Alloy continuous casting equipment and casting process thereof

Abstract

The invention relates to the technical field of alloy casting, and discloses alloy continuous casting equipment and a casting process thereof.The equipment comprises a sleeve, a crucible is arranged in the sleeve, an electric heating assembly is arranged between the sleeve and the crucible, and the electric heating assembly is used for generating heat and melting metal in the crucible; the cleaning mechanism is arranged on one side of the outer part of the sleeve and is used for removing impurities generated after the metal in the crucible is molten; the casting mechanism is arranged on one side of the lower portion of the sleeve and used for receiving molten metal flowing out of the crucible; and the demolding mechanism is located on one side of the upper portion of the casting mechanism and used for cooling the metal borne by the casting mechanism. The two guide rails are arranged, and the area between the two guide rails is arranged to be Y-shaped, so that in the moving process of the casting molds, the casting molds can automatically finish the actions of approaching and converging to form a mold cavity and leaving from each other to release alloy blocks, manual mold splitting is avoided, meanwhile, an additional complex mold opening and closing mechanism is not needed, and the production efficiency is improved.

Description

Technical Field

[0001] This invention relates to the field of alloy casting technology, specifically to an alloy continuous casting equipment and its casting process. Background Technology

[0002] In modern industrial production, alloy materials are widely used due to their excellent physical and chemical properties, and alloy casting is a fundamental step in the preparation of alloy products. Currently, the industry mainly uses the following two technical methods when producing alloy blocks or ingots of specific sizes.

[0003] Firstly, for large-scale production, continuous casting technology is typically used. This technology involves continuously pouring molten metal into a crystallizer to form long, continuous casting billets (such as slabs or square billets). After cooling and solidification, these billets are then cut into alloy blocks of the required length using cutting equipment. However, this method has the drawback that it cannot directly obtain the final shaped alloy block; an additional cutting process is required. This not only necessitates additional cutting equipment, increasing production costs and energy consumption, but the cutting process itself also generates material loss, reducing the utilization rate of raw materials.

[0004] Secondly, another common method to directly obtain individual alloy blocks is to use multiple independent casting molds for production. In this process, operators pour molten metal one by one into multiple molds. After the metal cools and solidifies, it is then manually demolded, for example, by using a hammer or pry bar to open the mold and remove the formed alloy block. Although this method can directly produce the finished product, it has a very low degree of automation, is labor-intensive, and has low production efficiency. Furthermore, there are certain safety hazards for operators when handling and processing the still-warm molds, making it difficult to meet the demands of modern, high-efficiency production. Summary of the Invention

[0005] To address the shortcomings of existing technologies, this invention provides an alloy continuous casting equipment and its casting process, which solves the problems of low production efficiency and low automation caused by reliance on secondary cutting or manual demolding when producing alloy blocks.

[0006] To achieve the above objectives, the present invention provides the following technical solution: an alloy continuous casting equipment, comprising: A sleeve containing a crucible, with an electric heating assembly between the sleeve and the crucible, the electric heating assembly being used to generate heat and melt the metal inside the crucible; A cleaning mechanism, located on the outside of the sleeve, is used to remove impurities generated after the metal melts inside the crucible. The casting mechanism is located on one side below the sleeve and is used to receive the molten metal flowing out of the crucible; The demolding mechanism, located on one side above the casting mechanism, is used to cool the metal received by the casting mechanism.

[0007] Preferably, a bracket is provided on the outside of the sleeve, a motor is installed on one side of the top surface of the bracket, a small gear is fixedly connected to the output end of the motor, and a large gear is fixedly connected to the middle of the outer wall of the sleeve, and the small gear and the large gear mesh with each other.

[0008] Preferably, the cleaning mechanism includes a waste residue bucket, a stirring rod, and a telescopic rod. The telescopic rod is fixedly connected to the middle of the top surface of the support. A top plate is fixedly connected to the output end of the telescopic rod. A second motor is installed in the middle of the bottom surface of the top plate. A rotating plate is installed at the output end of the second motor. A third motor is installed on the top of one side of the rotating plate. The output end of the third motor is connected to the stirring rod, and the stirring rod is located inside the crucible.

[0009] Preferably, a paddle is fixedly connected to the middle of the stirring rod, a shovel is fixedly connected to one side of the paddle, a through hole is provided in the middle of the shovel, and the outer side of the shovel is in contact with the inner wall of the crucible, and the waste residue bucket is located on the other side of the top surface of the support.

[0010] Preferably, the casting mechanism includes a guide rail and a casting mold. A chain is provided inside the guide rail, and a motor is mounted on one side of the guide rail. A sprocket is fixedly connected to the output end of the motor. An opening is provided on one side of the guide rail, and the sprocket contacts the chain through the opening. A crossbar is fixedly connected to the outer wall of the casting mold. The bottom side of the crossbar is fixedly connected to the chain, and the crossbar is slidably connected to the guide rail.

[0011] Preferably, there are two guide rails, and the area between the two guide rails is arranged in a transverse Y-shape to guide the casting molds on the two guide rails to move closer to each other and then further apart.

[0012] Preferably, the bottom of one side of the crossbar has two latches, which respectively contact the top sides of the guide rail, and the area between the two latches on the bottom of one side of the crossbar is fixedly connected to the chain.

[0013] Preferably, the demolding mechanism includes a cover and a bottom shell, the cover being located above the two guide rails and the bottom shell being located below the two guide rails, and a conveying pipe is installed on one side of the cover, the conveying pipe being used to guide the cooling medium to be sprayed out into the cover and contact the casting mold.

[0014] Preferably, multiple long rods and short rods are provided on both sides of the inner wall on the other side of the cover. The long rods and short rods are staggered and one side of each of the long rods and short rods is fixedly connected to the support plate. The length of the long rod is greater than the length of the short rod. A baffle is fixedly connected to the other side of the long rod. A spring is sleeved in the middle of the outer wall of the long rod, and the spring is located between the baffle and the inner wall of the cover.

[0015] A casting process for an alloy continuous casting equipment includes the following steps: Step 1: Melt the metal in the crucible into molten metal using the electric heating component; then, start the cleaning mechanism to insert the stirring rod into the crucible to stir the molten metal so that impurities are collected, and then remove the collected impurities from the crucible. Step 2: Drive multiple split casting molds in the casting mechanism to move, and bring them closer together below the sleeve to form a complete mold cavity; at the same time, tilt the sleeve to pour the molten metal in the crucible into the mold cavity; by controlling the tilting of the sleeve and the movement of the casting molds, the continuous filling of multiple casting molds can be achieved. Step 3: The casting mold filled with molten metal is conveyed to the cooling area of ​​the demolding mechanism and a cooling medium is sprayed onto it to rapidly cool and solidify the molten metal into an alloy block. Step 4: The solidified casting mold is automatically separated during the movement to allow the alloy block to fall off; at the same time, the long and short rods in the demolding mechanism are used to continuously strike the casting mold to complete the demolding.

[0016] This invention provides an alloy continuous casting equipment and its casting process. It has the following beneficial effects: 1. This invention sets up two guide rails and sets the area between them into a Y shape, so that the casting mold can automatically complete the actions of approaching and merging to form a mold cavity and moving away from each other to release the alloy block during the movement process. This eliminates the need for manual mold separation and also eliminates the need for additional complex mold opening and closing mechanisms, thereby improving production efficiency.

[0017] 2. This invention utilizes a cleaning mechanism to collect and remove impurities from the crucible, while simultaneously using a waste slag bin to self-clean the waste slag on the stirring rod. Compared to manual cleaning methods, this significantly improves safety, effectively prevents impurities from contaminating the final product, and ensures the purity and final quality of the alloy from the source.

[0018] 3. The present invention, through the cooperation of the long rod, short rod and spring in the demolding mechanism, can use the kinetic energy of the casting mold to compress the spring to store energy when the casting mold passes by, and after moving away from the long rod, the energy released by the spring drives the short rod to knock on the side wall of the casting mold, thereby effectively shaking off the residual alloy block in the casting mold and ensuring the continuous and stable operation of the production line. Attached Figure Description

[0019] Figure 1 This is a three-dimensional structural diagram of the present invention; Figure 2 This is a schematic diagram of the sleeve portion structure of the present invention; Figure 3 This is an exploded view of the sleeve portion of the present invention; Figure 4 This is an exploded view of the stirring rod portion of the present invention; Figure 5 This is a front view of the stirring rod of the present invention; Figure 6 This is an exploded view of the casing structure of the present invention; Figure 7 This is a top view of the support plate of the present invention; Figure 8 This is a structural breakdown diagram of the chain portion of the present invention; Figure 9 This is a top view of the guide rail of the present invention; Figure 10 This is a top view of the long rod of the present invention; Figure 11 This is a schematic diagram of the bayonet portion of the present invention.

[0020] The components are as follows: 1. Sleeve; 2. Support; 201. Motor 1; 202. Large gear; 203. Small gear; 3. Crucible; 4. Electric heating assembly; 5. Cleaning mechanism; 501. Telescopic rod; 502. Top plate; 503. Motor 2; 504. Rotating plate; 505. Motor 3; 506. Stirring rod; 507. Paddle; 508. Shovel plate; 509. Waste slag bucket; 6. Casting mechanism; 601. Guide rail; 602. Motor 4; 603. Sprocket; 604. Chain; 605. Crossbar; 606. Casting mold; 607. Clamp; 7. Demolding mechanism; 701. Cover; 702. Bottom shell; 703. Conveying pipe; 704. Support plate; 705. Long rod; 706. Short rod; 707. Baffle; 708. Spring. Detailed Implementation

[0021] The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0022] To better understand the present invention, the above content will be described in detail below with reference to specific embodiments.

[0023] Please see the appendix Figure 1 -Appendix Figure 11 This invention provides an alloy continuous casting equipment, comprising: The sleeve 1 contains a crucible 3 inside, and an electric heating component 4 is provided between the sleeve 1 and the crucible 3. The electric heating component 4 is used to generate heat and melt the metal in the crucible 3. The cleaning mechanism 5 is located on the outside of the sleeve 1 and is used to remove impurities generated after the metal in the crucible 3 is melted. The casting mechanism 6 is located on the lower side of the sleeve 1 and is used to receive the molten metal flowing out of the crucible 3. The demolding mechanism 7 is located on the upper side of the casting mechanism 6 and is used to cool the metal received by the casting mechanism 6.

[0024] In this embodiment, an electric heating component 4 is arranged around the sleeve 1 and the crucible 3 to melt the metal raw material in the crucible 3 into a liquid state to form molten metal. A sleeve cleaning mechanism 5 is set outside the sleeve 1 to aggregate and remove the scum on the surface of the molten metal. A casting mechanism 6 is arranged below the sleeve 1. Multiple split casting molds 606 form a complete mold cavity under the action of the track to receive the molten metal poured from the upper crucible 3. After filling, the casting mold 606 will continue to move forward to make room for the next empty mold, thereby realizing uninterrupted continuous casting. The demolding mechanism 7 includes a cooling zone. By spraying a cooling medium onto the casting mold 606 carrying high-temperature metal, the molten metal is quickly solidified and formed. When the split casting mold 606 begins to separate to release the alloy part, the long rod 705 and the short rod 706 can apply an impact force to the mold, so that even if there is adhesion, the formed alloy part can be removed from the mold, thereby improving the reliability and automation of demolding.

[0025] Please see the appendix Figure 1 -Appendix Figure 4 A bracket 2 is provided on the outside of the sleeve 1. A motor 201 is installed on one side of the top surface of the bracket 2. A small gear 203 is fixedly connected to the output end of the motor 201. A large gear 202 is fixedly connected to the middle of the outer wall of the sleeve 1. The small gear 203 and the large gear 202 mesh with each other.

[0026] In this embodiment, the drive motor 201 can drive the pinion 203 to rotate, which in turn drives the gear 202 to rotate, thereby driving the sleeve 1 and the crucible 3 to rotate, and finally pouring the molten metal out of the crucible 3. Furthermore, the transmission ratio between the gear 202 and the pinion 203 can precisely control the amount poured out at the same time.

[0027] Please see the appendix Figure 1 -Appendix Figure 5The cleaning mechanism 5 includes a waste residue bin 509, a stirring rod 506, and a telescopic rod 501. The telescopic rod 501 is fixedly connected to the middle of the top surface of the support 2. The output end of the telescopic rod 501 is fixedly connected to a top plate 502. A second motor 503 is installed in the middle of the bottom surface of the top plate 502. A rotating plate 504 is installed at the output end of the second motor 503. A third motor 505 is installed on the top of one side of the rotating plate 504. The output end of the third motor 505 is connected to the stirring rod 506, and the stirring rod 506 is located inside the crucible 3. A paddle 507 is fixedly connected to the middle of the stirring rod 506. A shovel 508 is fixedly connected to one side of the paddle 507. A through hole is provided in the middle of the shovel 508, and the outside of the shovel 508 is in contact with the inner wall of the crucible 3. The waste residue bin 509 is located on the other side of the top surface of the support 2.

[0028] In this embodiment, motor 503 drives the stirring rod 506 to rotate, allowing it to approach the crucible 3 or the waste slag container 509. Motor 505 drives the stirring rod 506 to rotate, accelerating the mixing of the slag remover and molten metal. The stirring rod 506 is also equipped with a paddle 507 and a shovel 508 in its center. When the stirring rod 506 rotates, the paddle 507 agitates the molten liquid, promoting a full reaction and aggregation of the slag remover and impurities. The shovel 508, with its outer contour conforming to the inner wall of the crucible 3, scrapes and collects the slag shell floating on the liquid surface and pushed to the edge by the paddle 507. The through holes on the shovel 508 allow the molten metal to flow through, leaving only solid or semi-solid slag shell, thus improving separation efficiency.

[0029] Through the lifting and lowering of the telescopic rod 501, the horizontal rotation of the second motor 503, and the rotation of the third motor 505, the stirring rod 506 of the cleaning mechanism 5 can complete the process of descending to the liquid surface, stirring and removing slag, scraping and collecting slag shell, lifting away from the crucible 3, moving above the waste slag bucket 509, and high-speed reverse reversal to throw off the waste slag.

[0030] Please see the appendix Figure 8 -Appendix Figure 11The casting mechanism 6 includes a guide rail 601 and a casting mold 606. A chain 604 is installed inside the guide rail 601. A motor 602 is mounted on one side of the guide rail 601, and a sprocket 603 is fixedly connected to the output end of the motor 602. One side of the guide rail 601 has an opening through which the sprocket 603 contacts the chain 604. A crossbar 605 is fixedly connected to the outer wall of the casting mold 606. One bottom side of the crossbar 605 is fixedly connected to the chain 604, and the crossbar 605 is slidably connected to the guide rail 601. Two guide rails 601 are provided, and a transverse Y-shape is formed between the two guide rails 601 to guide the casting molds 606 on the two guide rails 601 to move closer together and then further apart. Two latches 607 are opened at the bottom of one side of the crossbar 605. The two latches 607 contact the top sides of the guide rail 601 respectively. The area at the bottom of one side of the crossbar 605 between the two latches 607 is fixedly connected to the chain 604.

[0031] In this embodiment, during casting, the distance between the two guide rails 601 is not constant, but rather a transverse Y-shape. Therefore, when the two separate casting molds 606 (equivalent to the two halves of the mold) carried on the guide rails 601 move to the confluence section of the Y-shape, the rails guide them to approach each other and eventually fit tightly together, forming a closed and complete mold cavity, ready to receive the molten metal. When the casting mold 606 is filled and continues to move forward, the rail path gradually widens, entering the separation section of the Y-shape, thereby guiding the two separate casting molds 606 away from each other, thus achieving automatic demolding.

[0032] Please see the appendix Figure 6 , Figure 7 and Figure 10 The demolding mechanism 7 includes a cover 701 and a bottom shell 702. The cover 701 is located above the two guide rails 601, and the bottom shell 702 is located below the two guide rails 601. A conveying pipe 703 is installed on one side of the cover 701, which guides the cooling medium to be sprayed into the cover 701 to contact the casting mold 606. On both sides of the inner wall of the other side of the cover 701, there are multiple long rods 705 and short rods 706. The long rods 705 and short rods 706 are staggered and one side of each long rod 705 and short rod 706 is fixedly connected to a support plate 704. The length of the long rod 705 is greater than the length of the short rod 706. A baffle 707 is fixedly connected to the other side of the long rod 705. A spring 708 is sleeved in the middle of the outer wall of the long rod 705, and the spring 708 is located between the baffle 707 and the inner wall of the cover 701.

[0033] In this embodiment, the mechanism is divided into two parts: an upper casing 701 and a lower bottom casing 702. A conveying pipe 703 is installed on one side of the casing 701, which can be connected to an external cooling system. When the casting mold 606, which holds molten metal, enters the area on one side of the casing 701, the conveying pipe 703 sprays a cooling medium (such as water) onto it to cool the casting mold 606 and the metal inside, causing it to solidify rapidly into a solid alloy block. The lower bottom casing 702 can be used to collect the alloy blocks that fall off and the used cooling water.

[0034] On the inner wall of the other side of the casing 701, multiple long rods 705 and short rods 706 are installed alternately, and each long rod 705 is fitted with a spring 708. When the casting mold 606 supporting the alloy block moves to this area, the outer wall of the casting mold 606 will first contact and squeeze the longer long rods 705, thereby driving the entire support plate 704 (including the short rods 706 fixed on it) to move, thereby compressing the springs 708 on the long rods 705, converting kinetic energy into the potential energy of the springs 708. As the casting mold 606 continues to move forward, the pushing force of the casting mold 606 on the long rods 705 will disappear. At this time, the compressed springs 708 will quickly rebound, thereby driving the short rods 706 to strike the side wall of the casting mold 606, thereby shaking off the alloy block remaining inside the casting mold 606, thus achieving assisted demolding.

[0035] Working principle: When using: First, the different metals to be melted are placed into crucible 3. Then, the electric heating component 4 is energized, generating high temperature and melting the metal inside crucible 3. Next, a slag remover is added to crucible 3. The telescopic rod 501 is then extended to lift the top plate 502 and stirring rod 506, making the bottom of the stirring rod 506 higher than crucible 3 and sleeve 1. Then, the second motor 503 drives the rotating plate 504 to rotate, positioning the stirring rod 506 directly above crucible 3. The telescopic rod 501 is then retracted to its output end, causing the horizontal plate and stirring rod 506 to move downwards, allowing the stirring rod 506 to enter crucible 3. Finally, the third motor 505 drives the stirring rod 506 to rotate. The stirring rod 506 promotes the combination of the slag remover with impurities in the molten metal. The slag shell is formed by adsorbing and aggregating impurities. Since the density of the slag shell is less than that of the molten metal, it will naturally float to the surface. The cover 701 can be moved closer to the side wall of the crucible 3 by the lever 507. At this time, the slag shell can be scooped up by the shovel 508. After scooping, the motor 3 505 is stopped, and then the telescopic rod 501 is driven to extend the output end to move the stirring rod 506 out of the crucible 3. Then, the reverse motor 2 503 drives the rotating plate 504 to rotate so that the stirring rod 506 is above the waste slag bucket 509. Then, the telescopic rod 501 is driven to retract the output end to move the stirring rod 506 into the waste slag bucket 509. At this time, the motor 3 505 is driven to reverse and increase the speed. At this time, the waste slag can be thrown off the stirring rod 506 to achieve waste slag cleaning. While cleaning the waste residue, the drive motor 201 drives the small gear 203 to rotate, which in turn rotates the large gear 202. This rotates the sleeve 1 and the crucible 3, causing the molten metal in the crucible 3 to be poured out. At the same time, the drive motor 602 drives the sprocket 603 to rotate, which in turn moves the casting mold 606. The area between the two guide rails 601 is a transverse Y-shape. Therefore, when the two casting molds 606 move to below one side of the sleeve 1, the phases on the two guide rails 601... Two adjacent casting molds 606 will move closer to each other to form a container. When the casting mold 606 is in the position where the molten metal is poured, the motor 3 505 is stopped. At this time, the casting mold 606 can receive the molten metal. After one casting mold 606 has finished receiving the molten metal, the motor 1 201 is stopped. Then the motor 4 602 is driven to move the other casting mold 606 to the position where the molten metal is poured. At this time, the motor 1 201 is driven to rotate the crucible 3 to pour out the molten metal. This process is repeated to achieve continuous casting. As the casting process continues, the casting mold 606, which holds the molten metal, will enter the casing 701. At this time, the delivery pipe 703 can be connected to a water pump. By driving the water pump, water can be sprayed out from the delivery pipe 703 and come into contact with the casting mold 606. The water can cool the casting mold 606 and the molten metal, thereby causing the molten metal to turn back into a solid and form an alloy block. After cooling, as motor 602 continues to deliver material, casting mold 606 gradually moves away from sleeve 1. At this time, adjacent casting molds 606 gradually separate, allowing the formed alloy block to be discharged. Simultaneously, the outer wall of casting mold 606 first contacts long rod 705, causing it to be compressed. This compression drives short rod 706 and support plate 704 to move away from cover 701, compressing spring 708. Once casting mold 606 moves away from long rod 705 and releases its compression, this... When the spring 708 extends, it will cause the baffle 707, support plate 704 and short rod 706 to move towards the cover 701. At this time, the short rod 706 will strike the casting mold 606 to assist in demolding. The fallen alloy block will roll down along the bottom shell 702 and can be collected. At the same time, the bottom shell 702 can also collect the water dripping from the casting mold 606. The collected water will flow out along the bottom shell 702 and will come into further contact with the alloy block to cool it down again.

Claims

1. An alloy continuous casting equipment, characterized in that, include: A sleeve (1) is provided inside a crucible (3), and an electric heating component (4) is provided between the sleeve (1) and the crucible (3). The electric heating component (4) is used to generate heat and melt the metal inside the crucible (3). The cleaning mechanism (5) is located on the outside of the sleeve (1) and is used to remove impurities generated after the metal melts in the crucible (3); The casting mechanism (6) is located on one side below the sleeve (1) and is used to receive the molten metal flowing out of the crucible (3); The demolding mechanism (7), located on one side above the casting mechanism (6), is used to cool the metal received by the casting mechanism (6).

2. The alloy continuous casting equipment according to claim 1, characterized in that, The sleeve (1) is provided with a bracket (2) on the outside. A motor (201) is installed on one side of the top surface of the bracket (2). A small gear (203) is fixedly connected to the output end of the motor (201). A large gear (202) is fixedly connected to the middle of the outer wall of the sleeve (1). The small gear (203) and the large gear (202) mesh with each other.

3. The alloy continuous casting equipment according to claim 2, characterized in that, The cleaning mechanism (5) includes a waste residue bucket (509), a stirring rod (506), and a telescopic rod (501). The telescopic rod (501) is fixedly connected to the middle of the top surface of the support (2). The output end of the telescopic rod (501) is fixedly connected to a top plate (502). A second motor (503) is installed in the middle of the bottom surface of the top plate (502). A rotating plate (504) is installed at the output end of the second motor (503). A third motor (505) is installed on the top of one side of the rotating plate (504). The output end of the third motor (505) is connected to the stirring rod (506), and the stirring rod (506) is located inside the crucible (3).

4. The alloy continuous casting equipment according to claim 3, characterized in that, A paddle (507) is fixedly connected to the middle of the stirring rod (506), and a shovel (508) is fixedly connected to one side of the paddle (507). A through hole is provided in the middle of the shovel (508), and the outside of the shovel (508) is in contact with the inner wall of the crucible (3). The waste residue bucket (509) is located on the other side of the top surface of the support (2).

5. The alloy continuous casting equipment according to claim 1, characterized in that, The casting mechanism (6) includes a guide rail (601) and a casting mold (606). A chain (604) is provided inside the guide rail (601). A motor (602) is installed on one side of the guide rail (601). A sprocket (603) is fixedly connected to the output end of the motor (602). An opening is provided on one side of the guide rail (601). The sprocket (603) contacts the chain (604) through the opening. A crossbar (605) is fixedly connected to the outer wall of the casting mold (606). The bottom side of the crossbar (605) is fixedly connected to the chain (604), and the crossbar (605) is slidably connected to the guide rail (601).

6. The alloy continuous casting equipment according to claim 5, characterized in that, Two guide rails (601) are provided, and a transverse Y-shape is provided in the area between the two guide rails (601) to guide the casting molds (606) on the two guide rails (601) to move closer to each other and then move further away from each other.

7. The alloy continuous casting equipment according to claim 5, characterized in that, The bottom of one side of the crossbar (605) has two latches (607), which are respectively in contact with the top two sides of the guide rail (601). The area between the two latches (607) on the bottom side of the crossbar (605) is fixedly connected to the chain (604).

8. The alloy continuous casting equipment according to claim 6, characterized in that, The demolding mechanism (7) includes a cover (701) and a bottom shell (702). The cover (701) is located above the two guide rails (601), and the bottom shell (702) is located below the two guide rails (601). A conveying pipe (703) is installed on one side of the cover (701). The conveying pipe (703) is used to guide the cooling medium to be sprayed into the cover (701) and contact the casting mold (606).

9. The alloy continuous casting equipment according to claim 8, characterized in that, On both sides of the inner wall of the other side of the cover (701), there are a plurality of long rods (705) and short rods (706). The long rods (705) and short rods (706) are staggered with each other. One side of each of the long rods (705) and short rods (706) is fixedly connected to the support plate (704). The length of the long rod (705) is greater than the length of the short rod (706). A baffle (707) is fixedly connected to the other side of the long rod (705). A spring (708) is sleeved in the middle of the outer wall of the long rod (705). The spring (708) is located between the baffle (707) and the inner wall of the cover (701).

10. A casting process for an alloy continuous casting equipment, based on the alloy continuous casting equipment according to any one of claims 1-9, characterized in that, Includes the following steps: Step 1: The metal in the crucible (3) is melted into molten metal by the electric heating component (4); then, the cleaning mechanism (5) is activated, and the stirring rod (506) is inserted into the crucible (3) to stir the molten metal so that the impurities are aggregated. The aggregated impurities are then removed and taken away from the crucible (3). Step 2: Drive multiple split casting molds (606) in the casting mechanism (6) to move and move closer to each other below the sleeve (1) to form a complete mold cavity; at the same time, tilt the sleeve (1) to pour the molten metal in the crucible (3) into the mold cavity; by controlling the tilt of the sleeve (1) and the movement of the casting molds (606), the continuous filling of multiple casting molds (606) is achieved; Step 3: The casting mold (606) filled with molten metal is conveyed to the cooling area of ​​the demolding mechanism (7), and a cooling medium is sprayed onto it to rapidly cool and solidify the molten metal into an alloy block. Step 4: The solidified casting mold (606) is automatically separated during the movement so that the alloy block falls off; at the same time, the long rod (705) and short rod (706) in the demolding mechanism (7) are used to continuously knock on the casting mold (606) to complete the auxiliary demolding.

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