Processing equipment for forming zinc alloy ingot
Through the design of fixing alloy ingots, torsion spring isolation debris and vibration parts to shake off debris, the displacement and debris management problems during zinc alloy cutting process are solved, and safe and efficient cutting operations are achieved.
Patent Information
- Application Number
- CN202510735987.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-06-04
- Publication Date
- 2025-07-25
- Estimated Expiration
- Not applicable · inactive patent
AI Technical Summary
Zinc alloys are prone to displacement, tilt or drop during the cutting process, which affects the cutting accuracy and may cause the equipment to get stuck. At the same time, the metal debris generated during the cutting process poses a hazard to the operator.
The alloy ingot is fixed by pulling rope and sliding parts to prevent displacement and vibration; torsion springs and sealing parts are used to isolate high-temperature debris, the vibrator shakes off the debris, and the collection box is automatically replaced by locking parts and pushing parts.
Ensure that the cutting surface is flat and smooth, prevent debris from being splashed and high-temperature debris, reduce fire hazards, avoid debris clogging, and facilitate replacement of the collection box.
Smart Images
Figure CN120362598A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of metal casting processing, and particularly to a processing device for zinc alloy ingot forming. Background Art
[0002] In modern industrial production, zinc alloys are widely used in various fields due to their excellent mechanical properties, good casting properties, and relatively low cost. As the basic material for subsequent processing, the dimensional accuracy and surface quality of zinc alloys are crucial for the quality of the final products. Therefore, the cutting of zinc alloys by processing equipment is an important link to ensure product quality.
[0003] When cutting zinc alloys, small or irregularly shaped zinc alloys are prone to displacement, inclination, or even dropping during the cutting process, which not only affects the cutting accuracy but also causes the equipment to jam. Moreover, the metal chips generated during the cutting process are likely to pose a hazard to the staff.
[0004] Therefore, the present invention proposes a processing device for zinc alloy ingot forming to make up for and improve the deficiencies of the existing technology. Summary of the Invention
[0005] Aiming at the defects existing in the prior art, the present invention provides a processing device for zinc alloy ingot forming, which can effectively solve the above technical problems.
[0006] The technical implementation plan of the present invention is as follows: It includes a machine body. A cutting member is arranged on one side of the machine body. A driving assembly is arranged inside the cutting member. A collection box is detachably connected to the bottom of one side of the machine body. Motors are fixedly connected to both ends of one side of the machine body. The output shafts of the motors are fixedly connected with threaded rods. The two ends of the threaded rods are rotatably connected to the upper surface of the machine body. A push plate is threadedly connected between the outer surfaces of the threaded rods. Electric sliding rails are fixedly connected to both sides of the upper surface of the machine body. The inside of the cutting member is electrically connected to the inside of the electric sliding rails. A pressing member is slidably connected between the inner sides of the electric sliding rails. A plurality of pull ropes are linearly fixedly connected to both sides of the lower surface of the pressing member. First sliding members are slidably connected to the lower surfaces of both sides of the pressing member. Other pull ropes are fixedly connected to the lower surfaces of the first sliding members. The bottom ends of the pull ropes are fixedly connected with a shaping plate. The outer surface of the shaping plate is slidably connected to the inside of the machine body. When the shaping plate moves downward, it can fix zinc alloy ingots of different sizes and shapes, preventing displacement and vibration during the cutting process.
[0007] More preferably, first springs are fixedly sleeved on the outer surfaces of both sides of the top of the first sliding member, and the bottom ends of the first springs are fixedly connected to the upper surfaces of both sides of the pressing member. By squeezing the first springs through the first sliding member, the shaping plate can fix alloy ingots of different thicknesses.
[0008] More preferably, protective plates are fixedly connected to both sides of the machine body close to the cutting member, and the whole of the pulling rope is made of a fireproof material. By blocking the pulling rope with the protective plate, the cutting member can be prevented from cutting off the pulling rope.
[0009] More preferably, extrusion frames are symmetrically and fixedly connected to both ends of the electric slide rail. A receiving plate is fixedly connected to the inner side of the machine body. Both sides of the receiving plate are inclined. Sealing members are symmetrically and rotatably connected to both sides inside the machine body. Both ends of the sealing member rotatably penetrate through the inner side of the machine body. The bottom end of the sealing member is inclined. The bottom end of the sealing member fits with both ends of the receiving plate. A swing frame is fixedly connected between the outer surfaces of both ends of the sealing member. The lower surface of the extrusion frame is in extrusion fit with the upper surface of the swing frame. When the sealing member swings and fits with both ends of the receiving plate, the debris generated during the just cutting can be isolated.
[0010] More preferably, torsion springs are fixedly sleeved on the outer surfaces of both ends of the sealing member, and the mutually close ends of the torsion springs are fixedly connected to the outer surface of the machine body. The torsion springs can drive the sealing member to swing back to its original position.
[0011] More preferably, a vibrating member is slidably connected to the inner side of the machine body. Both ends of the vibrating member slidably penetrate through both sides of the machine body. The upper surface of the vibrating member is in extrusion fit with the lower surface of the receiving plate. Sliding frames are fixedly connected to both sides of the vibrating member. A plurality of fourth springs are fixedly connected between the top ends of the fourth springs at the middle of the sliding frame and the outer surface of the machine body. Telescopic members are symmetrically slidably connected to both sides of the sliding frame. The upper and lower ends of the telescopic members are symmetrically inclined. Inclined grooves are symmetrically formed in one side of the machine body. One side of each telescopic member is slidably connected to the inclined groove on one side of the machine body. Third springs are fixedly sleeved on the outer surfaces of both ends of the vibrating member, and the mutually remote ends of the third springs are fixedly connected to the mutually close sides of the telescopic members. Extrusion blocks are symmetrically and slidably penetrated and connected to both sides at the bottom end of the extrusion frame. The upper surfaces of the inner ends of the extrusion blocks are inclined. The outer surface of the extrusion block is in extrusion fit with the inclined surface of the telescopic member. When the upper surface of the vibrating member squeezes the lower surface of the receiving plate, the debris remaining on the upper surface of the receiving plate can be shaken off.
[0012] More preferably, second springs are fixedly sleeved on the mutually remote outer surfaces of the extrusion blocks, and the mutually close ends of the second springs are fixedly connected to the outer surface of the extrusion frame. The second springs can drive the extrusion blocks to move back to their original positions.
[0013] More preferably, a second sliding member is slidably connected to the inner side of the collection box. The outer surface of the bottom of the second sliding member slidably penetrates through the lower surface of the collection box. The outer surfaces of both ends of the bottom of the second sliding member are fixedly sleeved with fifth springs. The top ends of the fifth springs are fixedly connected to the lower surface of the collection box. The bottom end of the second sliding member is fixedly connected with a locking member. The outer surface of the top of the locking member is slidably connected to one side of the motor. One side of the top of the locking member is inclined. The inclined shape at the top of the locking member is in pressing fit with one side of the collection box. The top of the locking member is sleeved inside one side of the machine body. When the locking member moves downward and disengages from the front side of the machine body, it can remind the staff that the collection box is filled.
[0014] More preferably, a pushing member is slidably connected to the upper surface of the bottom of the machine body. One end of the pushing member is in pressing fit with one side of the collection box. The outer surface of one side of the pushing member is fixedly sleeved with a sixth spring. One end of the sixth spring is fixedly connected to one side of the upper surface of the bottom of the machine body. When the sixth spring pushes the pushing member, the filled collection box can be slightly slid out from the inside of the machine body.
[0015] Compared with the prior art, the present invention has the following advantages:
[0016] 1. When the shaping plate moves downward to press the ingot in the present invention, the shaping plate can fix the ingot according to its shape, prevent displacement and vibration during the cutting process, not only ensure that the cutting surface is flat and smooth, but also ensure operation safety. And when the shaping plate moves downward, it can also block the cutting area, thereby preventing the chips generated during cutting from splashing.
[0017] 2. When the torsion spring swings in the present invention, it can close the two ends of the torsion spring with the receiving plate, thereby isolating the chips generated during the initial cutting, avoiding the direct mixing of high-temperature chips into the chips inside the collection box, and preventing potential fire hazards caused by local overheating.
[0018] 3. When the vibrating member moves up and down to impact the receiving plate in the present invention, it can timely shake off the chips on the upper surface of the receiving plate, thereby avoiding the long-term accumulation of chips on the upper surface of the receiving plate and reducing the blockage problem caused by excessive chips.
[0019] 4. When the collection box is filled in the present invention, it can prompt the locking member to automatically fall, thereby reminding the staff to replace the collection box; when the pushing member presses the collection box, it can automatically push the filled collection box out of the machine body, making it easier for the staff to take out the collection box. Description of the Drawings
[0020] Figure 1 This is a schematic diagram of the overall structure of the present invention.
[0021] Figure 2 This is a schematic diagram of the structure of the fixing component of the present invention.
[0022] Figure 3 This is a structural cross-sectional view of the partitioning component of the present invention.
[0023] Figure 4 This is a schematic diagram of the structure of the extrusion component of the present invention.
[0024] Figure 5 This is a schematic diagram of the structure of the unlocking component of the present invention.
[0025] Figure 6 This is a schematic diagram of the structure of the ejection component of the present invention.
[0026] The markings of each component in the drawings are as follows: 1 - body, 11 - cutting piece, 12 - collection box, 13 - motor, 14 - threaded rod, 15 - pushing plate, 2 - electric slide rail, 21 - pressing piece, 22 - first sliding piece, 221 - first spring, 23 - pulling rope, 24 - shaping plate, 25 - protective plate, 3 - extrusion frame, 301 - bearing plate, 31 - sealing piece, 311 - swinging frame, 32 - torsion spring, 4 - extrusion block, 401 - second spring, 41 - telescopic piece, 42 - vibrating piece, 421 - sliding frame, 43 - third spring, 44 - fourth spring, 5 - second sliding piece, 51 - fifth spring, 52 - locking piece, 53 - pushing piece, 54 - sixth spring. Detailed implementation manners
[0027] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.
[0028] Next, in combination with the attached Figures 1-6 A specific implementation example of the present invention will be elaborated in detail.
[0029] Refer to the attached Figure 1, a processing device for zinc alloy ingot forming, including a machine body 1. On the upper surface of the front side of the machine body 1, a cutting piece 11 is provided. Inside the cutting piece 11, a driving component is arranged. The cutting piece 11 is used to slide left and right on the upper surface of the front side of the cutting piece 11 and can cut the alloy ingot. On both sides of the rear end of the machine body 1, motors 13 are symmetrically and fixedly connected. The output shaft of the motor 13 is fixedly connected with a threaded rod 14. The outer surface between the two ends of the threaded rod 14 is rotatably connected to the upper surface of the rear side of the machine body 1. The motor 13 is used to drive the threaded rod 14 to rotate. A pushing plate 15 is threadedly connected to the outer surface of the threaded rod 14. The threaded rod 14 is used to drive the pushing plate 15 to move back and forth. The pushing plate 15 is used to push the alloy ingot.
[0030] When it is necessary to cut the alloy ingot, first, the alloy ingot can be placed on the upper surface of the rear side of the machine body 1. When the output shaft of the motor 13 drives the threaded rod 14 to rotate, it can cause the pushing plate 15 to move forward to push the alloy ingot, so that the alloy ingot can move to the front end of the machine body 1. Then, when the cutting piece 11 moves backward and rotates, it can cut the alloy ingot.
[0031] As described in the background technology, when zinc alloy is being cut, during the cutting process of smaller or irregularly shaped zinc alloy, it is prone to displacement, inclination, or even falling, which not only affects the cutting accuracy but also causes the equipment to jam.
[0032] Reference Figures 1-2 , to solve the problem of displacement during alloy ingot cutting, the following technical solution is adopted in this embodiment: At both ends of the upper surface of the front side of the machine body 1, electric slide rails 2 are fixedly connected. The inside of the cutting piece 11 is electrically connected to the inside of the electric slide rails 2. When the cutting piece 11 is started, it is used to drive the electric slide rails 2 to move simultaneously. A pressing piece 21 is fixedly connected between the inner sides of the electric slide rails 2. The electric slide rails 2 are used to drive the pressing piece 21 to move up and down. On both sides of the bottom of the pressing piece 21, a plurality of pull ropes 23 are linearly fixedly connected. At the bottom of both sides of the pressing piece 21, first sliding pieces 22 are slidably connected. At the bottom between the first sliding pieces 22, the other side of the pull rope 23 is fixedly connected. When the pressing piece 21 and the first sliding piece 22 move downward, they are used to drive the pull ropes 23 to move simultaneously. The whole of the pull ropes 23 is made of fireproof material. The bottom ends of the pull ropes 23 are fixedly connected with shaping plates 24. The outer surface of the shaping plates 24 is slidably connected to the upper surface of the front side of the machine body 1. When the pull ropes 23 move downward, they are used to drive the shaping plates 24 to move simultaneously. The shaping plates 24 are used to limit the alloy ingot.
[0033] When the alloy ingot is being cut, the electric slide rails 2 on both sides of the top of the machine body 1 can drive the pressing member 21 to move downward. When the pressing member 21 moves downward, it can drive the first sliding member 22 to move simultaneously. As the pressing member 21 and the first sliding member 22 move downward, they can drive the shaping plate 24 to move simultaneously through the pulling rope 23. When the shaping plate 24 moves downward, the bottom end of the middle shaping plate 24 can fit on the outer surface of the alloy ingot, and the bottom ends of the shaping plates 24 on both sides can fit on the upper surface of the machine body 1. When the middle shaping plate 24 fits on the outer surface of the alloy ingot, it can be restricted according to the alloy ingots of different shapes, thus preventing displacement and vibration during the cutting process, not only ensuring that the cutting surface is flat and smooth, but also ensuring operation safety.
[0034] The bottom ends of the shaping plates 24 on both sides can fit on the upper surface of the machine body 1, which can block both sides of the cutting area of the machine body 1, so that the debris generated during the cutting of the alloy ingot can be blocked by the shaping plates 24 on both sides, thus preventing the debris from splashing to both sides.
[0035] A plurality of protective plates 25 are fixedly connected to the upper surface of the front side of the machine body 1. When the pulling rope 23 drives the shaping plate 24 to move downward, the pulling rope 23 will be in a bent state, and both sides of the protective plate 25 can block the pulling rope 23, thus preventing the cutting member 11 from cutting off the pulling rope 23.
[0036] The outer surfaces of both sides of the top of the first sliding member 22 are fixedly sleeved with first springs 221. The bottom ends of the first springs 221 are fixedly connected to the upper surfaces of both sides of the pressing member 21. The first springs 221 are used to drive the first sliding member 22 to move in a reset manner. When the middle shaping plate 24 contacts the outer surface of the alloy ingot, at this time, the pressing member 21 can drive the first sliding member 22 to continue to move downward. When the first sliding member 22 moves downward and presses the upper surface of the middle shaping plate 24, the first sliding member 22 itself can move upward. As the first sliding member 22 moves upward, it can move the first spring 221 to a stretched state. By pressing the middle shaping plate 24 through the first sliding member 22, the shaping plate 24 can fix alloy ingots of different thicknesses.
[0037] When the cutting of the alloy ingot is completed, at this time, the electric slide rail 2 can drive the first sliding member 22 to move upward through the pressing member 21. When the pressing member 21 and the first sliding member 22 move upward simultaneously, they can drive the shaping plate 24 to move simultaneously through the pulling rope 23. And when the first sliding member 22 moves upward, it can be separated from the upper end of the middle shaping plate 24 for extrusion. At this time, the first spring 221 in the stretched state can drive the first sliding member 22 to move in a reset manner.
[0038] When the alloy ingot is cut, the generated debris will flow from the inside of the machine body 1 into the collection box 12. The debris that is just cut and in a high-temperature state is prone to form an oxide layer, and when these debris are mixed with the debris inside the collection box 12, impurities are easily introduced, thus affecting the purity of the final recycled material.
[0039] Reference Figure 1 and Figure 3 To solve the problem of the mixture of high-temperature debris and the debris inside the collection box 12, the following technical solution is adopted in this embodiment: A receiving plate 301 is fixedly connected to the inner side of the machine body 1. Both sides of the receiving plate 301 are inclined. The receiving plate 301 is used to guide the debris. Both ends of the pressing member 21 are symmetrically and fixedly connected with extrusion frames 3. The pressing member 21 is used to drive the extrusion frames 3 to move up and down. Two sealing members 31 are symmetrically and rotatably connected to the inner side of the machine body 1. The bottom end of the sealing member 31 is in close fit with both ends of the receiving plate 301. The sealing member 31 is used to block both ends of the receiving plate 301. Both ends of the torsion spring 32 penetrate through the inner wall of the machine body 1. A swing frame 311 is fixedly connected between both ends of the torsion spring 32. The swing frame 311 is used to drive the sealing member 31 to swing. The lower surface of the extrusion frame 3 is in extrusion fit with the upper surface of the swing frame 311. The extrusion frame 3 is used to drive the swing frame 311 to swing. Torsion springs 32 are fixedly sleeved on the outer surfaces of both ends of the sealing member 31. One side where the torsion springs 32 are close to each other is fixedly connected to the outer surface of the machine body 1. The torsion springs 32 are used to drive the sealing member 31 to swing back to its original position.
[0040] Before the alloy ingot is cut, the pressing member 21 can drive the extrusion frames 3 to move downward. When the extrusion frames 3 move downward, the lower surface of the extrusion frames 3 can be in contact with the upper surface of the swing frame 311 and press the swing frame 311, causing the sides of the swing frame 311 that are away from each other to swing downward. During the swinging process of the swing frame 311, the swing frame 311 can drive the sealing member 31 to swing. When the sealing member 31 swings, the torsion spring 32 can be rotated to a state of storing energy. After the sealing member 31 swings, the bottom end of the sealing member 31 can be in close fit with both ends of the receiving plate 301, so that the upper surface of the receiving plate 301 can be in a closed state. At this time, the debris generated during the cutting of the alloy ingot can be isolated on the upper surface of the receiving plate 301, preventing the high-temperature debris from directly mixing into the debris inside the collection box 12 and preventing potential fire hazards caused by local overheating.
[0041] When the alloy ingot is completely cut, the pressing member 21 can drive the extrusion frame 3 to move upward at this time, so that the lower surface of the extrusion frame 3 can be separated from the upper surface of the swing frame 311. The torsion spring 32 in the energy storage state can drive the swing frame 311 to swing back through the sealing member 31. When the sealing member 31 swings back, the bottom end of the sealing member 31 can be separated from both ends of the receiving plate 301. At this time, the debris can slide into the interior of the collection box 12 from the inclined surfaces on both sides of the receiving plate 301 for collection.
[0042] When the receiving plate 301 guides the debris, some debris will adhere to the upper surface of the receiving plate 301. Over time, it is easy to cause the debris to accumulate and block inside the machine body 1.
[0043] Reference Figure 1 and Figure 4 To solve the problem of debris blocking on the upper surface of the receiving plate 301, the following technical solution is adopted in this embodiment: A vibrating member 42 is slidably connected to the inner side of the machine body 1. The upper surface of the vibrating member 42 is in pressing fit with the lower surface of the receiving plate 301. Both sides of the vibrating member 42 slidably penetrate the inner wall of the machine body 1. Both sides of the vibrating member 42 are fixedly connected with sliding frames 421. The sliding frames 421 are used to drive the vibrating member 42 to move up and down. The upper surface of the middle part of the sliding frame 421 is fixedly connected with a plurality of fourth springs 44. The tops of the fourth springs 44 are fixedly connected to the outer surface of the machine body 1. The fourth springs 44 are used to drive the sliding frame 421 to slide upward.
[0044] Both ends of the sliding frame 421 are symmetrically slidably connected with telescopic members 41. The upper and lower ends of the telescopic members 41 are inclined. The telescopic members 41 are used to drive the sliding frame 421 to move downward. Inclined grooves are symmetrically formed on the outer surfaces of both sides of the machine body 1. The mutually close sides of the telescopic members 41 are slidably connected to the inclined surfaces on the outer surface of the machine body 1. Third springs 43 are fixedly sleeved on the outer surfaces of both ends of the sliding frame 421. The mutually far sides of the third springs 43 are fixedly connected to the mutually close sides of the telescopic members 41. The third springs 43 are used to drive the telescopic members 41 to move back. Both sides of the bottom end of the extrusion frame 3 are symmetrically slidably penetrated by second springs 401. The extrusion frame 3 is used to drive the extrusion blocks 4 to move up and down. The upper surface of the mutually close sides of the extrusion blocks 4 is inclined. The lower surface of the inner side of the extrusion blocks 4 is in pressing fit with the inclined surfaces of the telescopic members 41. The extrusion blocks 4 are used to drive the telescopic members 41 to move downward. Second springs 401 are fixedly sleeved on the outer surfaces of the extrusion blocks 4. The mutually close ends of the second springs 401 are fixedly connected to the outer surface of the bottom of the extrusion frame 3. The second springs 401 are used to drive the extrusion blocks 4 to move back.
[0045] When the pressing member 21 drives the extrusion frame 3 to move downward, the extrusion frame 3 can drive the extrusion block 4 to move simultaneously. When the extrusion block 4 moves downward, the lower surface of the extrusion block 4 can press against the inclined surface at the top of the telescopic member 41, causing the telescopic member 41 to move downward. Since the inner side of the telescopic member 41 is slidably connected to the inclined groove on the outer surface of the machine body 1, when the telescopic member 41 slides downward, it can slide inward on the outer surfaces at both ends of the sliding frame 421. When the telescopic member 41 slides inward, it can squeeze the third spring 43 into a compressed state. When the two telescopic members 41 move downward simultaneously, they can drive the vibrating member 42 to move simultaneously through the sliding frame 421. When the sliding frame 421 moves downward, it can move the fourth spring 44 to a stretched state.
[0046] When the telescopic member 41 slides to the bottom end of the chute on the outer surface of the machine body 1, as the extrusion frame 3 continuously drives the extrusion block 4 to move downward, the lower surface of the extrusion block 4 can disengage from the inclined surface at the top of the telescopic member 41. The stretched fourth spring 44 can drive the vibrating member 42 to move upward through the sliding frame 421. When the sliding frame 421 moves upward, it can drive the telescopic member 41 to move simultaneously. The compressed third spring 43 can drive the telescopic member 41 to slide outward on the outer surface of the sliding frame 421. When the vibrating member 42 moves upward, it will cause the upper surface of the vibrating member 42 to impact the lower surface of the receiving plate 301. Through the vibration of the receiving plate 301 itself, the debris can be shaken off in time, thus avoiding the long-term accumulation of debris on the upper surface of the receiving plate 301 and reducing the blockage problem caused by excessive debris.
[0047] When the extrusion frame 3 drives the extrusion block 4 to move upward for reset, at this time, the inclination on the upper surface of the extrusion block 4 can press against the inclined surface at the bottom of the telescopic member 41. As the extrusion frame 3 drives the extrusion block 4 to continuously move upward, the extrusion block 4 can move to the side away from each other on the outer surface at the bottom of the extrusion frame 3. And when the extrusion block 4 moves, it can move the second spring 401 to a stretched state. At this time, the inner end of the extrusion block 4 can fit against the outer surface of the telescopic member 41 and move upward. As the extrusion block 4 moves upward beyond the outer surface of the telescopic member 41, the stretched second spring 401 can drive the extrusion block 4 to move inward for reset, so that the extrusion block 4 returns to its initial state.
[0048] When the debris generated during the cutting of the alloy ingot is collected inside the collection box 12, it is necessary for the staff to often pay attention to the capacity of the debris inside the collection box 12, which easily leads to the situation that the collection box 12 is found to be full only when it is full, resulting in the easy overflow of the debris inside the collection box 12.
[0049] Reference Figure 3 and Figure 6, to solve the problem that it is impossible to detect in time when the inside of the collection box 12 is filled, the following technical solution is adopted in this embodiment: A second sliding member 5 is slidably connected to the inner side of the collection box 12. The lower surface of the second sliding member 5 slidably penetrates the lower surface of the collection box 12. The second sliding member 5 is used to support the debris inside the collection box 12. The outer surfaces on both sides of the bottom of the second sliding member 5 are fixedly sleeved with fifth springs 51. The tops of the fifth springs 51 are fixedly connected to the lower surface of the collection box 12. The fifth springs 51 are used to drive the second sliding member 5 to move in a reset manner. The lower surface of the second sliding member 5 is fixedly connected with a locking member 52. The second sliding member 5 is used to drive the locking member 52 to move up and down. The outer surface of the top of the locking member 52 is slidably connected to the front side of the collection box 12. The top of the locking member 52 is sleeved on the outer surface of the front side of the machine body 1. The locking member 52 is used to block the collection box 12.
[0050] When the debris generated during the cutting of the ingot falls into the inside of the collection box 12, at this time, the debris can fall onto the upper surface of the second sliding member 5. As the debris inside the collection box 12 gradually increases, at this time, the debris can gradually squeeze the second sliding member 5 downward. When the second sliding member 5 moves downward, it can move the fifth spring 51 to a stretched state. When the inside of the collection box 12 is filled, at this time, the debris can squeeze the second sliding member 5 to the bottommost end. When the second sliding member 5 moves downward, it can drive the locking member 52 to move simultaneously. When the top of the locking member 52 moves downward, it can be disengaged from the socket on the front end of the machine body 1, so as to remind the staff to replace the collection box 12 in time and prevent the debris from overflowing from the inside of the collection box 12.
[0051] A pushing member 53 is slidably connected to the upper surface of the bottom of the machine body 1. The front side of the pushing member 53 is in pressing fit with the rear side of the collection box 12. The pushing member 53 is used to push out the collection box 12. The outer surface of the left end of the pushing member 53 is fixedly sleeved with a sixth spring 54. The left end of the sixth spring 54 is fixedly connected to the front side of the upper surface of the bottom of the machine body 1. The sixth spring 54 is used to drive the pushing member 53 to eject forward.
[0052] When the locking member 52 moves downward, the sixth spring 54 in a compressed state can drive the pushing member 53 to move forward. When the pushing member 53 moves forward, it can slightly eject the collection box 12 from the inside of the machine body 1, so as to facilitate the staff to replace the collection box 12.
[0053] When the staff finishes processing the debris inside the collection box 12, the collection box 12 can be pushed back into the interior of the machine body 1 again. When the collection box 12 moves backward, it can drive the locking member 52 to move simultaneously through the second sliding member 5. When the locking member 52 moves backward, the inclination at the top of the locking member 52 can be squeezed by the front side of the collection box 12, prompting the locking member 52 to drive the second sliding member 5 to move downward. When the second sliding member 5 moves downward, it can move the fifth spring 51 to a stretched state. As the collection box 12 is then pushed further into the machine body 1, at this time, the outer surface of the top of the locking member 52 can slide into the front side of the collection box 12, and the locking member 52 in the stretched state can drive the locking member 52 to move upward through the fifth spring 51, so that the top of the locking member 52 is sleeved on the outer surface of the front side of the machine body 1, thereby being able to fix the collection box 12 again.
[0054] When the collection box 12 is pushed into the interior of the machine body 1, the rear side of the collection box 12 can squeeze the front side of the pushing member 53 to make the pushing member 53 slide backward, and when the pushing member 53 slides backward, it can drive the sixth spring 54 to move to the initial state.
[0055] Although the present disclosure has been shown and described with reference to specific exemplary embodiments of the present disclosure, those skilled in the art should understand that various changes in form and detail can be made to the present disclosure without departing from the spirit and scope of the present disclosure as defined by the appended claims and their equivalents. Therefore, the scope of the present disclosure should not be limited to the above embodiments, but should be determined not only by the appended claims but also by the equivalents of the appended claims.
Claims
1. A processing device for zinc alloy ingot forming, comprising a machine body (1), a cutting member (11) is arranged on one side of the machine body (1), a driving assembly is arranged inside the cutting member (11), a collection box (12) is detachably connected to the bottom of one side of the machine body (1), motors (13) are fixedly connected to both ends of one side of the machine body (1), the output shafts of the motors (13) are fixedly connected with threaded rods (14), the two ends of the threaded rods (14) are rotatably connected to the upper surface of the machine body (1), and a pushing plate (15) is threadedly connected between the outer surfaces of the threaded rods (14), characterized in that, On both sides of the upper surface of the body (1), electric slide rails (2) are fixedly connected. The inside of the cutting member (11) is electrically connected to the inside of the electric slide rails (2). Between the inner sides of the electric slide rails (2), a pressing member (21) is slidably connected. On both sides of the lower surface of the pressing member (21), a plurality of pulling ropes (23) are fixedly connected in a straight line. On the lower surfaces of both sides of the pressing member (21), first sliding members (22) are slidably connected. On the lower surfaces of the first sliding members (22), some other pulling ropes (23) are fixedly connected. Between the bottom ends of the pulling ropes (23), a shaping plate (24) is fixedly connected. The outer surfaces of the shaping plate (24) are slidably connected to the inside of the body (1).
2. The processing equipment for zinc alloy ingot forming according to claim 1, wherein On the outer surfaces of both sides of the top of the first sliding member (22), first springs (221) are fixedly sleeved. Between the bottom ends of the first springs (221), they are fixedly connected to the upper surfaces of both sides of the pressing member (21).
3. A processing device for zinc alloy ingot forming according to claim 2, characterized in that, On both sides of the body (1) close to the cutting member (11), protective plates (25) are fixedly connected. The whole of the pulling rope (23) is made of a fireproof material.
4. A processing device for zinc alloy ingot forming according to claim 1, characterized in that, At both ends of the electric slide rail (2), extrusion frames (3) are symmetrically fixedly connected. Inside the body (1), a receiving plate (301) is fixedly connected. The two sides of the receiving plate (301) are inclined. Inside the body (1), on both sides, sealing members (31) are rotatably connected symmetrically. Both ends of the sealing member (31) rotatably penetrate through the inside of the body (1). The bottom end of the sealing member (31) is inclined. The bottom end of the sealing member (31) is in fitting contact with both ends of the receiving plate (301). Between the outer surfaces of both ends of the sealing member (31), a swing frame (311) is fixedly connected. The lower surface of the extrusion frame (3) is in extrusion fit with the upper surface of the swing frame (311).
5. A processing device for zinc alloy ingot forming according to claim 4, characterized in that, On the outer surfaces of both ends of the sealing member (31), torsion springs (32) are fixedly sleeved. The ends of the torsion springs (32) close to each other are fixedly connected to the outer surface of the body (1).
6. The processing equipment for zinc alloy ingot forming according to claim 1, wherein, A vibration member (42) is slidably connected to the inner side of the body (1). Both ends of the vibration member (42) slidably penetrate through both sides of the body (1). The upper surface of the vibration member (42) is in pressing fit with the lower surface of the receiving plate (301). Sliding frames (421) are fixedly connected to both sides of the vibration member (42). A plurality of fourth springs (44) are fixedly connected to the upper surface of the middle part of the sliding frame (421). The tops of the fourth springs (44) are fixedly connected to the outer surface of the body (1). Telescopic members (41) are symmetrically and slidably connected to both sides of the sliding frame (421). The upper and lower ends of the telescopic member (41) are symmetrically inclined. Inclined grooves are symmetrically formed in one side of the body (1). One side of each telescopic member (41) is slidably connected to the inclined groove on one side of the body (1). Third springs (43) are fixedly sleeved on the outer surfaces of both ends of the vibration member (42). The mutually remote ends of the third springs (43) are fixedly connected to the mutually approaching sides of the telescopic members (41). Pressing blocks (4) are symmetrically and slidably penetrated and connected to both sides of the bottom end of the pressing frame (3). The upper surfaces of the inner ends of the pressing blocks (4) are inclined. The outer surfaces of the pressing blocks (4) are in pressing fit with the inclined surfaces of the telescopic members (41).
7. The processing equipment for zinc alloy ingot forming according to claim 6, characterized in that, Second springs (401) are fixedly sleeved on the mutually remote outer surfaces of the pressing blocks (4). The mutually approaching ends of the second springs (401) are fixedly connected to the outer surface of the pressing frame (3).
8. A processing device for zinc alloy ingot forming according to claim 1, characterized in that, A second sliding member (5) is slidably connected to the inner side of the collection box (12). The outer surface of the bottom of the second sliding member (5) slidably penetrates through the lower surface of the collection box (12). Fifth springs (51) are fixedly sleeved on the outer surfaces of both ends of the bottom of the second sliding member (5). The tops of the fifth springs (51) are fixedly connected to the lower surface of the collection box (12). A locking member (52) is fixedly connected to the bottom end of the second sliding member (5). The outer surface of the top of the locking member (52) is slidably connected to one side of the motor (13). One side of the top end of the locking member (52) is inclined. The inclined shape at the top end of the locking member (52) is in pressing fit with one side of the collection box (12). The top end of the locking member (52) is sleeved inside one side of the body (1).
9. The processing equipment for zinc alloy ingot forming according to claim 8, characterized in that, A pushing member (53) is slidably connected to the upper surface of the bottom of the body (1). One end of the pushing member (53) is in pressing fit with one side of the collection box (12). A sixth spring (54) is fixedly sleeved on the outer surface of one side of the pushing member (53). One end of the sixth spring (54) is fixedly connected to one side of the upper surface of the bottom of the body (1).