. This achieves automation and integration of the "heating-forming" process, significantly improving production efficiency, saving energy, and enhancing forging quality. The equipment mainly consists of key mechanisms and modules such as a medium-frequency induction heating power supply, feeding mechanism, heating coil, temperature monitoring system, forging main unit (including molds), discharge mechanism, and overall control system. It is primarily used in industries with high-volume demand for high-performance forgings, such as automotive manufacturing (for producing crankshafts, connecting rods, wheel hubs, etc.), bearing manufacturing, hardware tools, aerospace, and military fields, and is a key component in improving the quality of core parts. Key equipment for component manufacturing, commonly used integrated medium-frequency heating forging and pressing equipment with adaptive pushing, involves a chain conveyor mechanism transporting bar stock to the transfer stage before the pushing cylinder. This typically employs a combination of direct cylinder pushing and gravity-fed dropping from the ramp. After being pushed off the chain, the bar stock slides down the ramp under its own weight into the track before the pushing cylinder. However, this transfer method has several drawbacks. The bar stock is prone to jamming during its descent due to center of gravity shift and friction against the ramp wall, leading to feeding interruptions and impacting production rhythm. Furthermore, the bar stock is susceptible to impact and bouncing when falling onto the track, potentially causing derailment and reducing feeding accuracy. Additionally, the rigid contact between the pushing cylinder's push rod and the bar stock, coupled with sudden impact forces, can cause the bar stock to bounce within the track, further increasing the risk of derailment.
[0003] To address the aforementioned issues, a search revealed a patent with publication number CN116793091B that discloses a medium-frequency induction heating to forging blanking system. The patent proposes: "1. By configuring a slide rail assembly, a receiving assembly, and a flipping assembly, and utilizing the cooperation of the receiving and flipping assemblies, the automatic movement and flipping of the material block is achieved, improving the consistency of the flipping angle during the automatic blanking process, reducing positional deviations when multiple material blocks are blanked, reducing the possibility of malfunctions during automatic blanking, improving the smoothness of blanking processing, and thus improving processing efficiency; 2. Through the configuration of a transmission rod, a guide sleeve rod, and a rotating connecting plate, the material block moves along the slide rail into the receiving cylinder, and under the action of its own weight..." The pressure-bearing transmission rod moves axially within the guide sleeve, with the end of the transmission rod furthest from the material block abutting against the rotating connecting plate. This causes the rotating connecting plate to rotate under the pressure of the transmission rod, triggering a sensor switch at the end of the rotating connecting plate furthest from the transmission rod. The entire process is automated, requiring no manual intervention for material block unloading, clamping, and transfer. While the inclusion of flipping, clamping, and linkage components improves the consistency and automation of material unloading and achieves energy-saving linkage between material blocking and receiving, this structure is designed for material blocks and cannot adapt to the needs of transferring and pushing bar stock. It also fails to address the issues of bar stock jamming on inclined drop slopes and derailment during rigid pushing.
[0004] In light of this, in-depth research into the aforementioned issues led to the creation of this case. Summary of the Invention
[0005] The purpose of this invention is to provide an integrated medium-frequency heating forging and pressing device with adaptive pushing, to solve the problems mentioned in the background art. In the existing integrated medium-frequency heating forging and pressing devices with adaptive pushing, during use, the chain conveyor mechanism transports the bar stock to the transfer stage before the pushing cylinder. The common method is to directly push the bar stock with the cylinder and then drop it by gravity along the ramp. After being pushed off the chain, the bar stock slides down the ramp by its own gravity into the track in front of the pushing cylinder. However, this transfer method has the problem that the bar stock is prone to jamming due to the shift of the center of gravity and friction with the ramp wall during the descent, which leads to interruption of feeding and affects the production cycle. At the same time, the bar stock is prone to impact and bounce when it falls onto the track, and may even derail, reducing the feeding accuracy. In addition, the push rod of the pushing cylinder makes rigid contact when pushing the bar stock, and the sudden impact force can easily cause the bar stock to bounce up in the track, further increasing the risk of derailment.
[0006] To achieve the above objectives, the present invention provides the following technical solution: an integrated medium-frequency heating forging and pressing device with adaptive pushing, comprising a base, a feeding mechanism, and a pushing mechanism. The upper surface of the base is connected to a first bracket, the inner ring surface of the through hole at the upper end of the first bracket is connected to a connecting rod, the outer ring surface of the connecting rod is fitted with a support frame, and the side of the support frame is provided with a feeding mechanism. The dialing mechanism includes a first cylinder, the output end of the first cylinder is connected to a push plate, a support frame is connected to one side surface of the push plate, and a baffle is connected to the inner ring surface of the support frame. A pushing mechanism is provided above the base; The pushing mechanism includes a second cylinder, and a push rod is connected to the output end of the second cylinder.
[0007] Preferably, a first support plate is connected to one side surface of the support frame, and the upper surface of the first support plate is connected to the lower surface of the first cylinder.
[0008] Preferably, a first support plate is connected to one side surface of the support frame, a second support plate is connected to one side surface of the first support plate, and a second support plate is connected to one side surface of the second support plate.
[0009] Preferably, a collar is fitted on the outer surface of the connecting rod, and a support rod is connected to the outer surface of the collar. One side surface of the support rod is connected to one side surface of the second support plate.
[0010] Preferably, both sides of the baffle are connected to connecting blocks, and the side of the support frame is provided with a transverse through groove, the inner ring surface of the transverse through groove being slidably connected to the outer ring surface of the connecting block.
[0011] Preferably, the support frame has a vertical through hole, the inner surface of the vertical through hole is connected to a limiting post, the upper surface of the limiting post is connected to the lower surface of the baffle, and the outer ring of the limiting post is provided with a first spring.
[0012] Preferably, a second bracket is connected to the upper surface of the base, a third support plate is connected to the upper surface of the second bracket, a third bracket is connected to the upper surface of the base, a support arc plate is connected to the upper surface of the third bracket, and the upper surface of the third support plate is connected to the lower surface of the second cylinder.
[0013] Preferably, a sleeve rod is fitted on the outer ring surface of the push rod, a limit rod is connected to the inner side surface of the sleeve rod, the outer ring surface of the limit rod is slidably connected to the inner ring surface of the push rod, and a second spring is provided on the outer ring of the limit rod.
[0014] Preferably, a gear is sleeved on the outer ring surface of the connecting rod, and a chain is meshed on the outer ring surface of the gear. A fixing block is connected to one side surface of the first bracket, and a diagonal brace is connected to the upper side surface of the fixing block. The upper side surface of the diagonal brace is connected to the lower side surface of the first support plate.
[0015] Preferably, a support leg is connected to the upper surface of the base, a worktable is connected to the side of the support leg, and a heating box is connected to the upper surface of the worktable.
[0016] Compared with the prior art, the beneficial effects of the present invention are: 1. This integrated medium-frequency heating forging and pressing equipment with adaptive push mechanism, through the setting of the feeding mechanism, during operation, after the chain-conveyed bar stock is transported to the first support tray area, the support frame blocks the bar stock, restricting its further forward movement. This drives the first cylinder, at which point the push plate drives the support frame, baffle, and bar stock to move horizontally synchronously. The support rod provides stable support to the second support plate, ensuring the horizontal straightness of the second support plate and the second support tray during the feeding process, preventing the bar stock from shifting during transport. During the forward movement of the feeding mechanism, the tilt of the second support plate and the second support tray is controlled. The lower surface causes the connecting block to slide up and down along the transverse through groove of the support frame. The limiting post moves down with the baffle and compresses the first spring, so that the baffle opens elastically and smoothly. The bar stock falls into the support arc support plate without impact or jamming. This replaces the traditional method of direct cylinder pushing and slope gravity dropping, effectively solving the problem of bar stock jamming caused by center of gravity shift and friction with the slope wall when sliding down the slope. It avoids interruption of feeding and affects the production cycle, and eliminates the bouncing hazard caused by the impact of the falling bar stock. It ensures the stability and continuity of the bar stock transfer process and greatly improves the smoothness of feeding. 2. This integrated medium-frequency heating forging and pressing equipment with adaptive push mechanism, through the setting of the push mechanism, during use, when the second cylinder drives the push rod to push the bar stock towards the heating box, the push rod pushes the sleeve rod forward. After the end of the sleeve rod contacts the end of the bar stock first, the push rod continues to move. After overcoming the friction between the sleeve rod and the push rod, it compresses the second spring. The elastic buffering effect of the second spring realizes the flexible push of the bar stock, effectively offsetting the sudden collision force when the push rod contacts the bar stock, avoiding the bar stock from bouncing or even derailing due to rigid impact within the support arc plate. At the same time, it prevents the end of the bar stock from deforming due to impact, ensuring the integrity of the bar stock's shape. The support arc plate adapts to the arc shape of the bar stock, providing precise guiding support for the bar stock push, ensuring coaxiality during the bar stock push process, so that the bar stock can enter the heating box for medium-frequency induction heating accurately and smoothly. In addition, the limit rod provides limiting and guiding to ensure that the sleeve rod and push rod do not misalign under heating conditions. Attached Figure Description
[0017] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic diagram of the structure in which the base and the second support of the present invention cooperate with each other; Figure 3 This is a schematic diagram of the cooperative structure of the first cylinder and the first support plate of the present invention; Figure 4This is a schematic diagram of the interlocking structure of the connecting rod and gear of the present invention; Figure 5 This is a schematic diagram of the structure in which the baffle and the limiting post cooperate with each other in this invention; Figure 6 This is a schematic diagram of the interaction between the second cylinder and the push rod in this invention; Figure 7 This is a schematic diagram of the structure in which the support leg and the worktable of the present invention cooperate.
[0018] In the diagram: 1. Base; 2. First bracket; 3. Connecting rod; 4. Support frame; 5. Feeding mechanism; 501. First cylinder; 502. Push plate; 503. First support plate; 504. First support tray; 505. Second support tray; 506. Second support plate; 507. Collar; 508. Support rod; 509. Support frame; 510. Baffle; 511. Connecting block; 512. Limiting post; 513. First spring; 6. Pushing mechanism; 601. Second bracket; 602. Third support plate; 603. Third bracket; 604. Support arc tray; 605. Second cylinder; 606. Push rod; 607. Sleeve rod; 608. Limiting rod; 609. Second spring; 7. Gear; 8. Chain; 9. Fixing block; 10. Diagonal brace; 11. Support leg; 12. Workbench; 13. Heating box. Detailed Implementation
[0019] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.
[0020] Please see Figure 1-7 This invention provides a technical solution: an integrated medium-frequency heating and forging device with adaptive pushing, comprising a base 1, a conveying mechanism 5, and a pushing mechanism 6. A first bracket 2 is connected to the upper surface of the base 1. A connecting rod 3 is connected to the inner ring surface of the through hole at the upper end of the first bracket 2. A support frame 4 is sleeved on the outer ring surface of the connecting rod 3. A feeding mechanism 5 is provided on the side of the support frame 4. The dialing mechanism 5 includes a first cylinder 501, the output end of the first cylinder 501 is connected to a push plate 502, a support frame 509 is connected to one side surface of the push plate 502, and a baffle 510 is connected to the inner ring surface of the support frame 509. A pushing mechanism 6 is provided above the base 1; The pushing mechanism 6 includes a second cylinder 605, and the output end of the second cylinder 605 is connected to a push rod 606.
[0021] Furthermore, a first support plate 503 is connected to one side surface of the support frame 4. The upper surface of the first support plate 503 is connected to the lower surface of the first cylinder 501. Through the arrangement of the support frame 4, the first support plate 503 and the first cylinder 501, a stable installation base can be provided for the first cylinder 501 during use. The support frame 4 provides lateral support for the first support plate 503. The first support plate 503 supports and fixes the first cylinder 501, ensuring that the first cylinder 501 will not shake or shift during the pushing operation, thus ensuring the smoothness of the pushing action.
[0022] Furthermore, a first support plate 504 is connected to one side surface of the support frame 4, a second support plate 505 is connected to one side surface of the first support plate 504, and a second support plate 506 is connected to one side surface of the second support plate 505. Through the arrangement of the support frame 4, the first support plate 504, the second support plate 505, and the second support plate 506, a temporary storage and shifting compartment for bar stock can be formed during use. The first support plate 504 receives the bar stock conveyed by the chain, and the second support plate 505 and the second support plate 506 provide a moving platform for the shifting compartment. At the same time, in conjunction with the subsequent structure, the baffle 510 can be opened and closed elastically to complete the stable transfer of bar stock.
[0023] Furthermore, a collar 507 is fitted onto the outer surface of the connecting rod 3, and a support rod 508 is connected to the outer surface of the collar 507. One side surface of the support rod 508 is connected to one side surface of the second support plate 506. Through the arrangement of the connecting rod 3, collar 507, support rod 508 and second support plate 506, horizontal guidance and stable support can be provided for the feeding mechanism 5 during use. The collar 507 is fixed on the connecting rod 3, and the connecting support rod 508 provides lateral support for the second support plate 506 to ensure stability and prevent the bar material from shifting or shaking during feeding.
[0024] Furthermore, connecting blocks 511 are connected to both sides of the baffle 510, and a transverse through groove is provided on the side of the support frame 509. The inner ring surface of the transverse through groove is slidably connected to the outer ring surface of the connecting block 511. Through the arrangement of the baffle 510, the connecting block 511 and the support frame 509, the vertical sliding limit of the baffle 510 can be realized during use. The connecting block 511 slides up and down along the transverse through groove of the support frame 509, limiting the movement direction of the baffle 510, ensuring that the baffle 510 will not be tilted when opening and closing, and ensuring that the bar material falls smoothly into the support arc support plate 604.
[0025] Furthermore, the support frame 509 has a vertical through hole, and the inner surface of the vertical through hole is connected to a limiting post 512. The upper surface of the limiting post 512 is connected to the lower surface of the baffle 510. The outer ring of the limiting post 512 is provided with a first spring 513. Through the arrangement of the support frame 509, the limiting post 512, the baffle 510 and the first spring 513, the baffle 510 can be elastically reset and vertically limited during use. The limiting post 512 slides along the vertical through hole of the support frame 509 to limit the vertical displacement of the baffle 510. The first spring 513 provides a reset elastic force after the baffle 510 is opened, so that the baffle 510 automatically closes after the bar material falls, ready for the next feeding operation.
[0026] Furthermore, a second bracket 601 is connected to the upper surface of the base 1, a third support plate 602 is connected to the upper surface of the second bracket 601, a third bracket 603 is connected to the upper surface of the base 1, a supporting arc plate 604 is connected to the upper surface of the third bracket 603, and the upper surface of the third support plate 602 is connected to the lower surface of the second cylinder 605. Through the arrangement of the base 1, the second bracket 601, the third support plate 602, the third bracket 603, the supporting arc plate 604, and the second cylinder 605, a stable installation and guiding foundation can be provided for the pushing mechanism 6 during use. The second bracket 601 and the third support plate 602 support and fix the second cylinder 605, and the third bracket 603 supports the supporting arc plate 604. The arc structure of the supporting arc plate 604 is adapted to the shape of the bar stock, providing precise guidance for the bar stock pushing and ensuring the coaxiality of the pushing.
[0027] Furthermore, a sleeve rod 607 is fitted onto the outer ring surface of the push rod 606, and a limiting rod 608 is connected to the inner surface of the sleeve rod 607. The outer ring surface of the limiting rod 608 is slidably connected to the inner ring surface of the push rod 606, and a second spring 609 is provided on the outer ring of the limiting rod 608. Through the arrangement of the push rod 606, sleeve rod 607, limiting rod 608, and second spring 609, flexible pushing of the bar stock can be achieved during use. The push rod 606 slides along the limiting rod 608, and the second spring 609 buffers the sudden collision force between the push rod 606 and the bar stock, preventing the bar stock from bouncing off the track or deforming at the end. The limiting rod 608 also restricts the relative position of the sleeve rod 607 and the push rod 606 to prevent misalignment after heating.
[0028] Furthermore, a gear 7 is fitted on the outer ring surface of the connecting rod 3, and a chain 8 is meshed on the outer ring surface of the gear 7. A fixing block 9 is connected to one side surface of the first bracket 2, and a diagonal brace 10 is connected to the upper side surface of the fixing block 9. The upper side surface of the diagonal brace 10 is connected to the lower side surface of the first support plate 503. Through the arrangement of the connecting rod 3, gear 7, chain 8, fixing block 9 and diagonal brace 10, continuous chain conveying of bar stock and reinforcement of equipment structure can be achieved during use. The meshing of gear 7 and chain 8 realizes automated conveying of bar stock. The fixing block 9 and diagonal brace 10 cooperate to provide triangular support for the first support plate 503, improve the installation stability of the conveying mechanism 5, and avoid structural loosening caused by equipment vibration during operation.
[0029] Furthermore, a support leg 11 is connected to the upper surface of the base 1, a worktable 12 is connected to the side of the support leg 11, and a heating box 13 is connected to the upper surface of the worktable 12. Through the arrangement of the base 1, support leg 11, worktable 12 and heating box 13, the overall stable support and medium-frequency heating function of the equipment can be realized during use. The support leg 11 provides stable support for the worktable 12, the worktable 12 supports the heating box 13, and the heating box 13 performs medium-frequency induction heating on the pushed bar stock to the forging temperature to prepare for subsequent forging operations.
[0030] Working principle: First, place the base 1 on a flat production site, connect the power and pneumatic power supply to the equipment, start the drive motor to drive the drive wheel to rotate, the drive wheel drives the chain 8 to rotate, thereby causing the gear 7 on the connecting rod 3 to rotate. The gear 7 meshes with the chain 8 to realize the continuous conveying of the bar stock. After the bar stock is conveyed by the chain 8 to the area of the first support plate 504 on one side of the support frame 4, the support frame 4 blocks the bar stock to limit its further forward movement. The first cylinder 501 is activated. The first cylinder 501 drives the support frame 509, the baffle 510 and the bar stock to move horizontally synchronously through the push plate 502. The support rod 508 serves as the second support plate 506. Lateral support is provided to ensure the horizontal straightness of the feeding process and prevent the bar stock from deviating. During the forward movement of the feeding mechanism 5, the inclined lower surfaces of the second support plate 505 and the second support plate 506 cause the connecting block 511 to slide up and down along the transverse through slot of the support frame 509. The limiting post 512 moves down with the baffle 510 and compresses the first spring 513, so that the baffle 510 opens elastically and smoothly. The bar stock falls into the support arc plate 604 supported by the third bracket 603 without impact or jamming. Then the first cylinder 501 resets, and the first spring 513 drives the baffle 510 to close, preparing for the next feeding operation. Simultaneously, the second cylinder 605 is activated, driving the push rod 606 to move along the limit rod 608 towards the heating box 13. The push rod 606 pushes the sleeve rod 607 forward. After the end of the sleeve rod 607 contacts the end of the bar stock, it continues to move while compressing the second spring 609. The elasticity of the second spring 609 provides a soft push, offsetting the sudden impact force and preventing the bar stock from bouncing off the track or deforming at the end. The arc-shaped structure of the supporting arc plate 604 provides precise guidance for the bar stock, ensuring coaxiality of the push, so that the bar stock enters the heating box 13 accurately and smoothly for medium-frequency induction heating. After heating to the forging temperature, it continues... The cylinder is pushed to the forging station to complete the forming process. The fixed block 9 and the diagonal brace 10 provide triangular support for the first support plate 503, and the support leg 11 and the worktable 12 provide stable support for the whole equipment. The second bracket 601 and the third support plate 602 support and fix the second cylinder 605. All components work together to realize the integrated continuous operation of chain conveying, transfer, flexible pushing and medium frequency heating. The model of the first cylinder 501 is Airtac MI25-100SCA, and the model of the second cylinder 605 is Airtac MI32-150SCA.
[0031] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.
Claims
1. A medium-frequency heating forging integrated device with adaptive push function, comprising a base (1), a conveying mechanism (5), and a pushing mechanism (6), characterized in that: The upper surface of the base (1) is connected to a first bracket (2), the inner ring surface of the through hole at the upper end of the first bracket (2) is connected to a connecting rod (3), the outer ring surface of the connecting rod (3) is fitted with a support frame (4), and the side of the support frame (4) is provided with a feeding mechanism (5). The dialing mechanism (5) includes a first cylinder (501), the output end of the first cylinder (501) is connected to a push plate (502), a support frame (509) is connected to one side surface of the push plate (502), and a baffle (510) is connected to the inner ring surface of the support frame (509). A pushing mechanism (6) is provided above the base (1); The pushing mechanism (6) includes a second cylinder (605), and the output end of the second cylinder (605) is connected to a push rod (606).
2. The integrated medium-frequency heating forging and pressing equipment with adaptive push according to claim 1, characterized in that: The support frame (4) has a first support plate (503) connected to one side surface, and the upper surface of the first support plate (503) is connected to the lower surface of the first cylinder (501).
3. The integrated medium-frequency heating forging and pressing equipment with adaptive push according to claim 1, characterized in that: The support frame (4) has a first support plate (504) connected to one side surface, a second support plate (505) connected to one side surface of the first support plate (504), and a second support plate (506) connected to one side surface of the second support plate (505).
4. The integrated medium-frequency heating forging and pressing equipment with adaptive push according to claim 1, characterized in that: The outer ring surface of the connecting rod (3) is fitted with a collar (507), and the outer ring surface of the collar (507) is connected to a support rod (508). One side surface of the support rod (508) is connected to one side surface of the second support plate (506).
5. The integrated medium-frequency heating forging and pressing equipment with adaptive push according to claim 1, characterized in that: Both sides of the baffle (510) are connected to connecting blocks (511), and the side of the support frame (509) is provided with a transverse through groove. The inner ring surface of the transverse through groove is slidably connected to the outer ring surface of the connecting block (511).
6. The integrated medium-frequency heating forging and pressing equipment with adaptive push according to claim 1, characterized in that: The support frame (509) has a vertical through hole, and a limit post (512) is connected to the inner surface of the vertical through hole. The upper surface of the limit post (512) is connected to the lower surface of the baffle (510), and a first spring (513) is provided on the outer ring of the limit post (512).
7. The integrated medium-frequency heating forging and pressing equipment with adaptive push according to claim 1, characterized in that: The upper surface of the base (1) is connected to a second bracket (601), the upper surface of the second bracket (601) is connected to a third support plate (602), the upper surface of the base (1) is connected to a third bracket (603), the upper surface of the third bracket (603) is connected to a support arc plate (604), and the upper surface of the third support plate (602) is connected to the lower surface of the second cylinder (605).
8. The integrated medium-frequency heating forging and pressing equipment with adaptive push according to claim 1, characterized in that: The outer ring surface of the push rod (606) is fitted with a sleeve rod (607), and the inner side surface of the sleeve rod (607) is connected to a limiting rod (608). The outer ring surface of the limiting rod (608) is slidably connected to the inner ring surface of the push rod (606), and the outer ring of the limiting rod (608) is provided with a second spring (609).
9. The integrated medium-frequency heating forging and pressing equipment with adaptive push according to claim 1, characterized in that: The outer ring surface of the connecting rod (3) is fitted with a gear (7), and the outer ring surface of the gear (7) is meshed with a chain (8). A fixing block (9) is connected to one side surface of the first bracket (2), and a diagonal brace (10) is connected to the upper side surface of the fixing block (9). The upper side surface of the diagonal brace (10) is connected to the lower side surface of the first support plate (503).
10. The integrated medium-frequency heating forging and pressing equipment with adaptive push according to claim 1, characterized in that: The upper surface of the base (1) is connected to a support leg (11), the side of the support leg (11) is connected to a workbench (12), and the upper surface of the workbench (12) is connected to a heating box (13).