An alloy addition device and method for metal smelting

Abstract

The invention discloses an alloy adding device and adding method for metal smelting, belonging to the technical field of alloy adding devices, wherein the alloy adding device for metal smelting comprises a smelting device and a funnel arranged above the smelting device, a material guide frame is installed at the bottom end of the funnel, and a horizontal axis is installed at the center of the inner part of the material guide frame; through the first slide plate and the second slide plate, during the counterclockwise or clockwise rotation of the sleeve, it is possible to detect whether the material in the accommodating chamber is in a full-load state; when the material in the accommodating chamber is in a non-full-load state, the first pull rod or the second pull rod will drive the protrusion to move and contact the first switch, so as to change the rotation direction of the sleeve, which can prevent the material in the accommodating chamber that is not fully loaded from being put into the smelting device, and is conducive to the precise control of the amount of raw material put in.

Description

Technical Field

[0001] The present invention relates to the technical field of alloy adding devices, and in particular to an alloy adding device and an adding method for metal smelting. Background Art

[0002] High-temperature alloy smelting refers to the method of melting the raw materials that make up high-temperature alloy materials into alloys through high temperatures, and is one of the high-temperature alloy material preparation processes.

[0003] Chinese patent CN216129653U discloses a quantitative addition device for silicon-manganese alloy smelting. The device drives the connecting shaft to rotate synchronously through gears, so that the connecting shaft drives the stirring rod to stir the material inside the inlet funnel, thereby realizing the quantitative addition of materials during the smelting process of silicon-manganese alloy and improving the product quality of silicon-manganese alloy.

[0004] The above-mentioned device transports materials by arranging multiple dividing plates on the outside of the rotating shaft, thereby achieving the purpose of quantitative transportation. However, in actual use, when the material between two adjacent dividing plates is not in a fully loaded state, the rotating shaft will still feed the material into the smelting device during the rotation process. At this time, it is difficult to control the amount of raw materials fed. In summary, the above-mentioned device still has room for improvement.

[0005] Therefore, it is necessary to provide an alloy adding device and adding method for metal smelting to solve the above technical problems. Summary of the Invention

[0006] The object of the present invention is to provide an alloy adding device and adding method for metal smelting, so as to solve the problem that the existing device proposed in the above background technology conveys materials by arranging multiple dividing plates on the outside of the rotating shaft, thereby achieving the purpose of quantitative transportation. However, in actual use, when the material between two adjacent dividing plates is not in a fully loaded state, the rotating shaft will still put the material into the smelting device during the rotation process, making it difficult to control the amount of raw materials put in.

[0007] Based on the above ideas, the present invention provides the following technical solutions: an alloy adding device for metal smelting, comprising a smelting device and a funnel arranged above the smelting device, a material guide frame being installed at the bottom end of the funnel, a horizontal axis being installed at the inner center of the material guide frame, and a sleeve being sleeved on the outer side of the horizontal axis, a plurality of partitions being evenly arranged on the outer circumference of the sleeve, both sides of the cavity of the material guide frame being configured as arc surfaces, a through groove being provided at the top and bottom ends of the material guide frame, a motor for driving the sleeve to rotate being installed at one end of the material guide frame, an extrusion assembly being provided on the side of the partition, a traction assembly connected to the extrusion assembly being provided at one end of the partition close to the sleeve, and the extrusion assembly being able to slide out of the partition during the inward movement of the traction assembly relative to the sleeve;

[0008] The outer side of the horizontal axis is provided with a first retaining ring and a second retaining ring, and the first retaining ring and the second retaining ring are located on both sides of the traction assembly. The first retaining ring and the second retaining ring are both installed with a first switch electrically connected to the motor. When the material stored between the two adjacent partitions is not fully loaded, after the partition passes through the through slot above the material guide frame, the traction assembly can move inward relative to the sleeve and contact the first switch.

[0009] As a further solution of the present invention: the extrusion assembly includes a first slide plate and a second slide plate which are arranged on both sides of the partition and elastically cooperate with the partition plate, and pressure blocks are fixedly arranged on the inner sides of the first slide plate and the second slide plate.

[0010] As a further solution of the present invention: the traction assembly includes a first pull rod and a second pull rod that elastically cooperate with the partition, the first pull rod and the second pull rod both pass through the sleeve and slide with the sleeve, the first pull rod and the second pull rod are fixedly provided with a pull rope at one end away from the sleeve, and the pull rope is fixedly provided with a protrusion at one end away from the sleeve, and the side of the pressure block opposite to the protrusion is set as an inclined surface.

[0011] As a further solution of the present invention: an electromagnet is arranged on the side where the first pull rod and the second pull rod face away from each other, a connecting plate is elastically mounted on one side of the electromagnet, the connecting plate is made of iron, a slot is provided on the side of the first pull rod and the second pull rod close to the electromagnet, and a block that cooperates with the slot is fixedly provided on the side of the connecting plate away from the electromagnet.

[0012] As a further solution of the present invention: a second switch is provided on the inner side of the first slide and the second slide on the partition, the second switch on the second slide side of the partition is electrically connected to the electromagnet on the first pull rod side of the adjacent partition, and the second switch on the first slide side of the partition is electrically connected to the electromagnet on the second pull rod side of the adjacent partition.

[0013] As a further solution of the present invention: an annular groove is provided on the opposite sides of the first retaining ring and the second retaining ring, a recess is provided on the inner peripheral wall of the annular groove, and an inclined guide plate is provided on the recess. The inclination direction of the guide plates on the first retaining ring and the second retaining ring is opposite, and the guide plate can be deflected relative to the recess. The first switch is installed at the bottom end of the inner cavity of the recess, and the side of the first pull rod close to the first retaining ring and the side of the second pull rod close to the second retaining ring are fixed with protrusions, which are slidably set in the annular groove. When the partition passes over the through groove above the material guide frame, it can move to the side of the guide plate.

[0014] As a further solution of the present invention: two strip grooves are provided on the partition plate, and the first pull rod and the second pull rod are slidably arranged in the two strip grooves.

[0015] As a further solution of the present invention: two sliding grooves are provided on the partition, and the first slide plate and the second slide plate are slidably disposed in the two sliding grooves.

[0016] As a further solution of the present invention: a mounting groove for mounting the electromagnet is provided on the sleeve, and the connecting plate is slidably arranged in the mounting groove.

[0017] A method for adding alloys using the above-mentioned alloy adding device for metal smelting includes the following steps: introducing the raw materials to be added into the material guide frame through a funnel and finally dropping them between two adjacent partitions; driving the sleeve to rotate by a motor, and driving the two adjacent partitions to rotate to the upper through slot of the material guide frame by the sleeve, and the two adjacent partitions containing the raw materials rotate to the through slot on the lower part of the material guide frame, so that the raw materials can be put into the smelting device.

[0018] Compared with the prior art, the beneficial effect of the present invention is that this device can detect whether the material in the accommodating chamber a is in a fully loaded state by setting the first slide and the second slide during the counterclockwise or clockwise rotation of the sleeve. When the material in the accommodating chamber a is not fully loaded, the first pull rod or the second pull rod will drive the protrusion to move and contact the first switch to change the rotation direction of the sleeve, thereby preventing the material in the accommodating chamber a that is not fully loaded from being put into the smelting device, which is conducive to precise control of the amount of raw material put in. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The present invention will be further described below with reference to the accompanying drawings and embodiments:

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

[0021] Figure 2 Schematic diagram of the position of the sleeve and the partition in the material guide frame of the present invention;

[0022] Figure 3 is a cross-sectional view of the material guide frame of the present invention;

[0023] Figure 4 is a cross-sectional view of a partition of the present invention;

[0024] Figure 5 This invention Figure 3 A schematic diagram of the enlarged structure at point A;

[0025] Figure 6 This invention Figure 3 A schematic diagram of the enlarged structure at point B;

[0026] Figure 7 Schematic diagram of the structure of the first retaining ring and the second retaining ring of the present invention;

[0027] Figure 8 It is a schematic diagram of the protrusion structure of the present invention;

[0028] Figure 9 It is a schematic structural diagram of the second retaining ring and the guide plate of the present invention;

[0029] Figure 10 This is a schematic structural diagram of the first retaining ring and the guide plate of the present invention;

[0030] Figure 11 It is a schematic diagram of the coil spring structure of the present invention.

[0031] In the figure: 1. smelting device; 2. funnel; 3. material guide frame; 4. driven gear; 5. bracket; 6. sleeve; 7. partition; 8. first slide; 9. second slide; 10. pull rope; 11. first pull rod; 12. second pull rod; 13. slot; 14. horizontal axis; 15. first retaining ring; 16. second retaining ring; 17. retaining block; 18. electromagnet; 19. annular groove; 20. first switch; 21. guide plate; 2101, circular shaft; 22. pressure block; 23. protrusion; 24. protrusion; 25. coil spring; 26. second switch; 27. recessed portion. DETAILED DESCRIPTION

[0032] like Figure 1-Figure 7 As shown, an alloy adding device and adding method for metal smelting include a smelting device 1 and a funnel 2 arranged above the smelting device 1. A material guide frame 3 is fixedly installed at the bottom opening of the funnel 2. The material guide frame 3 is located at the feed port at the top of the smelting device 1 and is connected to the smelting device 1 by welding. In actual use, the raw materials to be added are introduced into the smelting device 1 through the funnel 2.

[0033] In order to quantitatively transport the raw materials, a horizontal shaft 14 is installed at the center of the guide frame 3, and a sleeve 6 is provided on the outer side of the horizontal shaft 14. Figure 3 As shown, the interior of the material guide frame 3 is a cavity structure, and the left and right side surfaces of the cavity are both set as arc surfaces, the center of the arc surface coincides with the axis of the horizontal axis 14, and the top and bottom ends of the material guide frame 3 are both provided with through grooves, and the through grooves are connected to the cavity in the material guide frame 3, so that the raw materials passing through the funnel 2 can enter the material guide frame 3;

[0034] Furthermore, a plurality of partitions 7 are evenly arranged on the outer circumference of the sleeve 6. The plurality of partitions 7 are distributed in a circular array on the outside of the sleeve 6 and are fixedly connected to the sleeve 6. In this solution, the number of partitions 7 is preferably four, and the span between two adjacent partitions 7 is greater than the width of the through groove, which is conducive to transporting raw materials between two adjacent partitions 7 through the through groove.

[0035] In order to drive the sleeve 6 to rotate, a motor is installed at one end of the guide frame 3. The end of the sleeve 6 passing through the guide frame 3 is connected to the output shaft of the motor. Figure 3 As shown, an extrusion assembly is provided on the side of the partition 7 and away from the sleeve 6, and a traction assembly connected to the extrusion assembly is provided on the end of the partition 7 close to the sleeve 6. In the process of the traction assembly moving inward relative to the sleeve 6, the extrusion assembly can move outward relative to the partition 7. The outer side of the transverse axis 14 is provided with a first retaining ring 15 and a second retaining ring 16, and the first retaining ring 15 and the second retaining ring 16 are located on both sides of the traction assembly. The first retaining ring 15 and the second retaining ring 16 are both installed with a first switch 20 electrically connected to the above-mentioned motor. In actual use, when the partition 7 passes through the through slot above the guide frame 3 and enters the arc surface and the traction assembly moves inward relative to the sleeve 6, it can contact the above-mentioned first switch 20, thereby controlling the motor to run in reverse through the first switch 20. Figure 3 As shown, the space enclosed by the arc surface of the two adjacent partitions 7 and the inner cavity of the guide frame 3 is a accommodating chamber. Under normal feeding conditions, the accommodating chamber is in a saturated state. When material jamming occurs or material feeding is not smooth, the falling raw materials cannot fill the accommodating chamber. At this time, the extrusion assembly on the partition 7 has space to be discharged, so that the traction assembly can move inward relative to the sleeve 6 and contact the first switch 20, thereby changing the running direction of the motor and preventing unsaturated raw materials in the accommodating chamber from being put into the smelting device 1.

[0036] like Figure 3-Figure 6 As shown, the above-mentioned extrusion assembly includes a first slide 8 and a second slide 9 arranged on both sides of the partition 7. The first slide 8 and the second slide 9 are elastically matched with the partition 7, and the first slide 8 and the second slide 9 are located at the end of the partition 7 away from the sleeve 6. The inner sides of the first slide 8 and the second slide 9 are fixedly provided with a pressure block 22.

[0037] The traction assembly includes a first pull rod 11 and a second pull rod 12 that elastically cooperate with the partition 7. The first pull rod 11 and the second pull rod 12 are both located at the end of the partition 7 close to the sleeve 6. The first pull rod 11 and the second pull rod 12 are fixedly provided with a pull rope 10 at the end away from the sleeve 6. The pull rope 10 is fixedly provided with a protrusion 23 at the end away from the sleeve 6. The protrusion 23 is located on the side of the pressure block 22 away from the sleeve 6, and the opposite sides of the pressure block 22 and the protrusion 23 are both set as inclined surfaces. The above-mentioned pull rope 10 passes through the partition 7 and slides with it. Through this structure, when the first pull rod 11 or the second pull rod 12 is in a pop-up state, the protrusion 23 can be pulled by the pull rope 10, and the pressure between the protrusion 23 and the pressure block 22 can prompt the first slide 8 and the second slide 9 to move outward relative to the partition 7.

[0038] In order to position the first pull rod 11 and the second pull rod 12, an electromagnet 18 is arranged on the side of the first pull rod 11 and the second pull rod 12 facing away from each other, and a connecting plate is elastically installed on one side of the electromagnet 18. The connecting plate is made of iron. Figure 4-Figure 5 As shown, a slot 13 is provided on the side of the first pull rod 11 and the second pull rod 12 close to the electromagnet 18, and a block 17 that cooperates with the slot 13 is fixedly provided on the side of the connecting plate away from the electromagnet 18. When the block 17 at the first pull rod 11 or the second pull rod 12 is in a pop-up state and inserted into the slot 13, the first pull rod 11 or the second pull rod 12 is in a locked state.

[0039] The second switch 26 is provided on the inner side of the first slide 8 and the second slide 9 on the partition 7. Figure 3 Combine Figure 4 As shown, in the clockwise direction, the second switch 26 on the second slide 9 side of the partition 7 is electrically connected to the electromagnet 18 on the first pull rod 11 side of the adjacent partition 7 (the partition 7 pointed in the clockwise direction). Figure 3 Combine Figure 4 As shown, in the counterclockwise direction, the second switch 26 on the partition 7 on the side of the first slide 8 is electrically connected to the electromagnet 18 on the side of the second pull rod 12 on the adjacent partition 7 (the partition 7 indicated in the counterclockwise direction). From another perspective, the second switch 26 on one side of the accommodating chamber will control the electromagnet 18 on the other side of the accommodating chamber.

[0040] Reference Figure 5-10 As shown, the first retaining ring 15 and the second retaining ring 16 are provided with an annular groove 19 on the opposite side. Figure 9-10 As shown, the first retaining ring 15 and the second retaining ring 16 are both equipped with a guide plate 21, the guide plate 21 being arc-shaped, and a recessed portion 27 is provided at the inner peripheral wall of the annular groove 19. The first switch 20 is mounted at the bottom end of the inner cavity of the recessed portion 27, and the guide plate 21 is mounted at the recessed portion 27. In the initial state, the guide plate 21 is tilted so that a guide channel is left between one end of the guide plate 21 and the recessed portion 27, and the inclination direction of the guide plates 21 on the first retaining ring 15 and the second retaining ring 16 is opposite, with reference to Figure 8 As shown, the first pull rod 11 is fixed with a protrusion 24 on one side close to the first retaining ring 15 and the second pull rod 12 is fixed with a protrusion 24 on one side close to the second retaining ring 16. The protrusion 24 is slidably arranged in the annular groove 19. Through this structure, the first pull rod 11 is fixed with a protrusion 24 on one side close to the first retaining ring 15 and the second pull rod 12 is fixed with a protrusion 24. Figure 3 as well as Figure 10-11Only when the sleeve 6 rotates counterclockwise can the protrusion 24 on the first pull rod 11 enter the recess 27 through the guide channel on the first baffle ring 15. Similarly, when the sleeve 6 rotates clockwise, the protrusion 24 on the second pull rod 12 can enter the recess 27 through the guide channel on the second baffle ring 16.

[0041] Here, the installation position of the guide plate 21 is further limited. Specifically, when the sleeve 6 rotates counterclockwise so that the partition 7 passes through the through groove and enters the curved surface structure on the guide frame 3, the first pull rod 11 on the partition 7 can move to the vicinity of the guide plate 21 on the first retaining ring 15. Similarly, when the sleeve 6 rotates clockwise so that the partition 7 passes through the through groove and enters the curved surface, the second pull rod 12 on the partition 7 can move to the vicinity of the guide plate 21 on the second retaining ring 16.

[0042] In actual use, the raw materials to be added are introduced into the guide frame 3 through the funnel 2 and finally fall between the two adjacent partitions 7. At this time, the sleeve 6 is driven by an external motor to rotate a certain angle (since the number of partitions 7 in this article is preferably four, the motor drives the sleeve 6 to rotate intermittently, rotating 90 degrees each time), so that the adjacent partitions 7 without raw materials can be rotated to the upper through slots of the guide frame 3, while the adjacent partitions 7 loaded with raw materials are rotated to the lower through slots on the guide frame 3. In this process, the raw materials loaded between the two adjacent partitions 7 can be put into the smelting device 1;

[0043] When the raw materials loaded between two adjacent separators 7 are not saturated, refer to Figure 3 As shown, as the sleeve 6 rotates counterclockwise, the two partitions 7 will rotate to the arc surface structure of the guide frame 3. Figure 3The accommodating chamber a in the accommodating chamber a is filled, therefore, the first slide 8 located at the partition 7 above the accommodating chamber a can move relative to the partition 7, and the second slide 9 on the partition 7 below the accommodating chamber a is squeezed by the raw material and is in a contracted state, so that the second slide 9 can contact the second switch 26 on one side thereof, so that the electromagnet 18 on the side of the first pull rod 11 above the accommodating chamber a is in an energized state, and the suction force of the electromagnet 18 on the connecting plate can cause the card block 17 to move out of the card slot 13, so that the first pull rod 11 above the accommodating chamber a can slide freely relative to the sleeve 6. Specifically, when the partition 7 above the accommodating chamber a continues to rotate, the first pull rod 11 on the partition 7 will move to the guide plate 21 on the first retaining ring 15, so that the first pull rod The protrusion 24 on the rod 11 eventually passes through the gap between the guide plate 21 and the recess 27 and enters the recess 27. Since the inner peripheral wall of the annular groove 19 no longer limits the protrusion 24, and the raw material in the accommodating chamber a is not saturated, the first slide 8 above the accommodating chamber a slides freely relative to the partition 7, so that the first pull rod 11 can drive the protrusion 24 to move toward the sleeve 6 and eventually contact the first switch 20 (the first switches 20 at the two recesses 27 are used to control the forward and reverse rotation of the motor), thereby changing the running direction of the motor, so that the motor can drive the sleeve 6 to rotate clockwise, which can prevent the unsaturated raw material between the two partitions 7 from being loaded into the smelting device 1, and is conducive to controlling the amount of raw material loaded;

[0044] Similarly, when the sleeve 6 rotates clockwise, the protrusion 24 on the second pull rod 12 will cooperate with the recess 27 on the second retaining ring 16. From the above analysis, it can be seen that when the sleeve 6 rotates clockwise and the two adjacent partitions 7 are not fully loaded, after the two adjacent partitions 7 move to the arc position on the guide frame 3, the second pull rod 12 located on the upper partition 7 will drive the protrusion 24 on one side thereof to move within the recess 27 on the second retaining ring 16 and finally contact the first switch 20, thereby changing the running direction of the motor;

[0045] According to the above analysis, when the space between the two partitions 7 is fully loaded with materials and reaches the curved surface of the material guide frame 3, the first slide 8 or the second slide 9 on the partition 7 is blocked by the materials and cannot slide out, so that the first pull rod 11 or the second pull rod 12 cannot drive the protrusion 24 to move in the recess 27, thereby allowing the sleeve 6 to maintain its original rotation direction, which is conducive to putting the materials into the smelting device 1.

[0046] To sum up, this device can detect whether the material in the accommodating chamber a is in a fully loaded state by setting the first slide 8 and the second slide 9 during the counterclockwise or clockwise rotation of the sleeve 6. When the material in the accommodating chamber a is in a non-fully loaded state, the first pull rod 11 or the second pull rod 12 will drive the protrusion 24 to move and contact the first switch 20, thereby changing the rotation direction of the sleeve 6, which can prevent the material in the accommodating chamber a that is not fully loaded from being put into the smelting device 1, and is conducive to precise control of the amount of raw material put in.

[0047] Reference Figure 1-Figure 2 As shown, both ends of the sleeve 6 pass through the material guide frame 3 and are rotatably engaged with the same through bearings, and a driven gear 4 is fixedly sleeved on one end of the sleeve 6 close to the motor, and the output shaft of the motor is equipped with a driving gear meshing with the driven gear 4, both ends of the horizontal shaft 14 pass through the sleeve 6, and brackets 5 are fixedly provided at both ends of the horizontal shaft 14, and the brackets 5 are fixedly connected to the material guide frame 3.

[0048] Reference Figure 3 As shown, in actual use, the partition 7 will contact the arc surface on the material guide frame 3 during the rotation process.

[0049] Reference Figure 4 As shown, two strip grooves are opened on the partition 7, and the first pull rod 11 and the second pull rod 12 are slidably set in the strip grooves, and the first spring is fixedly set between the first pull rod 11 and the inner end surface of the strip groove and between the second pull rod 12 and the inner end surface of the strip groove.

[0050] Two slide grooves are provided on the partition 7, and the first slide plate 8 and the second slide plate 9 are both slidably arranged in the slide grooves. A second spring is fixedly arranged between the first slide plate 8 and the inner end surface of the slide groove, and between the second slide plate 9 and the inner end surface of the slide groove.

[0051] Reference Figure 5 As shown, the sleeve 6 is provided with a mounting groove for installing the electromagnet 18, so that the electromagnet 18 is fixedly arranged at the inner end surface of the mounting groove, and the connecting plate is slidably arranged in the mounting groove, and a spring is fixedly arranged between the connecting plate and the electromagnet 18, and the sleeve 6 is provided with a through groove for sliding cooperation with the first pull rod 11 and the second pull rod 12, and the above-mentioned mounting groove is connected to this through groove.

[0052] Reference Figure 5 、 Figures 8-11As shown, a circular shaft 2101 is fixedly provided on one side of the guide plate 21 close to the end face of the annular groove 19. The circular shaft 2101 can be arranged at the center position of the guide plate 21. Through this structure, when the protrusion 24 moves out of the recessed portion 27, the protrusion 24 can cause the guide plate 21 to rotate around the circular shaft 2101, thereby facilitating the protrusion 24 to move out of the recessed portion 27. A stepped hole matching the circular shaft 2101 is provided on the inner end face of the annular groove 19. The circular shaft 2101 is rotatably mounted at the stepped hole through a bearing, and the outer side of the circular shaft 2101 A coil spring 25 is sleeved, and the two ends of the coil spring 25 are fixedly connected to the outer wall of the circular shaft 2101 and the inner wall of the stepped hole respectively. Through this structure, in the initial state, the guide plate 21 can be in an inclined state, so that a gap is left between the guide plate 21 and the recessed portion 27. When the sleeve 6 rotates clockwise and the protrusion 24 on the side of the first pull rod 11 passes through the guide plate 21, the protrusion 24 can squeeze the guide plate 21 to deflect it in the direction close to the first switch 20 and finally locate at the end of the recessed portion 27, so that the protrusion 24 can return to the inner peripheral wall of the annular groove 19.

[0053] Reference Figure 6 As shown, the second switch 26 is installed at the inner end surface of the slide groove.

[0054] A guide groove is provided at the inner end surface of the slide groove. The cross sections of the protrusion 23 and the guide groove can be set to be T-shaped, and the end of the protrusion 23 away from the pressing block 22 is slidably set in the guide groove.

[0055] In actual use, a structure such as an optical fiber sensor or a photoelectric sensor can be arranged near the bottom end of the material guide frame 3 to monitor the number of material drops.

Claims

1. An alloy adding device for metal smelting, comprising a smelting device and a funnel arranged above the smelting device, a material guide frame is installed at the bottom end of the funnel, a horizontal axis is installed at the center of the material guide frame, and a sleeve is sleeved on the outside of the horizontal axis, a plurality of partitions are evenly arranged on the outer peripheral surface of the sleeve, both sides of the cavity of the material guide frame are set as arc surfaces, the top and bottom of the material guide frame are opened with through grooves, and a motor for driving the sleeve to rotate is installed at one end of the material guide frame, characterized in that: The side of the partition is provided with an extrusion assembly, and one end of the partition close to the sleeve is provided with a traction assembly connected to the extrusion assembly, and the extrusion assembly can slide out of the partition when the traction assembly moves inward relative to the sleeve; The outer side of the horizontal axis is sleeved with a first retaining ring and a second retaining ring, and the first retaining ring and the second retaining ring are located on both sides of the traction assembly, and the first retaining ring and the second retaining ring are both installed with a first switch electrically connected to the motor, and when the materials stored between two adjacent partitions are not fully loaded, after the partition passes through the through slot above the material guide frame, the traction assembly can move inward relative to the sleeve and contact the first switch; The extrusion assembly comprises a first slide plate and a second slide plate which are arranged on both sides of the partition and elastically cooperate with the partition plate, and a pressing block is fixedly arranged on the inner side surfaces of the first slide plate and the second slide plate; The traction assembly includes a first pull rod and a second pull rod which are elastically matched with the partition, and the first pull rod and the second pull rod both pass through the sleeve and slide with the sleeve. A pull rope is fixedly provided at one end of the first pull rod and the second pull rod away from the sleeve, and a protrusion is fixedly provided at one end of the pull rope away from the sleeve, and the side of the pressure block opposite to the protrusion is set as an inclined surface.

2. The alloy adding device for metal smelting according to claim 1, characterized in that: Electromagnets are arranged on the sides of the first pull rod and the second pull rod facing away from each other, and a connecting plate is elastically installed on one side of the electromagnet, and the connecting plate is made of iron. A slot is provided on the side of the first pull rod and the second pull rod close to the electromagnet, and a block matching the slot is fixedly provided on the side of the connecting plate away from the electromagnet.

3. The alloy adding device for metal smelting according to claim 2, characterized in that: A second switch is provided on the inner side of the first slide plate and the second slide plate on the partition. The second switch on the partition on the second slide plate side is electrically connected to the electromagnet on the first pull rod side of the adjacent partition. The second switch on the partition on the first slide plate side is electrically connected to the electromagnet on the second pull rod side of the adjacent partition.

4. The alloy adding device for metal smelting according to claim 3, characterized in that: An annular groove is formed on the opposite sides of the first retaining ring and the second retaining ring, a recess is formed on the inner peripheral wall of the annular groove, an inclined guide plate is formed on the recess, the inclination direction of the guide plates on the first retaining ring and the second retaining ring are opposite, the guide plate can be deflected relative to the recess, the first switch is installed at the bottom end of the inner cavity of the recess, a protrusion is fixedly provided on the side of the first pull rod close to the first retaining ring and a protrusion is fixed on the side of the second pull rod close to the second retaining ring, the protrusion is slidably set in the annular groove, and can move to the side of the guide plate after the partition passes over the through groove above the material guide frame.

5. The alloy adding device for metal smelting according to claim 1, characterized in that: The partition plate is provided with two strip grooves, and the first pull rod and the second pull rod are slidably disposed in the two strip grooves respectively.

6. The alloy adding device for metal smelting according to claim 1, characterized in that: The partition plate is provided with two slide grooves, and the first slide plate and the second slide plate are slidably disposed in the two slide grooves respectively.

7. The alloy adding device for metal smelting according to claim 2, characterized in that: The sleeve is provided with an installation groove for installing the electromagnet, and the connecting plate is slidably arranged in the installation groove.

8. A method for alloy addition using the alloy addition device for metal smelting as claimed in any one of claims 1 to 7, characterized in that: The method comprises the following steps: introducing the raw materials to be added into the material guide frame through a funnel and finally dropping them between two adjacent partitions; driving the sleeve to rotate through a motor, driving the two adjacent partitions to rotate to the upper through slot of the material guide frame through the sleeve, and the two adjacent partitions containing the raw materials rotate to the lower through slot on the material guide frame, so that the raw materials can be put into the smelting device.

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