Metallic copper casting device and metallic copper processing system

Abstract

The utility model discloses a metal copper casting device and a metal copper processing system. The metal copper casting device comprises a workbench, a shaking platform, a transfer container and a casting mold mechanism. The pouring mold is mounted on the shaking platform; the pouring mold is provided with a mold cavity, and the mold cavity communicates with the transfer container; two opposite inner side walls of the mold cavity are respectively provided with a guide groove which is inclined downwards; a strip-shaped groove extending vertically is formed in the outer side wall of the pouring mold; the lower pressing block is installed in the guide groove in a reset adjusting mode. One end of the connecting rod is connected to the lower pressing block, and the other end of the connecting rod is connected to the mold outer plate, so that the mold outer plate is limited on the outer side of the pouring mold; the output end of the X-axis driver is connected to the side pressing plate and used for driving the side pressing plate to move back and forth in the X-axis direction, so that the side pressing plate moves to abut against the outer mold plate, and the lower pressing block downwards and obliquely moves towards the middle of the mold cavity. According to the scheme, the defects that a metal part is not compact enough in structure, low in structural strength and the like during casting are overcome.

Description

Technical Field

[0001] This utility model relates to the field of metal casting equipment, and in particular to a copper casting equipment and a copper processing system. Background Technology

[0002] Casting is the process of pouring molten metal into a mold, where it cools and solidifies to obtain parts with the desired shape and properties. In existing casting equipment, the molten metal is not subjected to any external forces during its journey from the furnace to the mold cavity. This results in poor fluidity of the molten metal before and during crystallization, which in turn prevents the effective expulsion of gases. This gas retention leads to the formation of voids in the casting. Simultaneously, slag or oxides, due to insufficient fluidity, cannot float to the surface and remain inside the casting, affecting structural strength. Consequently, casting results in drawbacks such as insufficiently tight structural bonding, excessive gaps, and low structural strength. Utility Model Content

[0003] The purpose of this invention is to provide a metal copper casting device, which uses an X-axis driver to drive a side pressure plate to move, so that the side pressure plate contacts the outer mold plate during the movement. The side pressure plate drives the lower pressure block to move downward along the guide groove, thereby clamping the metal part in the mold cavity and squeezing it downward, thereby improving the casting quality of the metal part.

[0004] This utility model also proposes a metal copper processing system, which uses the aforementioned metal copper casting device.

[0005] To achieve this objective, the present invention adopts the following technical solution:

[0006] A copper casting apparatus includes: a worktable, a swaying platform, a transfer container, and a casting mold mechanism;

[0007] The swaying platform is movably mounted on the workbench; the transfer container is mounted on the swaying platform;

[0008] The casting mechanism includes: a casting mold, a lower pressure block, an outer mold plate, a connecting rod, a side pressure plate, and an X-axis driver;

[0009] The casting mold is mounted on the swaying platform; the casting mold has a cavity that is connected to the transfer container; the two opposing inner sidewalls of the cavity are respectively provided with downwardly inclined guide grooves; the outer sidewall of the casting mold is provided with a vertically extending strip groove; the lower pressure block is repositionably and adjustablely mounted in the guide groove; the connecting rod is limited to move in the strip groove, one end of the connecting rod is connected to the lower pressure block, and the other end of the connecting rod is connected to the outer mold plate, so that the outer mold plate is limited to the outside of the casting mold;

[0010] The output end of the X-axis driver is connected to the side pressure plate, which drives the side pressure plate to move back and forth along the X-axis direction, so that the side pressure plate moves to abut against the outer mold plate, and the lower pressure block moves downward at an angle toward the center of the mold cavity.

[0011] Alternatively, the casting mechanism may further include: a moving block and a return spring;

[0012] The movable block is vertically and retractably mounted on the strip groove; the movable block is provided with a moving hole; the connecting rod moves horizontally through the moving hole; the return spring is sleeved on the connecting rod, one end of the return spring contacts the outer mold plate, and the other end of the return spring contacts the movable block;

[0013] When the outer mold plate moves to abut against the side pressure plate, the outer mold plate compresses the return spring to elastic contraction; when the side pressure plate moves to disengage from the outer mold plate, the return spring elastically opens and drives the outer mold plate to reset, so that the lower pressure block resets to the guide groove.

[0014] Optimally, the contact surface between the side pressure plate and the outer mold plate is provided with an inclined driving slope.

[0015] Optimally, the inner wall of the mold cavity is provided with an inner groove, which is located on the outer periphery of the guide groove;

[0016] The pressing block is provided with a guide portion and a clamping portion; the guide portion is disposed in the guide groove; the clamping portion is disposed in the inner groove; the clamping portion located in the inner groove is aligned with the inner sidewall of the mold cavity.

[0017] Optimally, the strip groove is provided with a snap-fit ​​baffle along the length of the groove opening, the snap-fit ​​baffle is located on the front and rear sides of the strip groove, and the movable block is movably limited between the two snap-fit ​​baffles.

[0018] Optimally, it may also include: a cooling device;

[0019] At least one of the transfer container, the workbench, and the casting mold is provided with a water-cooling channel. The output end of the cooling device is connected to the input end of the water-cooling channel for supplying cooling medium to the water-cooling channel. The output end of the water-cooling channel is used to discharge the cooling medium.

[0020] Optimally, it may also include: a Y-axis drive;

[0021] The swaying platform is movably mounted on the workbench along the Y-axis; the workbench is provided with a swaying area and a pressing area in sequence along the Y-axis direction, and a pair of side pressure plates are provided in the pressing area;

[0022] The Y-axis drive device is used to drive the shaking platform to move along the Y-axis direction, causing the casting mold to pass through the shaking area and the extrusion area, so that the casting mold enters or leaves between the two side pressure plates.

[0023] Optimally, the Y-axis drive device includes: a rotary driver, a turntable, and a drive arm;

[0024] The output end of the rotary driver is connected to the middle of the turntable and is used to drive the turntable to rotate; one end of the drive arm is rotatably connected to the circumference of the turntable, and the other end of the drive arm is rotatably connected to the swaying platform.

[0025] A copper processing system includes the aforementioned copper casting apparatus.

[0026] Compared with the prior art, one of the above technical solutions has the following beneficial effects:

[0027] This solution provides a copper casting device that uses an X-axis driver to move a side pressure plate so that the side pressure plate contacts the outer mold plate during movement. The side pressure plate drives the lower pressure block to move downward along the guide groove, thereby clamping the metal part in the mold cavity and squeezing it downward. This improves the casting quality of the metal part, increases its strength, and eliminates internal defects, solving the problems of insufficient structural compactness and low structural strength in metal parts during casting. Attached Figure Description

[0028] Figure 1 This is a schematic diagram of one embodiment of a metal copper casting device;

[0029] Figure 2 This is a cross-sectional structural diagram of one embodiment of the casting mechanism;

[0030] Figure 3 yes Figure 2 Enlarged view of section A in the middle;

[0031] Figure 4 This is a frontal cross-sectional view of one embodiment of a metal copper casting device;

[0032] Figure 5 This is a side cross-sectional view of one embodiment of a metal copper casting device.

[0033] in:

[0034] Workbench 31, swaying platform 32, transfer container 33, casting mechanism 4; cooling device 34; Y-axis drive device 35;

[0035] Water cooling channel 311; swaying zone 312; compression zone 313;

[0036] Rotary driver 351, turntable 352, drive arm 353;

[0037] 41. Casting mold, 42. Lower pressure block, 43. Outer mold plate, 44. Connecting rod, 45. Side pressure plate, 46. X-axis driver, 47. Moving block, 48. Return spring;

[0038] Mold cavity 411, guide groove 412, strip groove 413, inner groove 414, snap-fit ​​baffle 414; moving hole 471; driving inclined surface 451;

[0039] Guide section 421, clamping section 422. Detailed Implementation

[0040] The embodiments of this utility model are described in detail below. Examples of these embodiments are shown in the accompanying drawings, wherein the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the accompanying drawings are exemplary and are only used to explain this utility model, and should not be construed as limiting this utility model.

[0041] In the description of this utility model, it should be understood that the terms "center," "longitudinal," "transverse," "length," "width," "thickness," "upper," "lower," "left," "right," "front," "rear," "vertical," "horizontal," "top," "bottom," "inner," "outer," "inner side," "outer side," "inner end," "outer end," "axial," "radial," and "circumferential," etc., indicating the orientation or positional relationship shown in the accompanying drawings, are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this utility model. Furthermore, features defined with "first" and "second" may explicitly or implicitly include one or more of these features, used to distinguish descriptive features, without any order or emphasis. In the description of this utility model, unless otherwise stated, "multiple" means two or more.

[0042] like Figure 1-5 A copper casting apparatus includes: a worktable 31, a swaying platform 32, a transfer container 33, and a casting mold mechanism 4;

[0043] The swaying platform 32 is movably disposed on the workbench 31; the transfer container 33 is mounted on the swaying platform 32;

[0044] The casting mechanism 4 includes: a casting mold 41, a lower pressure block 42, an outer mold plate 43, a connecting rod 44, a side pressure plate 45, and an X-axis driver 46;

[0045] The casting mold 41 is mounted on the swaying platform 32; the casting mold 41 has a mold cavity 411, which is connected to the transfer container 33; the two opposing inner sidewalls of the mold cavity 411 are respectively provided with downwardly inclined guide grooves 412; the outer sidewall of the casting mold 41 is provided with a vertically extending strip groove 413; the lower pressure block 42 is repositionably and adjustablely mounted on the guide groove 412; the connecting rod 44 is limited to move in the strip groove 413, one end of the connecting rod 44 is connected to the lower pressure block 42, and the other end of the connecting rod 44 is connected to the outer mold plate 43, so that the outer mold plate 43 is limited to the outside of the casting mold 41;

[0046] The output end of the X-axis driver 46 is connected to the side pressure plate 45, which is used to drive the side pressure plate 45 to move back and forth along the X-axis direction, so that the side pressure plate 45 moves to abut against the outer mold plate 43, and the lower pressure block 42 moves downward towards the middle of the mold cavity 411.

[0047] This solution provides a copper casting device, which drives a side pressure plate 45 to move via an X-axis driver 46, so that the side pressure plate 45 contacts the outer mold plate 43 during the movement. The side pressure plate 45 drives the lower pressure block 42 to move downward along the guide groove 412, thereby clamping the metal part in the mold cavity 411 and pressing it downward, thereby improving the casting quality of the metal part, increasing the strength of the metal part, and eliminating internal defects of the metal part. This solves the shortcomings of metal parts in casting, such as insufficient structural compactness and low structural strength.

[0048] Specifically, the swaying platform 32 moves on the workbench 31, and the transfer container 33 moves with the swaying platform 32. The transfer container 33 is used to receive the molten metal from the furnace. Therefore, during the movement of the transfer container 33, the molten metal received by the transfer container 33 will sway, which can make the molten metal more evenly distributed, and thus make the structure of the molten metal more compact after solidification. The side pressure plate 45 can be set at the left and right positions of the casting mold 41 as needed, for example, it can be fixed on the workbench 31, and its fixed position is not unique. The transfer container 33 is installed on the swaying platform 32 and moves with the swaying platform 32. After the molten metal in the transfer container 33 reaches the specified temperature, the molten metal is output to the mold cavity 411 of the casting mold 41. When the casting mold 41 receives the molten metal, the molten metal in the mold cavity 41... 1. Cooling and crystallization: During the crystallization process, this solution can also activate the X-axis driver 46 as needed. The X-axis driver 46 drives the side pressure plate 45 to move along the X-axis direction. The side pressure plate 45 contacts the outer mold plate 43 on the outside of the casting mold 41. The outer mold plate 43 drives the lower pressure block 42 to move through the connecting rod 44. The connecting rod 44 is limited to the movement of the strip groove 413, thereby driving the lower pressure block 42 to move in the downward inclined direction along the guide groove 412. The two lower pressure blocks 42 in the left and right positions protrude from the inner side wall of the mold cavity 411, thereby clamping the metal part and pressing it downward. During the downward pressing process, the gas in the metal can escape, reducing the probability of the formation of porosity, shrinkage cavity and shrinkage porosity. At the same time, the downward pressure further eliminates the internal defects of the metal part and increases the density, thereby improving its comprehensive mechanical properties. When the X-axis driver 46 drives the side pressure plate 45 to return along the original path, the side pressure plate 45 moves to disengage from the casting mold 41, the lower pressure block 42 elastically resets, and the downward pressure on the metal part is removed. Thus, this application can apply a downward force to the metal part through the lower pressure block 42 during the crystallization process, which can improve the casting quality of the metal part, increase the strength of the metal part and eliminate internal defects of the metal part, thus solving the shortcomings of the metal part in casting, such as insufficient compactness of the structure, gaps, and low structural strength.

[0049] The X-axis driver 46 is a known mechanism with a driving and moving function, such as a moving trolley, a cylinder, a hydraulic cylinder, a combination of gear chain and gear, a combination of rack and gear, etc., as long as it can drive the side pressure plate 45 to move.

[0050] Alternatively, the casting mechanism 4 may further include: a moving block 47 and a return spring 48;

[0051] The movable block 47 is vertically mounted on the strip groove 413; the movable block 47 is provided with a movable hole 471; the connecting rod 44 moves horizontally through the movable hole 471; the return spring 48 is sleeved on the connecting rod 44, one end of the return spring 48 contacts the outer mold plate 43, and the other end of the return spring 48 contacts the movable block 47.

[0052] When the outer mold plate 43 moves to abut against the side pressure plate 45, the outer mold plate 43 compresses the return spring 48 to elastic contraction; when the side pressure plate 45 moves to disengage from the outer mold plate 43, the return spring 48 elastically opens and drives the outer mold plate 43 to reset, so that the lower pressure block 42 resets to the guide groove 412.

[0053] This solution uses a return spring 48 to reset the lower pressure block 42. Specifically, the moving block 47 can move up and down in the strip groove 413, which can provide vertical guidance for the tilting movement of the lower pressure block 42. The moving block 47 can also provide a support point for the return spring 48 during the lifting process. The return spring 48 does not need to directly contact the outer surface of the guide groove 412 to avoid wear during the movement of the return spring 48. When the side pressure plate 45 moves to abut against the outer mold plate 43, the outer mold plate 43 moves towards the moving block 47, and the connecting rod 44 moves horizontally in the moving hole 4 of the moving block 47. 71. The moving block 47 and the outer mold plate 43 together compress the return spring 48, causing the return spring 48 to elastically contract and possess elastic potential energy. The moving block 47 moves downward into the strip groove 413 under the vertical guidance of the guide groove 412, and the lower pressing block 42 extends into the groove to clamp the metal part and press downward. When the side pressing plate 45 moves to disengage from the outer mold plate 43, the return spring 48 elastically returns to its original position and elastically opens towards both ends, thereby pushing the outer mold plate 43 to return to its original position. The outer mold plate 43 drives the lower pressing block 42 to return to the guide groove 412 through the connecting rod 44, thus removing the clamping force on the metal part.

[0054] Optimally, the contact surface between the side pressure plate 45 and the outer mold plate 43 is provided with an inclined driving slope 451.

[0055] When the side pressure plate 45 contacts the outer mold plate 43, the two are in contact through the driving inclined surface 451. The driving inclined surface 451 of the outer mold plate 43 moves relative to the driving inclined surface 451 of the side pressure plate 45, so that the horizontal movement of the shaking platform 32 is decomposed into a vertical movement direction and a horizontal movement direction. The vertical movement direction can move the moving block 47 to the strip groove 413, and the horizontal movement direction can move the connecting rod 44 horizontally to the moving hole 471. In this way, the driving inclined surface 451 of this embodiment can further ensure the contact stability between the outer mold plate 43 and the side pressure plate 45.

[0056] Alternatively, the inner wall of the mold cavity 411 is provided with an inner groove 414, which is located on the outer periphery of the guide groove 412;

[0057] The lower pressing block 42 is provided with a guide portion 421 and a clamping portion 422; the guide portion 421 is disposed in the guide groove 412; the clamping portion 422 is disposed in the inner groove 414; the clamping portion 422 located in the inner groove 414 is aligned with the inner sidewall of the mold cavity 411.

[0058] In some embodiments, the metal part can be directly clamped by the guide portion 421 alone; this embodiment can further increase the clamping area of ​​the lower pressure block 42 on the metal part; the lower pressure block 42 is provided with a guide portion 421 and a clamping portion 422; the guide portion 421 mainly provides a downward inclined guiding function for the lower pressure block 42; the clamping portion 422 is disposed in the inner groove 414 of the mold cavity 411, the inner groove 414 is located on the outer periphery of the guide groove 412, and the inner groove 414 can be located above, below, or to the left of the guide groove 412. And / or to the right, etc.; when molten metal needs to be poured, the clamping part 422 is located in the inner groove 414. In the open state of the return spring 48, the clamping part 422 is always pressed against the inner groove 414, and the clamping part 422 is aligned with the inner sidewall of the mold cavity 411; when the temperature of the casting mold 41 drops to a specific temperature, the outer mold plate 43 moves to abut against the side pressure plate 45, the clamping part 422 protrudes out of the inner groove 414, and the clamping part 422 abuts against the outer surface of the metal part, thereby driving the metal part to be pressed downward. The clamping part 422 has a larger arrangement range in the mold cavity 411 than the guide part 421 in other embodiments, which increases the contact area with the metal part and thus improves the force applied to the metal.

[0059] Optimally, the strip groove 413 is provided with a snap-fit ​​baffle 414 along the length of the groove opening, the snap-fit ​​baffle 414 is located on the front and rear sides of the strip groove 413, and the moving block 47 is movably limited between the two snap-fit ​​baffles 414.

[0060] The snap-fit ​​baffles 414 are located on the front and rear sides of the strip groove 413. One snap-fit ​​baffle 414 is close to the outer mold plate 43, and the other snap-fit ​​baffle 414 is close to the lower pressure block 42. A movable slot is formed between the two snap-fit ​​baffles 414. The movable block 47 is movably limited to the movable slot (not shown) formed by the two snap-fit ​​baffles 414. The movable block 47 is movably snapped into the movable slot. The movable slot can provide a guiding function for the movable block 47, so that the movable block 47 moves along the length direction of the strip groove 413, ensuring the movement stability of the side pressure plate 45 and preventing the movable block 47 from falling off the strip groove 413.

[0061] Optimally, it may also include: a cooling device 34;

[0062] At least one of the transfer container 33, the workbench 31 and the casting mold 41 is provided with a water cooling channel 311. The output end of the cooling device 34 is connected to the input end of the water cooling channel 311 for supplying cooling medium to the water cooling channel 311. The output end of the water cooling channel 311 is used to discharge the cooling medium.

[0063] This solution can be equipped with a cooling device 34 as needed. The cooling device 34 can output cooling medium to the water cooling channel 311 of the transfer container 33, the water cooling channel 311 of the workbench 31, and / or the water cooling channel 311 of the casting mold 41. The cooling medium is a medium at or below a greenhouse temperature, such as air, tap water, or liquid nitrogen. When the cooling medium passes through the water cooling channel 311, it will carry away the heat from the corresponding casting mold 41, transfer container 33, or workbench 31, thereby lowering the temperature of the casting mold 41, transfer container 33, and casting mold 41, and causing metal crystallization in the casting mold 41.

[0064] Optimally, it also includes: a Y-axis drive unit 35;

[0065] The swaying platform 32 is movably mounted on the workbench 31 along the Y-axis; the workbench 31 is provided with a swaying area 312 and a pressing area 313 in sequence along the Y-axis direction, and a pair of side pressure plates 45 are provided in the pressing area 313;

[0066] The Y-axis drive device 35 is used to drive the shaking platform 32 to move along the Y-axis direction, causing the casting mold 41 to pass through the shaking area 312 and the extrusion area 313, so that the casting mold 41 enters or leaves between the two side pressure plates 45.

[0067] In this embodiment, the worktable 31 is preferably divided into a swaying zone 312 and a pressing zone 313 along the Y-axis. Since the side pressure plate 45 is only located in the pressing zone 313 and not in the swaying zone 312, when the casting mold 41 is located in the swaying zone 312, the Y-axis drive device 35 is activated. The Y-axis drive device 35 drives the swaying platform 32 to move back and forth in the Y-axis direction, which can make the molten metal received by the transfer container 33 sway, thereby making the molten metal more evenly distributed. When the temperature of the transfer container 33 reaches the specified temperature, the Y-axis drive device 35 can drive the swaying platform 32 to move horizontally along the Y-axis direction, so that the casting mold 41 moves to the pressing zone 313 and the casting mold 41 reaches between the two side pressure plates 45. When the X-axis driver 46 is activated, the X-axis driver 46 drives the side pressure plate 45 to move horizontally along the X-axis direction, so that the side pressure plate 45 abuts against the outer mold plate 43, thereby causing the lower pressure block 42 to press the metal part.

[0068] Optimally, the Y-axis drive device 35 includes: a rotary driver 351, a turntable 352, and a drive arm 353;

[0069] The output end of the rotation driver 351 is connected to the middle of the turntable 352 and is used to drive the turntable 352 to rotate; one end of the drive arm 353 is rotatably connected to the circumference of the turntable 352, and the other end of the drive arm 353 is rotatably connected to the swaying platform 32.

[0070] When the output of the rotary driver 351 directly or indirectly drives the turntable 352 to rotate, the circumference of the turntable 352 drives the drive arm 353 to rotate, so that the drive arm 353 can move along the Y-axis direction. Since the circumference of the turntable 352 is connected to the drive arm 353, the drive arm 353 is a resettable movement. Therefore, the drive arm 353 can drive the swaying platform 32 to move horizontally along the Y-axis direction in a resettable manner, so that the casting mold 41 of the swaying platform 32 can enter and exit the swaying area 312 and the extrusion area 313. The transfer container 33 is accompanied by a shaking effect during the reset movement, so that the molten metal can be distributed more evenly.

[0071] Among them, the rotary drive 351 is a known mechanism with a drive rotation function, such as a motor, a combination of a motor and a reducer, etc.

[0072] A copper processing system includes the aforementioned copper casting apparatus.

[0073] Although embodiments of the present invention have been shown and described, those skilled in the art will understand that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the claims and their equivalents.

Claims

1. A copper casting apparatus, characterized in that, include: Workbench, swaying platform, transfer container, and casting mechanism; The swaying platform is movably mounted on the workbench; The transfer container is installed on the swaying platform; The casting mechanism includes: a casting mold, a lower pressure block, an outer mold plate, a connecting rod, a side pressure plate, and an X-axis driver; The casting mold is mounted on the swaying platform; the casting mold has a cavity that is connected to the transfer container; the two opposing inner sidewalls of the cavity are respectively provided with downwardly inclined guide grooves; the outer sidewall of the casting mold is provided with a vertically extending strip groove; the lower pressure block is repositionably and adjustablely mounted in the guide groove; the connecting rod is limited to move in the strip groove, one end of the connecting rod is connected to the lower pressure block, and the other end of the connecting rod is connected to the outer mold plate, so that the outer mold plate is limited to the outside of the casting mold; The output end of the X-axis driver is connected to the side pressure plate, which drives the side pressure plate to move back and forth along the X-axis direction, so that the side pressure plate moves to abut against the outer mold plate, and the lower pressure block moves downward at an angle toward the center of the mold cavity.

2. The copper casting apparatus according to claim 1, characterized in that, The casting mechanism also includes: a moving block and a return spring; The movable block is vertically and retractably mounted on the strip groove; the movable block is provided with a moving hole; the connecting rod moves horizontally through the moving hole; the return spring is sleeved on the connecting rod, one end of the return spring contacts the outer mold plate, and the other end of the return spring contacts the movable block; When the outer mold plate moves to abut against the side pressure plate, the outer mold plate compresses the return spring to elastic contraction; when the side pressure plate moves to disengage from the outer mold plate, the return spring elastically opens and drives the outer mold plate to reset, so that the lower pressure block resets to the guide groove.

3. The copper casting apparatus according to claim 2, characterized in that, The contact surface between the side pressure plate and the outer mold plate is provided with an inclined driving slope.

4. The copper casting apparatus according to claim 2, characterized in that, The inner wall of the mold cavity is provided with an inner groove, which is located on the outer periphery of the guide groove; The pressing block is provided with a guide portion and a clamping portion; the guide portion is disposed in the guide groove; the clamping portion is disposed in the inner groove; the clamping portion located in the inner groove is aligned with the inner sidewall of the mold cavity.

5. A copper casting apparatus according to claim 2, characterized in that, The strip groove is provided with snap-fit ​​baffles along the length of the groove opening. The snap-fit ​​baffles are located on the front and rear sides of the strip groove, and the movable block is movably limited between the two snap-fit ​​baffles.

6. The copper casting apparatus according to claim 1, characterized in that, It also includes: cooling devices; At least one of the transfer container, the workbench, and the casting mold is provided with a water-cooling channel. The output end of the cooling device is connected to the input end of the water-cooling channel for supplying cooling medium to the water-cooling channel. The output end of the water-cooling channel is used to discharge the cooling medium.

7. A copper casting apparatus according to any one of claims 1-6, characterized in that, Also includes: Y-axis drive unit; The swaying platform is movably mounted on the workbench along the Y-axis; The worktable is provided with a swaying area and a squeezing area in sequence along the Y-axis direction, and a pair of side pressure plates are provided in the squeezing area; The Y-axis drive device is used to drive the shaking platform to move along the Y-axis direction, causing the casting mold to pass through the shaking area and the extrusion area, so that the casting mold enters or leaves between the two side pressure plates.

8. A metal copper casting apparatus according to claim 7, characterized in that, The Y-axis drive device includes: a rotary driver, a turntable, and a drive arm; The output end of the rotary driver is connected to the middle of the turntable and is used to drive the turntable to rotate; one end of the drive arm is rotatably connected to the circumference of the turntable, and the other end of the drive arm is rotatably connected to the swaying platform.

9. A copper metal processing system, characterized in that, The invention comprises a metal copper casting apparatus as described in any one of claims 1-8.

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