High-speed hammer forging device

Abstract

The invention discloses a high-speed hammer forging device, and relates to the technical field of hammer forging equipment. The device comprises a rack, a working cylinder is arranged at the top of the rack, a working piston is slidably connected to the interior of the working cylinder, a hammer head is fixedly connected to the bottom of the working piston, the hammer head is composed of a hammer rod and a hammer disc, multiple sets of vertical swing grooves are annularly formed in the outer side of the hammer rod, and multiple sets of horizontal swing grooves are annularly formed in the top of the hammer disc; a vertical swing rod is hinged to the interior of the vertical swing groove, a horizontal swing rod is hinged to the interior of the horizontal swing groove, and the outer side of the hammer rod is sleeved with a hammer ring. Primary hammer forging is carried out through the hammer head, the hammer ring falls on the hammer disc under the action of gravity to carry out secondary hammer forging, and primary impact and secondary hammer forging are carried out, so that deformation can be more stable, and excessive deformation of a workpiece caused by overlarge single impact force is avoided. The double impact can control the impact force, so that the deformation of the forge piece is more uniform, and unnecessary stress concentration is avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of hammer forging equipment, and particularly relates to a high-speed hammer forging device. Background Art

[0002] The hammer forging process, as an important technology in the field of metal processing, is widely used in the forging industry, especially in fields such as aerospace, automobile manufacturing, and energy equipment, for producing high-performance metal components. The air hammer is a type of free forging machine, which mainly compresses air through a compression cylinder, sends it into the working cylinder through a distribution valve, and pushes the piston together with the hammer head to move up and down to play a hammering role.

[0003] Although the air hammer can effectively perform plastic processing on metal workpieces, under some high-precision and high-efficiency production requirements, the impact frequency and impact force output of traditional equipment are often insufficient, resulting in unsatisfactory machining accuracy and quality of the workpieces. In a Chinese patent (publication number: CN102489649A), an air hammer is disclosed, which includes a motor, a speed reducer, a connecting rod mechanism, a compression cylinder, a working cylinder, and an anvil. The output end of the motor is connected to the speed reducer, the speed reducer is connected to one end of the connecting rod mechanism, the other end of the connecting rod mechanism is connected to the piston rod of the compression cylinder, the compression cylinder and the working cylinder are connected through a first air pipe and a second air pipe, an upper anvil is provided on the piston rod of the working cylinder, the anvil is located directly below the upper anvil, a lower anvil is provided on the anvil, and a switching device for switching compressed air between the compression cylinder and the working cylinder is further included, and the switching device is respectively arranged on the first air pipe and the second air pipe. This patent and the existing air hammers mainly perform one impact and one hammer forging at a time, which easily leads to uneven deformation of the workpiece. Especially in the case of larger workpieces or harder materials, large stress concentrations may occur in local areas of the forgings, thus affecting the overall structural uniformity. Summary of the Invention

[0004] The purpose of the present invention is: to solve the above problems, the present invention provides a high-speed hammer forging device.

[0005] The present invention specifically adopts the following technical solutions to achieve the above purpose:

[0006] A high-speed hammer forging device includes a frame. A working cylinder is arranged at the top of the frame. A working piston is slidably connected inside the working cylinder. A hammer head is fixedly connected to the bottom of the working piston. The hammer head is composed of a hammer rod and a hammer disc. A plurality of groups of vertical swing grooves are annularly formed on the outer side of the hammer rod, and a plurality of groups of horizontal swing grooves are annularly formed on the top of the hammer disc;

[0007] A vertical swing rod is hinged inside the vertical swing groove, and a horizontal swing rod is hinged inside the horizontal swing groove. A cooperative air pressure chamber is formed inside the hammer rod, and a cooperative piston rod is slidably connected inside the cooperative air pressure chamber. The cooperative piston rod operates synchronously with the working piston. A driving gear is provided at the hinge of the vertical swing rod, and a connecting slider is slidably connected to the outside of the vertical swing rod. The connecting slider is hinged to the cooperative piston rod. A sliding shaft is provided at the hinge of the horizontal swing rod, and a driven gear is slidably connected to the sliding shaft. A hammer ring is sleeved outside the hammer rod, and the inner diameter of the hammer ring is smaller than the outer diameter of the hammer plate.

[0008] Further, an air compression assembly and a driving assembly are provided on the back of the frame. The driving assembly consists of a motor and an output pulley. An input pulley is provided at the driving end of the air compression assembly. The input pulley and the output pulley are connected by a transmission belt. The air compression assembly can inject compressed gas into the upper half space and the lower half space of the working cylinder. The upper half space of the cooperative air pressure chamber is communicated with the upper half space of the working cylinder through an upper conduit, and the lower half space of the cooperative air pressure chamber is communicated with the lower half space of the working cylinder through a lower conduit. An anvil is provided at the inner bottom of the frame.

[0009] Further, the radius of the driven gear is smaller than the radius of the driving gear.

[0010] Further, an adjusting gear is rotatably installed inside the horizontal swing rod. An adjusting screw rod is threadedly connected inside the adjusting gear. Both ends of the adjusting screw rod are fixedly installed with connecting plates. The connecting plates are located outside the horizontal swing rod. A top column is fixedly installed on one side of the connecting plate close to the horizontal swing rod. The top column penetrates through the horizontal swing rod and presses against the outside of the driven gear.

[0011] Further, a slot is formed inside the horizontal swing rod. A clamping hole is formed in the inner wall of the slot. A clamping block is slidably connected inside the clamping hole. The top of the clamping block is inclined. A clamping spring is provided between the clamping block and the inner wall of the clamping hole. A toothed plate is inserted into the slot. The toothed plate meshes with the adjusting gear. A pressing plate is provided on the outside of the toothed plate. A sliding cavity is formed inside the hammer head. A transmission rod is slidably connected inside the sliding cavity. A top spring is provided between the transmission rod and the inner bottom of the sliding cavity. The transmission rod is designed in a U shape. One end of the transmission rod close to the vertical swing rod is provided with a wedge block. One end of the transmission rod close to the horizontal swing rod can be inserted into the slot. A sliding hole is formed in the inner wall of the sliding cavity. The sliding hole communicates with the horizontal swing groove. A top rod is slidably connected inside the sliding hole. When the top rod slides into the sliding cavity, it can drive the transmission rod to rise through the wedge block.

[0012] Further, the pitch of the adjusting screw rod is the same as the thickness of the driving gear.

[0013] Further, the bottom of the slot is provided with a flared opening.

[0014] Furthermore, a storage groove is formed inside the vertical swing groove, and the connecting slider can be stored in the storage groove.

[0015] Furthermore, the depth of the horizontal swing groove is greater than the sum of the thicknesses of the horizontal swing rod and the pressing plate.

[0016] The beneficial effects of the present invention are as follows:

[0017] 1. In the present invention, by engaging the driven gear with the driving gear, the vertical swing rod and the horizontal swing rod swing synchronously and in opposite directions. The vertical swing rod and the horizontal swing rod can lift the hammer ring to a high position. During hammer forging, the hammer head performs one hammer forging, and then the driven gear slides away from the driving gear. At this time, the hammer ring falls on the hammer plate under the action of gravity for secondary hammer forging. One impact and secondary hammer forging can make the deformation more stable, avoid excessive deformation of the workpiece due to too large a single impact force, and the double impact can control the impact force, making the deformation of the forging more uniform and avoiding unnecessary stress concentration.

[0018] 2. In the present invention, by using the gravity of the hammer ring as the secondary hammer forging force, hammer rings of different weights can be replaced according to requirements, and through the setting of the vertical swing rod and the horizontal swing rod, hammer rings of different sizes can be lifted, with a wide range of applications.

[0019] 3. In the present invention, through the setting of the cooperative air pressure chamber and the cooperative piston rod, during secondary hammer forging, the cooperative piston rod synchronously pushes the vertical swing rod to swing downward, and the vertical swing rod can limit the rebound of the hammer ring, ensuring that the hammer ring will not bounce during secondary hammer forging and guaranteeing the hammer forging accuracy. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 is a schematic diagram of the overall structure of the present invention;

[0021] Figure 2 is a schematic diagram of secondary hammer forging of the present invention;

[0022] Figure 3 is the present invention Figure 2 sectional structure schematic diagram;

[0023] Figure 4 is the present invention Figure 3 partial structure schematic diagram of the hammer head in;

[0024] Figure 5 is a three-dimensional structure schematic diagram of the hammer head of the present invention;

[0025] Figure 6 is a schematic diagram of the structure of the horizontal swing rod and the vertical swing rod of the present invention;

[0026] Figure 7 is an exploded view of the horizontal swing rod and the vertical swing rod of the present invention.

[0027] Reference Numerals: 1, frame; 11, air compression assembly; 12, drive assembly; 13, anvil; 2, working cylinder; 21, working piston; 22, upper conduit; 23, lower conduit; 3, hammer head; 31, vertical swing groove; 32, horizontal swing groove; 33, cooperative air pressure chamber; 34, cooperative piston rod; 35, transmission rod; 36, top spring; 37, ejector rod; 4, hammer ring; 5, vertical swing rod; 51, driving gear; 52, connecting slider; 6, horizontal swing rod; 61, sliding shaft; 62, driven gear; 63, slot; 64, adjusting gear; 65, clamping block; 66, adjusting screw; 67, connecting plate; 68, ejector post; 69, toothed plate; 610, pressing plate. Detailed Implementation Manner

[0028] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention.

[0029] Embodiment 1, as Figures 1-7 shown, a high-speed hammer forging device includes a frame 1. A working cylinder 2 is provided at the top of the frame 1. A working piston 21 is slidably connected inside the working cylinder 2. A hammer head 3 is fixedly connected to the bottom of the working piston 21. The hammer head 3 is composed of a hammer rod and a hammer disc. A plurality of groups of vertical swing grooves 31 are annularly formed on the outer side of the hammer rod. A plurality of groups of horizontal swing grooves 32 are annularly formed on the top of the hammer disc.

[0030] A vertical swing rod 5 is hinged inside the vertical swing groove 31. A horizontal swing rod 6 is hinged inside the horizontal swing groove 32. A cooperative air pressure chamber 33 is formed inside the hammer rod. A cooperative piston rod 34 is slidably connected inside the cooperative air pressure chamber 33. The cooperative piston rod 34 runs synchronously with the working piston 21. A driving gear 51 is provided at the hinge of the vertical swing rod 5. A connecting slider 52 is slidably connected to the outer side of the vertical swing rod 5. The connecting slider 52 is hinged to the cooperative piston rod 34. A sliding shaft 61 is provided at the hinge of the horizontal swing rod 6. A driven gear 62 is slidably connected to the sliding shaft 61. A hammer ring 4 is sleeved on the outer side of the hammer rod. The inner diameter of the hammer ring 4 is smaller than the outer diameter of the hammer disc.

[0031] During hammer forging, the equipment is started. Compressed gas is introduced into the upper half space of the working cylinder 2, and the lower half part exhausts. The air pressure pushes the working piston 21, and the working piston 21 drives the hammer head 3 to descend. At the same time, compressed gas is introduced into the upper half space of the cooperative air pressure chamber 33, and the cooperative piston rod 34 slides downward. The cooperative piston rod 34 drives the vertical swing rod 5 to swing downward through the connecting slider 52. The vertical swing rod 5 drives the horizontal swing rod 6 to swing upward synchronously through the driving gear 51 and the driven gear 62. The vertical swing rod 5 and the horizontal swing rod 6 lift and clamp the hammer ring 4. When the hammer head 3 strikes the workpiece, the driven gear 62 slides along the sliding shaft 61, and the driven gear 62 moves away from the driving gear 51. At this time, the horizontal swing rod 6 generates a supporting force on the hammer ring 4. The hammer ring 4 descends under the action of gravity, and the hammer ring 4 lands on the hammer plate. The hammer ring 4 gives a downward impact force to the hammer head 3 through gravity, and the impact force is transmitted to the workpiece again. Therefore, one impact can produce two hammer forging operations, which can make the deformation more stable, avoid excessive deformation of the workpiece due to too large a single impact force. The double impact can control the impact force and make the deformation of the forging more uniform, avoiding unnecessary stress concentration.

[0032] Since the air pressure inside the cooperative air pressure chamber 33 is the same as that inside the working cylinder 2, when the hammer ring 4 descends under the action of gravity, the air pressure inside the cooperative air pressure chamber 33 is always larger. Therefore, when the hammer ring 4 descends, the vertical swing rod 5 is not restricted either. The cooperative piston rod 34 pushes the vertical swing rod 5 to swing downward, and multiple groups of vertical swing rods 5 expand outward to restrict the bouncing of the hammer ring 4. Therefore, the stability of the secondary hammer forging can be ensured and the accuracy of the secondary hammer forging can be improved.

[0033] After one impact is completed, compressed gas enters the lower half space of the working cylinder 2, and the upper half space exhausts. The working piston 21 drives the hammer head 3 to rise. At the same time, the cooperative piston rod 34 drives the vertical swing rod 5 to swing upward and reset, and the driven gear 62 slides to mesh with the driving gear 51. During the next hammer forging, the hammer ring 4 can be lifted and clamped again.

[0034] The secondary hammer forging and resetting of the present invention can be quickly realized, achieving high-speed and high-quality hammer forging. At the same time, the hammer ring 4 can be freely replaced according to processing requirements, and the vertical swing rod 5 and the horizontal swing rod 6 can lift and clamp hammer rings 4 of different specifications, with a wide range of applications.

[0035] Embodiment 2, on the basis of the above embodiment, further includes that an air compression assembly 11 and a driving assembly 12 are arranged on the back of the frame 1. The driving assembly 12 is composed of a motor and an output belt pulley. An input belt pulley is arranged at the driving end of the air compression assembly 11, and the input belt pulley and the output belt pulley are connected by a transmission belt. The air compression assembly 11 can inject compressed gas into the upper half space and the lower half space of the working cylinder 2. The upper half space of the cooperative air pressure chamber 33 is connected to the upper half space of the working cylinder 2 through an upper conduit 22, and the lower half space of the cooperative air pressure chamber 33 is connected to the lower half space of the working cylinder 2 through a lower conduit 23. An anvil 13 is arranged at the inner bottom of the frame 1.

[0036] The workpiece is placed on the anvil 13, and the driving assembly 12 drives the air compression assembly 11 to operate. During hammer forging, compressed gas enters the upper half space of the working cylinder 2 and enters the upper half space of the cooperative air pressure chamber 33 through the upper conduit 22. During reset, the compressed gas enters the lower half space of the working cylinder 2 and enters the lower half space of the cooperative air pressure chamber 33 through the lower conduit 23. On the basis of the original equipment, there is no need to add an additional air pressure control system, and the structure is simple.

[0037] Embodiment 3: On the basis of the above embodiment, it further includes that the radius of the driven gear 62 is smaller than the radius of the driving gear 51. Through this design, when the vertical swing rod 5 swings downward by a small angle, the horizontal swing rod 6 swings upward by a large angle. Therefore, the hammer ring 4 can be lifted to a relatively high height, and sufficient hammer forging force can be generated.

[0038] Embodiment 4: On the basis of the above embodiment, it further includes that an adjusting gear 64 is rotatably installed inside the horizontal swing rod 6. An adjusting screw rod 66 is threadedly connected inside the adjusting gear 64. Both ends of the adjusting screw rod 66 are fixedly installed with connecting plates 67. The connecting plates 67 are located outside the horizontal swing rod 6. A top column 68 is fixedly installed on one side of the connecting plate 67 close to the horizontal swing rod 6. The top column 68 penetrates through the horizontal swing rod 6 and presses against the outside of the driven gear 62.

[0039] By controlling the rotation of the adjusting gear 64, the adjusting gear 64 drives the movement of the adjusting screw rod 66. The adjusting screw rod 66 drives the top column 68 to move through the connecting plate 67. The top column 68 drives the driven gear 62 to slide along the sliding shaft 61. And under the action of screw self-locking, when the adjusting gear 64 does not rotate, the position of the driven gear 62 remains stable.

[0040] Embodiment 5: On the basis of the above embodiment, it further includes that a slot 63 is opened inside the horizontal swing rod 6. A clamping hole is opened on the inner wall of the slot 63. A clamping block 65 is slidably connected inside the clamping hole. The top of the clamping block 65 is inclined. A clamping spring is arranged between the clamping block 65 and the inner wall of the clamping hole. A toothed plate 69 is inserted into the slot 63. The toothed plate 69 meshes with the adjusting gear 64. A pressing plate 610 is arranged on the outside of the toothed plate 69. A sliding cavity is opened inside the hammer head 3. A transmission rod 35 is slidably connected inside the sliding cavity. A top spring 36 is arranged between the transmission rod 35 and the inner bottom of the sliding cavity. The transmission rod 35 is designed in a U shape. One end of the transmission rod 35 close to the vertical swing rod 5 is provided with a wedge-shaped block. One end of the transmission rod 35 close to the horizontal swing rod 6 can be inserted into the slot 63. A sliding hole is opened on the inner wall of the sliding cavity. The sliding hole communicates with the horizontal swing groove 32. A top rod 37 is slidably connected inside the sliding hole. When the top rod 37 slides into the sliding cavity, it can drive the transmission rod 35 to rise through the wedge-shaped block.

[0041] When the hammer head 3 strikes, under the action of gravity, the hammer ring 4 will generate a downward inertial force. At this time, the pressure exerted by the hammer ring 4 on the pressure plate 610 is greater than the restraining force exerted by the clamping block 65 on the toothed plate 69. The pressure plate 610 drives the toothed plate 69 to move into the slot 63. The toothed plate 69 drives the adjusting gear 64 to rotate. The adjusting gear 64 drives the adjusting screw 66 to move. The adjusting screw 66 drives the ejector pin 68 to move through the connecting plate 67. The ejector pin 68 drives the driven gear 62 to slide along the sliding shaft 61. The driven gear 62 moves away from the driving gear 51. At this time, the horizontal swing rod 6 generates a supporting force on the hammer ring 4. The hammer ring 4 descends under the action of gravity. The hammer ring 4 lands on the hammer plate. The hammer ring 4 gives the hammer head 3 a downward impact force through gravity. The impact force is transmitted to the workpiece again. Therefore, one impact can generate two hammer forging operations.

[0042] After one impact is completed, compressed gas enters the lower half space of the working cylinder 2, and the upper half space exhausts. The working piston 21 drives the hammer head 3 to rise. At the same time, it cooperates with the piston rod 34 to drive the vertical swing rod 5 to swing upward and reset. The vertical swing rod 5 swings into the vertical swing groove 31. The vertical swing rod 5 pushes the ejector rod 37 to slide into the sliding cavity. The ejector rod 37 drives the transmission rod 35 to rise through the wedge block. The end of the transmission rod 35 close to the horizontal swing rod 6 pushes the toothed plate 69 to reset. The toothed plate 69 drives the adjusting gear 64 to reverse. The adjusting gear 64 drives the adjusting screw 66 to move. The adjusting screw 66 drives the ejector pin 68 to move through the connecting plate 67. The ejector pin 68 drives the driven gear 62 to slide along the sliding shaft 61. The driven gear 62 meshes with the driving gear 51. During the next hammer forging operation, the hammer ring 4 can be lifted and clamped again.

[0043] Through the setting of the present invention, there is no need to give drive to the adjusting gear 64, and the drive is automatically completed by using the inertial force of hammer forging, and the structure is compact.

[0044] Further, the pitch of the adjusting screw 66 is the same as the thickness of the driving gear 51. Through this design, the adjusting gear 64 rotates a smaller number of turns, the driven gear 62 moves away from the driving gear 51, and there is no need to set a large distance between the pressure plate 610 and the horizontal swing rod 6.

[0045] Furthermore, the bottom of the slot 63 is provided with a flared opening. Through the setting of the flared opening, when the transmission rod 35 jacks up the toothed plate 69, the transmission rod 35 does not affect the upward swing of the horizontal swing rod 6.

[0046] Embodiment Six, on the basis of the above embodiment, further includes that a receiving groove is provided inside the vertical swing groove 31, and the connecting slider 52 can be received in the receiving groove. Through the setting of the receiving groove, it is ensured that the vertical swing rod 5 can be completely received in the vertical swing groove 31.

[0047] Further, the depth of the horizontal swing groove 32 is greater than the sum of the thicknesses of the horizontal swing rod 6 and the pressing plate 610. With this design, the horizontal swing rod 6 can be completely received in the horizontal swing groove 32 without affecting the secondary hammer forging of the hammer ring 4.

[0048] The foregoing description of the disclosed embodiments enables those skilled in the art to practice or use the invention. Various modifications to these embodiments will be readily apparent to those skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the invention. Thus, the invention is not intended to be limited to the embodiments shown herein but is to be accorded the widest scope consistent with the principles and novel features disclosed herein.

Claims

1. A high-speed hammer forging device, comprising a frame (1), characterized in that, A working cylinder (2) is provided at the top of the frame (1). A working piston (21) is slidably connected inside the working cylinder (2). A hammer head (3) is fixedly connected to the bottom of the working piston (21). The hammer head (3) is composed of a hammer rod and a hammer disc. A plurality of groups of vertical swing grooves (31) are annularly formed on the outer side of the hammer rod, and a plurality of groups of horizontal swing grooves (32) are annularly formed on the top of the hammer disc. A vertical swing rod (5) is hinged inside the vertical swing groove (31). A horizontal swing rod (6) is hinged inside the horizontal swing groove (32). A cooperative air pressure chamber (33) is formed inside the hammer rod. A cooperative piston rod (34) is slidably connected inside the cooperative air pressure chamber (33). The cooperative piston rod (34) runs synchronously with the working piston (21). A driving gear (51) is provided at the hinged portion of the vertical swing rod (5). A connecting slider (52) is slidably connected to the outer side of the vertical swing rod (5). The connecting slider (52) is hinged to the cooperative piston rod (34). A sliding shaft (61) is provided at the hinged portion of the horizontal swing rod (6). A driven gear (62) is slidably connected to the sliding shaft (61). A hammer ring (4) is sleeved on the outer side of the hammer rod. The inner diameter of the hammer ring (4) is smaller than the outer diameter of the hammer disc.

2. The high-speed hammer forging device according to claim 1, characterized in that, An air compression assembly (11) and a driving assembly (12) are provided on the back of the frame (1). The driving assembly (12) is composed of a motor and an output pulley. An input pulley is provided at the driving end of the air compression assembly (11). The input pulley and the output pulley are connected by a transmission belt. The air compression assembly (11) can inject compressed gas into the upper half space and the lower half space of the working cylinder (2). The upper half space of the cooperative air pressure chamber (33) is communicated with the upper half space of the working cylinder (2) through an upper conduit (22). The lower half space of the cooperative air pressure chamber (33) is communicated with the lower half space of the working cylinder (2) through a lower conduit (23). An anvil (13) is provided at the inner bottom of the frame (1).

3. A high-speed hammer forging device according to claim 2, characterized in that, The radius of the driven gear (62) is smaller than the radius of the driving gear (51).

4. The high-speed hammer forging device according to claim 3, characterized in that, An adjusting gear (64) is rotatably installed inside the horizontal swing rod (6). An adjusting screw rod (66) is threadedly connected inside the adjusting gear (64). Both ends of the adjusting screw rod (66) are fixedly installed with connecting plates (67). The connecting plates (67) are located on the outer side of the horizontal swing rod (6). A top column (68) is fixedly installed on one side of the connecting plate (67) close to the horizontal swing rod (6). The top column (68) penetrates through the horizontal swing rod (6) and presses against the outer side of the driven gear (62).

5. A high-speed hammer forging device according to claim 4, characterized in that, A slot (63) is formed inside the horizontal swing rod (6). A clamping hole is formed in the inner wall of the slot (63). A clamping block (65) is slidably connected inside the clamping hole. The top of the clamping block (65) is inclined. A clamping spring is arranged between the clamping block (65) and the inner wall of the clamping hole. A toothed plate (69) is inserted into the slot (63). The toothed plate (69) is meshed with the adjusting gear (64). A pressing plate (610) is arranged on the outer side of the toothed plate (69). A sliding cavity is formed inside the hammer head (3). A transmission rod (35) is slidably connected inside the sliding cavity. A top spring (36) is arranged between the transmission rod (35) and the inner bottom of the sliding cavity. The transmission rod (35) is designed in a U shape. A wedge-shaped block is arranged at one end of the transmission rod (35) close to the vertical swing rod (5). One end of the transmission rod (35) close to the horizontal swing rod (6) can be inserted into the slot (63). A sliding hole is formed in the inner wall of the sliding cavity. The sliding hole communicates with the horizontal swing groove (32). A top rod (37) is slidably connected inside the sliding hole. When the top rod (37) slides into the sliding cavity, the transmission rod (35) can be driven to rise through the wedge-shaped block.

6. A high-speed hammer forging device according to claim 5, characterized in that, The pitch of the adjusting screw rod (66) is the same as the thickness of the driving gear (51).

7. A high-speed hammer forging device according to claim 6, characterized in that, The bottom of the slot (63) is provided with a flared opening.

8. The high-speed hammer forging device according to claim 7, characterized in that, A storage groove is formed inside the vertical swing groove (31). The connecting slider (52) can be stored in the storage groove.

9. The high-speed hammer forging device according to claim 8, characterized in that, The depth of the horizontal swing groove (32) is greater than the sum of the thicknesses of the horizontal swing rod (6) and the pressing plate (610).

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