Non-ferrous metal alloy component punch forming machine

Abstract

The invention relates to the technical field of metal alloy component stamping, and discloses a non-ferrous metal alloy component stamping forming machine which comprises a stamping rack, a lower die is installed at the bottom of the stamping rack, a hydraulic rod is installed at the top of the stamping rack, and an upper die matched with the lower die is installed at the telescopic end of the bottom of the hydraulic rod. A roller conveyor is mounted on the punching rack and is used for conveying the transferred metal alloy component; in the whole process of transferring the metal alloy component from the lower die to the roller conveyor, flexible supporting is achieved through the two rubber carrier rollers, transferring is completed through rolling movement of the rubber carrier rollers, and no sliding friction exists on the surface of the component in the whole process; the problems of surface scraping, wire drawing lines and other damage caused by sliding friction between the component and the lower die and between the component and the equipment table board in a traditional discharging mode are fundamentally solved, the surface machining precision and the appearance quality of the metal alloy component are ensured, and an additional surface repairing procedure does not need to be added.

Description

Technical Field

[0001] This invention relates to the field of metal alloy component stamping technology, specifically a non-ferrous metal alloy component stamping forming machine. Background Technology

[0002] Non-ferrous metal alloys, due to their excellent electrical and thermal conductivity, corrosion resistance, and plasticity, are widely used in aerospace, automotive manufacturing, electronics and communications, and new energy fields. The forming precision and surface quality of their components directly determine the performance of the end products. Stamping is one of the mainstream processing methods for non-ferrous metal alloy components.

[0003] In existing metal alloy stamping machines, after the stamping process of non-ferrous metal alloy components is completed, the ejector mechanism pushes the formed component out of the lower die cavity. Subsequently, a hydraulic drive mechanism on one side of the lower die drives the pusher plate to move, pushing the non-ferrous metal alloy component horizontally towards the collection area or conveying end. However, during this lateral movement, the sliding friction between the non-ferrous metal alloy component and the sliding contact surface can easily cause scratch damage to the component surface, directly affecting the surface quality of the stamped product. At the same time, the sidewalls of non-ferrous metal alloy components are mostly thin-walled structures, and the unilateral thrust of the pusher plate can easily cause plastic deformation of the component sidewalls due to uneven local stress, resulting in the component's dimensional and positional tolerances exceeding the standard and significantly reducing the finished product qualification rate.

[0004] To address the problems mentioned above, those skilled in the art have proposed a non-ferrous metal alloy component stamping machine. Summary of the Invention

[0005] The purpose of this invention is to provide a non-ferrous metal alloy component stamping machine to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, the present invention provides the following technical solution:

[0007] A non-ferrous metal alloy component stamping forming machine includes a stamping frame, a lower die mounted at the bottom of the stamping frame, a hydraulic rod mounted at the top, an upper die cooperating with the lower die mounted at the bottom telescopic end of the hydraulic rod, and a roller conveyor mounted on the stamping frame for conveying the transferred metal alloy components. The machine also includes:

[0008] The path control plate and the moving frame are provided. The upper and lower ends of the path control plate are equipped with housings, and the lower housing is connected to the stamping machine frame through several brackets. The moving frame is rotatably equipped with two symmetrically distributed rotating shafts, and rubber rollers are installed on the rotating shafts.

[0009] A rotating assembly, which is mounted on a movable frame, is used to drive the rotating shaft to rotate. The rotating rubber rollers can transport the lifted metal alloy components to the roller conveyor.

[0010] A control component is disposed on a path control plate and connected to a rotating component, which is used to limit the position of the rotating component during the movement of the moving frame;

[0011] An elastic component is disposed between the moving frame and the control component to provide elastic support for the control component. When the moving frame moves the metal alloy component supported by the rubber roller to the roller conveyor, the control component will automatically cooperate with the elastic component to drive the rotating component, drive the rotating shaft to rotate, and roll the supported metal alloy component onto the roller conveyor through the rotating rubber roller.

[0012] A movable component, disposed between the housing and the movable frame, is used to drive the movable frame to move;

[0013] An ejector assembly is disposed between the press frame and the lower die, and is used to eject the metal alloy component stamped in the lower die.

[0014] As a preferred embodiment of the present invention, the rotating assembly includes a groove formed at the bottom of the movable frame, a sliding strip slidably disposed in the groove, a rack corresponding to two rotating shafts mounted on the sliding strip, and a gear meshing with the rack mounted on the rotating shaft.

[0015] As a preferred embodiment of the present invention, the control component includes a drive plate connected to a sliding bar and a horizontal guide groove, a vertical drive groove, and a reset groove that are opened on the path control plate and connected to each other. Two symmetrically distributed connecting rods are installed on the drive plate. The end of the connecting rod away from the drive plate is rotatably provided with a sliding column that can slide and cooperate with the horizontal guide groove, the vertical drive groove, and the reset groove. A stop is also provided at the connection between the reset groove and the horizontal guide groove.

[0016] As a preferred embodiment of the present invention, the transverse guide groove and the vertical drive groove are perpendicular to each other, the reset groove is connected to the side of the transverse guide groove near the vertical drive groove, and the reset groove is inclined.

[0017] As a preferred embodiment of the present invention, the stop component includes a slot formed at the connection between the reset slot and the transverse guide slot. A mounting shaft is rotatably provided at one end of the slot near the vertical drive slot. A card plate that mates with the slot is mounted on the mounting shaft, and a torsion spring that is connected to the slot is provided on the mounting shaft.

[0018] As a preferred embodiment of the present invention, the elastic component includes a fixed cylinder installed at the end of the movable frame, a sliding plate slidably disposed inside the fixed cylinder, a support rod mounted on the sliding plate that slidably engages with the end of the fixed cylinder, the support rod being connected to a drive plate, a support spring connected to the sliding plate being disposed inside the fixed cylinder, and a flow hole being disposed on the sliding plate.

[0019] As a preferred embodiment of the present invention, the moving component includes mounting plates installed on the surfaces of two housings. A screw is rotatably mounted on the mounting plate of one housing, and a guide rod is mounted on the mounting plate of the other housing. Connecting frames are installed on both sides of the moving frame. One connecting frame is threadedly connected to the screw, and the other connecting frame is slidably engaged with the guide rod. A motor connected to the screw is mounted on the mounting plate.

[0020] As a preferred embodiment of the present invention, the ejection assembly includes a drive cavity formed in the press frame, a cylinder is installed in the drive cavity, an ejection rod that slides with the press frame is installed at the telescopic end of the cylinder, an ejection groove is formed in the lower mold, and an ejection plate that cooperates with the ejection groove is installed at one end of the ejection rod that passes through the ejection groove.

[0021] As a preferred embodiment of the present invention, a fixed plate is installed on the side of the stamping frame near the movable frame, and a plurality of movable shafts are rotatably arranged on the fixed plate. Auxiliary rollers are installed on the movable shafts, and a plurality of through holes corresponding to the auxiliary rollers are opened on the movable frame.

[0022] The present invention has the following advantages: In the entire process of transferring metal alloy components from the lower mold to the roller conveyor, the present invention uses two rubber rollers to provide flexible support, and the transfer is completed by the rolling motion of the rubber rollers. There is no sliding friction on the surface of the component throughout the process, which fundamentally solves the problem of surface scratches, wire drawing, and other damage caused by sliding friction between the component and the lower mold and the equipment table in the traditional material discharge method. This ensures the surface processing accuracy and appearance quality of the metal alloy components without the need for additional surface repair processes. At the same time, the metal alloy components are not subjected to localized concentrated force during the transfer process, which effectively avoids the problem of uneven force on the side walls of the components (especially thin-walled side walls) caused by traditional single-sided material pushing, resulting in plastic deformation, warping, or dents. This significantly improves the pass rate of stamped products and also avoids the wear caused to the lower mold and equipment table by the sliding friction between the component and the lower mold and the table in the traditional hydraulic material pushing process. Attached Figure Description

[0023] Figure 1 This is a schematic diagram of a non-ferrous metal alloy component stamping machine.

[0024] Figure 2 This is a schematic diagram of the ejector assembly in a non-ferrous metal alloy component stamping machine.

[0025] Figure 3 This is a schematic diagram of the structure of the rubber roller and path control plate area in a non-ferrous metal alloy component stamping machine.

[0026] Figure 4 This is a schematic diagram of the path control plate and the outer shell in a non-ferrous metal alloy component stamping machine.

[0027] Figure 5 This is a partial cross-sectional view of the path control plate in a non-ferrous metal alloy component stamping machine.

[0028] Figure 6 This is a schematic diagram of the moving component in a non-ferrous metal alloy component stamping machine.

[0029] Figure 7 This is a schematic diagram of the control and rotation components in a non-ferrous metal alloy component stamping machine.

[0030] Figure 8 This is a schematic diagram of the structure of an elastic component in a non-ferrous metal alloy component stamping machine.

[0031] Figure 9 This is a schematic diagram of the structure of an auxiliary roller in a non-ferrous metal alloy component stamping machine.

[0032] In the diagram: 101. Press frame; 102. Lower die; 103. Upper die; 104. Hydraulic rod; 105. Roller conveyor; 2. Ejection assembly; 201. Ejection groove; 202. Ejection plate; 203. Drive cavity; 204. Cylinder; 205. Ejection rod; 301. Path control plate; 302. Housing; 303. Support; 304. Moving frame; 305. Rotating shaft; 306. Rubber idler roller; 4. Moving assembly; 401. Connecting frame; 402. Screw; 403. Motor; 404. Guide rod; 405. Mounting plate; 5. Control assembly; 50 1. Horizontal guide groove; 502. Vertical drive groove; 503. Reset groove; 504. Slot; 505. Mounting shaft; 506. Slot plate; 507. Torsion spring; 508. Sliding column; 509. Connecting rod; 510. Drive plate; 6. Rotating assembly; 601. Slide groove; 602. Sliding bar; 603. Rack; 604. Gear; 7. Elastic assembly; 701. Fixed cylinder; 702. Sliding plate; 703. Support rod; 704. Support spring; 705. Flow hole; 801. Fixed plate; 802. Movable shaft; 803. Auxiliary roller; 804. Perforation. Detailed Implementation

[0033] The technical solution of the present invention will be further described in detail below with reference to specific embodiments.

[0034] Please see Figures 1-9A non-ferrous metal alloy component stamping forming machine includes a stamping frame 101, a lower die 102 mounted at the bottom of the stamping frame 101, a hydraulic rod 104 mounted at the top, an upper die 103 cooperating with the lower die 102 mounted at the bottom telescopic end of the hydraulic rod 104, and a roller conveyor 105 mounted on the stamping frame 101 for conveying the transferred metal alloy components. The machine also includes:

[0035] The path control plate 301 and the moving frame 304 are provided. The upper and lower ends of the path control plate 301 are equipped with housings 302. The lower housing 302 is connected to the stamping frame 101 through several brackets 303. The moving frame 304 is rotatably provided with two symmetrically distributed rotating shafts 305. Rubber rollers 306 are installed on the rotating shafts 305. The surface of the rubber rollers 306 is covered with a rubber layer to protect the surface of the metal alloy components being supported.

[0036] Rotating component 6, which is mounted on the movable frame 304, is used to drive the rotating shaft 305 to rotate. The rotating rubber roller 306 can transport the lifted metal alloy component to the roller conveyor 105.

[0037] The control component 5 is disposed on the path control plate 301 and connected to the rotation component 6. During the movement of the moving frame 304, it is used to limit the position of the rotation component 6.

[0038] The elastic component 7 is disposed between the moving frame 304 and the regulating component 5 to provide elastic support for the regulating component 5. When the moving frame 304 moves the metal alloy component supported by the rubber roller 306 to the roller conveyor 105, the regulating component 5 will automatically cooperate with the elastic component 7 to drive the rotating component 6, drive the rotating shaft 305 to rotate, and roll the supported metal alloy component onto the roller conveyor 105 through the rotating rubber roller 306.

[0039] A movable component 4 is disposed between the housing 302 and the movable frame 304, and is used to drive the movable frame 304 to move.

[0040] Ejection assembly 2 is disposed between the stamping frame 101 and the lower die 102 and is used to eject the metal alloy component stamped in the lower die 102.

[0041] In one instance of this embodiment, please refer to Figure 3 and Figure 7 The rotating assembly 6 includes a groove 601 formed at the bottom of the movable frame 304. A sliding strip 602 is slidably disposed in the groove 601. A rack 603 corresponding to two rotating shafts 305 is mounted on the sliding strip 602. A gear 604 meshing with the rack 603 is mounted on the rotating shaft 305.

[0042] After the ejector assembly 2 ejects the metal alloy component stamped in the lower mold 102, the moving assembly 4 drives the moving frame 304 to move toward the lower mold 102, so that the two rubber rollers 306 on the moving frame 304 move to below the ejected metal alloy component.

[0043] It should be noted that the moving paths of the two rubber rollers 306 do not interfere with the ejection trajectory of the ejection assembly 2, and the highest point of the rubber rollers 306 in the initial position is lower than the lowest point of the ejected metal alloy component, ensuring accurate support during lifting.

[0044] After the rubber roller 306 moves to the bottom of the metal alloy component, the ejector assembly 2 resets, the metal alloy component is lifted by the rubber roller 306, and then the moving frame 304 resets under the drive of the moving assembly 4.

[0045] When the rubber idler roller 306 moves to the roller conveyor 105, the control component 5, in conjunction with the elastic component 7, drives the sliding bar 602 to move along the chute 601 to one side of the path control plate 301. Then, through the meshing rack 603 and gear 604, the rotating shaft 305 is driven to rotate, causing the rubber idler roller 306 to rotate and transporting the lifted metal alloy component to the roller conveyor 105, thereby achieving frictionless transfer of the metal alloy component.

[0046] In one instance of this embodiment, please refer to Figure 3 and Figure 7 The control component 5 includes a drive plate 510 connected to the sliding bar 602, and a horizontal guide groove 501, a vertical drive groove 502, and a reset groove 503 that are opened on the path control plate 301 and connected to each other. Two symmetrically distributed connecting rods 509 are installed on the drive plate 510. The end of the connecting rod 509 away from the drive plate 510 is rotatably provided with a sliding column 508 that can slide with the horizontal guide groove 501, the vertical drive groove 502, and the reset groove 503. A stop is also provided at the connection between the reset groove 503 and the horizontal guide groove 501.

[0047] The horizontal guide groove 501 and the vertical drive groove 502 are in a vertical state. The reset groove 503 is connected to the side of the horizontal guide groove 501 near the vertical drive groove 502, and the reset groove 503 is in an inclined state.

[0048] The movement path of slide bar 508 is as follows: (Refer to Appendix) Figure 6In the initial state, when the rubber roller 306 is facing the roller conveyor 105, the drive plate 510 is pushed by the elastic force of the elastic component 7, so that the sliding column 508 at the end of the connecting rod 509 is located at the lower end of the vertical drive groove 502, and the stop component will block the connection between the reset groove 503 and the transverse guide groove 501.

[0049] As the rubber roller 306 moves below the metal alloy component, the slide column 508 slides along the reset groove 503 and passes over the stop to enter the transverse guide groove 501, thereby resetting the elastic component 7 and the rotating component 6.

[0050] As the rubber idler roller 306 moves the lifted metal alloy component to the roller conveyor 105, the slide column 508 slides along the transverse guide groove 501 and slides directly over the stop to the vertical drive groove 502. Under the elastic force of the elastic component 7, the drive plate 510 pushes the slide column 508 along the vertical drive groove 502 to its initial position via the connecting rod 509. During this process, the rotating component 6 is driven and drives the rotating shaft 305 to rotate, so that the rotating rubber idler roller 306 can roll and transfer the metal alloy component onto the roller conveyor 105, achieving a non-slip friction rolling transfer.

[0051] Furthermore, the stop component includes a slot 504 formed at the connection between the reset slot 503 and the transverse guide slot 501. A mounting shaft 505 is rotatably provided at one end of the slot 504 near the vertical drive slot 502. A locking plate 506 that cooperates with the slot 504 is mounted on the mounting shaft 505, and a torsion spring 507 that is connected to the slot 504 is provided on the mounting shaft 505.

[0052] Under the action of the torsion spring 507, the mounting shaft 505 is subjected to torsional elastic force, causing the clamping plate 506 to be locked in the clamping groove 504. This prevents the sliding column 508 from entering the reset groove 503 during the sliding process of the sliding column 508 along the transverse guide groove 501 to the vertical drive groove 502. Thus, before the rubber roller 306 moves to the roller conveyor 105, the rotating component 6 is kept in a limited state, preventing the rubber roller 306 from rotating and affecting the movement stability of the lifted metal alloy component. When the sliding column 508 moves along the reset groove 503 to the transverse guide groove 501, the sliding column 508 will push the clamping plate 506, causing the clamping plate 506 to rotate around the axis of the mounting shaft 505. This allows the sliding column 508 to slide into the transverse guide groove 501. Subsequently, under the action of the torsion spring 507, the mounting shaft 505 will drive the clamping plate 506 to reset.

[0053] In one instance of this embodiment, please refer to Figure 3 , Figure 7 and Figure 8The elastic component 7 includes a fixed cylinder 701 installed at the end of the movable frame 304. A sliding plate 702 is slidably disposed inside the fixed cylinder 701. A support rod 703 that slidably engages with the end of the fixed cylinder 701 is installed on the sliding plate 702. The support rod 703 is connected to the drive plate 510. A support spring 704 connected to the sliding plate 702 is disposed inside the fixed cylinder 701. A flow hole 705 is disposed on the sliding plate 702.

[0054] When the support spring 704 is compressed, the sliding plate 702 is subjected to an elastic force toward the support rod 703. This allows the support rod 703 to apply an elastic force toward the path control plate 301 to the drive plate 510. As the sliding column 508 slides from the transverse guide groove 501 to the vertical drive groove 502, it will push the sliding column 508 to slide along the vertical drive groove 502, thereby driving the rotating assembly 6 and enabling the rubber roller 306 to achieve the rolling transfer of the metal alloy component.

[0055] Furthermore, the fixed cylinder 701 is filled with hydraulic oil. When the support spring 704 drives the sliding plate 702 to move, the hydraulic oil flows slowly through the flow hole 705 to both sides, forming a damping effect to suppress the rapid sliding of the sliding plate 702. This prevents the sliding plate 702 from sliding too fast, which would cause the drive plate 510 to move too fast. It can also prevent the rotating component 6 from driving the rotating shaft 305 to rotate too fast, which would affect the smooth transfer of the metal alloy component by the rubber roller 306. At the same time, it can also prevent the rubber roller 306 from sliding and rubbing against the surface of the metal alloy component.

[0056] In one instance of this embodiment, please refer to Figure 3 and Figure 6 The moving component 4 includes mounting plates 405 mounted on the surfaces of two housings 302. A screw 402 is rotatably mounted on the mounting plate 405 of one housing 302, and a guide rod 404 is mounted on the mounting plate 405 of the other housing 302. Connecting brackets 401 are mounted on both sides of the moving frame 304. One connecting bracket 401 is threadedly connected to the screw 402, and the other connecting bracket 401 is slidably engaged with the guide rod 404. A motor 403 connected to the screw 402 is mounted on the mounting plate 405.

[0057] Specifically, the motor 403 is started by the controller of the stamping machine. The motor 403 drives the screw 402 to rotate. With the limit of the guide rod 404, the moving frame 304 can be moved by the connecting frame 401, so that it can move back and forth between the lower mold 102 and the roller conveyor 105, which facilitates the non-slip friction transfer of metal alloy components.

[0058] In one instance of this embodiment, please refer to Figure 1 and Figure 2The ejector assembly 2 includes a drive cavity 203 formed in the stamping frame 101. A cylinder 204 is installed in the drive cavity 203. An ejector rod 205 that slides with the stamping frame 101 is installed at the telescopic end of the cylinder 204. An ejector groove 201 is formed in the lower mold 102. An ejector plate 202 that cooperates with the ejector groove 201 is installed at one end of the ejector rod 205 that passes through the ejector groove 201.

[0059] After the metal alloy component is stamped, the hydraulic rod 104 drives the upper mold 103 to rise to a safe distance. After the upper mold 103 is in place, the controller triggers the cylinder 204 to start. The cylinder 204 extends and drives the ejector rod 205, so that the ejector rod 205 can push the ejector plate 202. The metal alloy component in the lower mold 102 can be ejected through the ejector plate 202.

[0060] In one instance of this embodiment, please refer to Figure 1 and Figure 9 A fixed plate 801 is installed on the side of the stamping frame 101 near the movable frame 304. Several movable shafts 802 are rotatably arranged on the fixed plate 801. Auxiliary rollers 803 are installed on the movable shafts 802. Several through holes 804 corresponding to the auxiliary rollers 803 are opened on the movable frame 304.

[0061] Because there is a gap between the two rubber rollers 306, the metal alloy component may slip out of the gap during the process of the rubber rollers 306 rolling and transferring the metal alloy component to the roller conveyor 105. Therefore, during the process of the rubber rollers 306 lifting the metal alloy component and resetting, the auxiliary roller 803 will gradually pass through the perforation 804 and embed itself in the gap between the two rubber rollers 306 as the moving frame 304 resets. The highest point of the auxiliary roller 803 is lower than the highest point of the rubber rollers 306, thereby avoiding collision between the auxiliary roller 803 and the metal alloy component.

[0062] In use, the present invention can achieve the stamping of metal alloy components by means of the lower mold 102, the upper mold 103 and the hydraulic rod 104. Then the upper mold 102 and the lower mold 103 are separated, and the stamped metal alloy component is ejected from the lower mold 102 by the ejection assembly 2. Then the metal alloy component is transferred.

[0063] When the metal alloy component is transferred, the two rubber rollers 306 arranged opposite each other on the moving frame 304 are moved to the underside of the ejected metal alloy component by the moving component 4. Then, the resetting of the ejection mechanism causes the metal alloy component to be lifted by the rubber rollers 306. The vertical separation of the metal alloy component and the ejection component 2 can reduce the frictional damage caused by the separation process.

[0064] Then, the moving frame 304 is reset under the drive of the moving component 4, and the lifted metal alloy component will move to the roller conveyor 105. At this time, the control component 5 and the elastic component 7 will cooperate with each other and start to drive the rotating component 6, so that the rotating component 6 drives the rotating shaft 305 to rotate. The rotating rubber roller 306 will push the lifted metal alloy component and roll the metal alloy component to the roller conveyor 105.

[0065] Furthermore, before the rubber roller 306 performs the next lifting and transfer, the rotating component 6 and the elastic component 7 can be automatically reset by the control component 5, and the moving frame 304 can be driven to reciprocate by the moving component 4, so as to achieve the non-slip friction transfer of the metal alloy components.

[0066] The power supply and control of the electrical equipment in this application are all existing technologies and will not be elaborated upon here. The control of each component can be achieved using a PLC controller disclosed in the prior art, and the model and circuit connection of each component are not specifically limited. All electrical equipment involved are existing technologies, which can be fully implemented by those skilled in the art, and need not be elaborated upon. The scope of protection of this invention does not involve improvements to the software and methods.

[0067] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

[0068] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A stamping machine for non-ferrous metal alloy components, comprising a stamping frame, characterized in that, The stamping press frame is equipped with a roller conveyor for conveying the transferred metal alloy components, and also includes: The path control plate and the moving frame are provided. The upper and lower ends of the path control plate are equipped with housings, and the lower housing is connected to the stamping machine frame through several brackets. The moving frame is rotatably equipped with two symmetrically distributed rotating shafts, and rubber rollers are installed on the rotating shafts. A rotating assembly, which is mounted on a movable frame, is used to drive the rotating shaft to rotate. The rotating rubber rollers can transport the lifted metal alloy components to the roller conveyor. A control component is disposed on a path control plate and connected to a rotating component, which is used to limit the position of the rotating component during the movement of the moving frame; An elastic component is disposed between the moving frame and the control component to provide elastic support for the control component. When the moving frame moves the metal alloy component supported by the rubber roller to the roller conveyor, the control component will automatically cooperate with the elastic component to drive the rotating component, drive the rotating shaft to rotate, and roll the supported metal alloy component onto the roller conveyor through the rotating rubber roller.

2. The non-ferrous metal alloy component stamping forming machine according to claim 1, characterized in that, The rotating assembly includes a groove formed at the bottom of the movable frame, a sliding strip slidably disposed in the groove, a rack corresponding to two rotating shafts mounted on the sliding strip, and a gear meshing with the rack mounted on the rotating shaft.

3. The non-ferrous metal alloy component stamping machine according to claim 2, characterized in that, The control assembly includes a drive plate connected to a sliding bar, and a horizontal guide groove, a vertical drive groove, and a reset groove that are opened on the path control plate and connected to each other. Two symmetrically distributed connecting rods are installed on the drive plate. The end of the connecting rod away from the drive plate is rotatably provided with a sliding column that can slide and cooperate with the horizontal guide groove, the vertical drive groove, and the reset groove. A stop is also provided at the connection between the reset groove and the horizontal guide groove.

4. The non-ferrous metal alloy component stamping forming machine according to claim 3, characterized in that, The horizontal guide groove and the vertical drive groove are perpendicular to each other. The reset groove is connected to the side of the horizontal guide groove near the vertical drive groove, and the reset groove is inclined.

5. The non-ferrous metal alloy component stamping forming machine according to claim 3, characterized in that, The stop component includes a slot formed at the connection between the reset slot and the transverse guide slot. A mounting shaft is rotatably provided at one end of the slot near the vertical drive slot. A locking plate that mates with the slot is mounted on the mounting shaft, and a torsion spring that connects to the slot is also provided on the mounting shaft.

6. The non-ferrous metal alloy component stamping machine according to claim 5, characterized in that, The elastic component includes a fixed cylinder installed at the end of the movable frame, a sliding plate slidably disposed inside the fixed cylinder, a support rod mounted on the sliding plate that slidably engages with the end of the fixed cylinder, the support rod being connected to a drive plate, a support spring connected to the sliding plate being disposed inside the fixed cylinder, and a flow hole being disposed on the sliding plate.

7. The non-ferrous metal alloy component stamping machine according to claim 6, characterized in that, It also includes a moving component disposed between the housing and the moving frame. The moving component includes mounting plates mounted on the surfaces of the two housings. A screw is rotatably mounted on the mounting plate of one housing, and a guide rod is mounted on the mounting plate of the other housing. Connecting frames are mounted on both sides of the moving frame. One connecting frame is threadedly connected to the screw, and the other connecting frame is slidably engaged with the guide rod. A motor connected to the screw is mounted on the mounting plate.

8. The non-ferrous metal alloy component stamping machine according to claim 7, characterized in that, It also includes an ejector assembly, which is disposed between the press frame and the lower die. The ejector assembly includes a drive cavity opened in the press frame, a cylinder installed in the drive cavity, and an ejector rod that slides with the press frame at the telescopic end of the cylinder. An ejector groove is opened in the lower die, and an ejector plate that cooperates with the ejector groove is installed at one end of the ejector rod that passes through the ejector groove.

9. The non-ferrous metal alloy component stamping machine according to claim 8, characterized in that, A fixed plate is installed on the side of the stamping machine frame near the movable frame. Several movable shafts are rotatably arranged on the fixed plate, and auxiliary rollers are installed on the movable shafts. Several through holes corresponding to the auxiliary rollers are opened on the movable frame.

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