Super-pure iron concentrate magnetic separator

Abstract

The utility model belongs to the technical field of magnetic separation equipment, disclose a kind of superpure iron concentrate powder magnetic separator, it include: magnetic separator body, magnetic separator frame, guide shell and collection box, the magnetic separator body is connected in the magnetic separator frame, guide shell is connected in the magnetic separator body, collection box is connected in the guide shell, and the collection box is located in the bottom of the guide shell, and the barrier component includes rotating plate one, rotating part, moving rod, connecting disc and elastic piece one, the rotating plate one drives the rotating part rotates in the guide shell inside, the elastic piece one is connected in moving rod by the connecting disc, and the moving rod is remote the one end of connecting disc rotates in the rotating part, the cooperation between barrier component and separation component, the smoke generated by impurity is blocked, avoid these smoke to scatter in the surroundings of the equipment, to improve the neatness of the environment around the equipment.

Description

Technical Field

[0001] This utility model belongs to the field of magnetic separation equipment technology, and in particular relates to an ultrapure iron concentrate magnetic separator. Background Technology

[0002] In recent years, ultrapure metal refining technology has been widely applied and developed. Ultrapure iron concentrate, as a key material, plays an important role in high-tech fields such as electronic components, precision machinery manufacturing, and new energy technologies. Ultrapure iron concentrate needs to be purified through special processes to remove impurities and non-ferrous components, thereby improving its purity and ensuring performance stability and reliability in various high-tech applications. In the production of ultrapure iron concentrate, magnetic separators are a commonly used purification equipment. They are separated by utilizing the difference in the magnetic field response between iron powder and impurities. Existing ultrapure iron concentrate magnetic separators, after separating iron concentrate from impurities (dust or non-metallic substances), will generate smoke from the impurities (dust or non-metallic substances) that fall into the collection box. This smoke will drift around the equipment, affecting the cleanliness of the surrounding environment and thus the work efficiency of the staff when using the equipment. Utility Model Content

[0003] This invention addresses the problem in existing technology where, after separating iron concentrate and impurities (dust or non-metallic substances), the impurities (dust or non-metallic substances) that fall into the collection box generate fumes. These fumes disperse around the equipment, affecting the cleanliness of the surrounding environment and consequently impacting the work efficiency of operators. The following technical solution is proposed: A magnetic separator for ultrapure iron concentrate includes: A magnetic separator body and a magnetic separator frame, wherein the magnetic separator body is connected to the magnetic separator frame and is used for magnetic separation of iron concentrate; A guide housing, connected to the magnetic separator body, is used to guide the separated impurities; A collection box is connected to the guide housing, and the collection box is located at the bottom of the guide housing; The blocking assembly includes a rotating plate, a rotating component, a moving rod, a connecting plate, and an elastic component. The rotating plate drives the rotating component to rotate inside the guide housing. The elastic component is connected to the moving rod through the connecting plate, and one end of the moving rod away from the connecting plate rotates inside the rotating component.

[0004] As a preferred embodiment of the above technical solution, a separation component is also included. The separation component includes a second rotating plate, a moving block, a slider, and a second elastic element. The second rotating plate rotates inside the guide housing and drives the moving block to move vertically. The second elastic element is connected to the moving block through the slider, and the slider slides on the inner wall of the guide housing.

[0005] As a preferred embodiment of the above technical solution, the rotating plate is provided with a positioning block, the positioning block is connected to the guide shell, and the positioning block is located at the top edge of the rotating plate.

[0006] As a preferred embodiment of the above technical solution, the rotating plate is provided with a positioning element, and one end face of the positioning element is in contact with the end of the rotating component away from the moving rod, in order to limit the rotation angle of the rotating component.

[0007] As a preferred embodiment of the above technical solution, the moving block is provided with an inclined surface, and the second surface of the rotating plate is in contact with the inclined surface on the moving block.

[0008] As a preferred embodiment of the above technical solution, there are two moving blocks, which are located at the two side edges of the rotating plate one, and the number of moving blocks, the slider and the elastic element two corresponds one-to-one with the number of moving blocks.

[0009] The beneficial effects of this utility model are as follows: (1) By combining the blocking component and the separation component, the smoke generated by impurities is blocked, thus preventing the smoke from drifting around the equipment and improving the cleanliness of the environment around the equipment. (2) Through the cooperation between the rotating plate 2 and the moving block, the rotating plate 1 is separated from the positioning block, thereby avoiding the problem that the staff need to manually separate the rotating plate 1 from the positioning block, thus reducing the operation steps of the barrier component. Attached Figure Description

[0010] Figure 1 The diagram shown is a structural schematic of an ultrapure iron concentrate magnetic separator according to Example 1; Figure 2 The diagram shown is a structural schematic of the magnetic separator in Example 1; Figure 3 The diagram shown is a cross-sectional view of the guide housing in Embodiment 1; Figure 4 The diagram shown is a structural schematic of the rotating plate in Embodiment 1; Figure 5 The diagram shown is a schematic diagram of the bottom structure of rotating plate one in embodiment 1.

[0011] In the diagram: 1. Magnetic separator body; 2. Magnetic separator frame; 3. Guide shell; 4. Collection box; 5. Rotating plate one; 6. Rotating component; 7. Moving rod; 8. Connecting plate; 9. Elastic component one; 10. Rotating plate two; 11. Moving block; 12. Sliding block; 13. Elastic component two; 14. Positioning block; 15. Positioning component. Detailed Implementation

[0012] To make the objectives, technical solutions, and advantages of the present invention clearer, the technical solutions of the present invention will be clearly and completely described below in conjunction with the embodiments.

[0013] Example 1 This utility model provides a magnetic separator for ultrapure iron concentrate, such as... Figures 1 to 5 As shown, the system includes: a magnetic separator body 1, a magnetic separator frame 2, a guide housing 3, a collection box 4, and a barrier assembly. A guide plate is provided between the magnetic separator body 1 and the guide housing 3. The magnetic separator body 1 is connected to the magnetic separator frame 2 and is used for magnetic separation of iron concentrate. The guide housing 3 is connected to the magnetic separator body 1 and is used to guide the separated impurities. The collection box 4 is connected to the guide housing 3 and is located at the bottom of the guide housing 3. The barrier assembly includes a rotating plate 5, a rotating component 6, a moving rod 7, a connecting plate 8, and an elastic component 9. Both ends of the rotating component 6 are provided with rotating shafts. The top end of the rotating component 6 rotates at the bottom end of the rotating plate 5, and the bottom end of the rotating component 6... The end rotates inside the moving rod 7, and the connecting plate 8 moves horizontally inside the guide housing 3. Both the first elastic element 9 and the second elastic element 13 are springs. The rotating plate 5 drives the rotating part 6 to rotate inside the guide housing 3. The first elastic element 9 is connected to the moving rod 7 through the connecting plate 8, and the end of the moving rod 7 away from the connecting plate 8 rotates inside the rotating part 6. The guide housing 3 is provided with a positioning block 14, and the bottom of the positioning block 14 contacts the top edge of the rotating plate 5. The rotating plate 5 is provided with a positioning element 15, and one end face of the positioning element 15 is attached to the end of the rotating part 6 away from the moving rod 7 to limit the rotation angle of the rotating part 6.

[0014] By combining the blocking and separating components, the smoke generated by impurities (dust or non-metallic substances) is blocked, preventing the smoke from drifting around the equipment and thus improving the cleanliness of the surrounding environment.

[0015] In operation, the operator first feeds the material containing impurities (dust or non-metallic substances) into the equipment. Then, the magnetic separator 1 is activated to separate the impurities (dust or non-metallic substances) from the iron concentrate. The separated impurities (dust or non-metallic substances) fall onto the surface of the guide plate and then along the guide plate into the guide housing 3. They then move along the inner wall of the guide housing 3 towards the collection box 4. During this process, the impurities (dust or non-metallic substances) come into contact with the rotating plate 10, causing it to rotate. The rotating plate 10 rotates along the inclined surface of the moving block 11, causing the moving block 11 to move vertically downwards. The moving block 11 drives the slider 12 to move synchronously, and the slider 12 stretches the elastic element 13 during this movement. As the moving block 11 moves downward, it pushes the rotating plate 5 to rotate. The rotation of the rotating plate 5 causes the rotating component 6 to rotate synchronously. During this rotation, the rotating component 6 drives the moving rod 7 towards the connecting plate 8. The connecting plate 8, during this movement, compresses and deforms the elastic component 9. This completes the rotation of the rotating plate 5. After rotation, the rotating plate 5 separates from the bottom of the positioning block 14. At this point, impurities (dust or non-metallic substances) that have passed through the rotating plate 10 inside the guide housing 3 will fall onto the surface of the rotating plate 5 and spread along... After rotation, the surface of rotating plate 5 falls into the collection box 4. Once rotating plate 10 separates from moving block 11, moving block 11 can no longer compress elastic element 13, causing elastic element 13 to rebound. The rebounded elastic element 13 pushes moving block 11 in the opposite direction. At this point, the reverse-moving moving block 11 can no longer push rotating plate 5 to tilt, and rotating plate 5 can no longer restrict elastic element 9, causing elastic element 9 to return to its original shape and push rotating plate 5 in the opposite direction until the top edge of rotating plate 5 is aligned with the fixed point. With the bottom of the positioning block 14 in contact, the top edge of the rotating plate 5 and the bottom of the positioning block 14 are in contact. The cooperation between the rotating plate 5 and the positioning block 14 blocks impurities (dust or non-metallic substances) that fall into the collection box 4, thus preventing the problem of smoke generated by impurities (dust or non-metallic substances) from drifting away. Through the cooperation between the blocking component and the separation component, the smoke generated by impurities (dust or non-metallic substances) is blocked, preventing this smoke from drifting around the device, thereby improving the cleanliness of the environment around the device.

[0016] Specifically, the magnetic separator body 1 is fixedly installed inside the magnetic separator frame 2. A guide shell 3 is fixedly connected to the surface of the magnetic separator body 1 via a guide plate. A collection box 4 is snapped into the bottom of the guide shell 3. A rotating plate 10 is rotatably connected inside the guide shell 3, and the rotating plate 10 is cross-shaped. A movable block 11 is slidably connected inside the guide shell 3. A slider 12 is fixedly connected to the surface of the movable block 11. The top of the slider 12 is fixedly connected to the inside of the guide shell 3 via an elastic element 13, and the slider 12 moves vertically inside the guide shell 3. The surface of the movable block 11 has an inclined surface, and the surface of the rotating plate 10 is in contact with the inclined surface at the top of the movable block 11. A rotating plate is located at the bottom of the movable block 11. 16, and the rotating plate 15 rotates inside the guide housing 3. The bottom of the rotating plate 15 is rotatably connected to a rotating component 6. The end of the rotating component 6 away from the rotating plate 15 is rotatably connected to a moving rod 7. The end of the moving rod 7 away from the rotating component 6 is fixedly connected to an elastic component 9 through a connecting plate 8. The other end of the elastic component 9 is fixedly connected inside the guide housing 3. The connecting plate 8 moves horizontally inside the guide housing 3. There are two rotating components 6. The two rotating components 6 are located at the two side edges of the bottom of the rotating plate 15. The moving rod 7, the connecting plate 8, and the elastic component 9 correspond one-to-one with the number of rotating components 6. The surface of the rotating component 6 is fitted with a positioning component 15, and the positioning component 15 is fixedly connected to the bottom of the rotating plate 15.

[0017] To achieve the separation of the rotating plate 5 from the positioning block 14 in the above example, the following solution is proposed: Figures 3 to 5 As shown, it also includes a separation assembly, which includes a second rotating plate 10, a moving block 11, a slider 12, and a second elastic element 13. The second rotating plate 10 rotates inside the guide housing 3. The guide housing 3 is provided with a semi-circular connecting housing. The second rotating plate 10 rotates between the guide housing 3 and the semi-circular connecting housing, and the second rotating plate 10 drives the moving block 11 to move in a vertical direction. The second elastic element 13 is connected to the moving block 11 through the slider 12, and the slider 12 slides on the inner wall of the guide housing 3. The moving block 11 is provided with an inclined surface, and the surface of the second rotating plate 10 is in contact with the inclined surface on the moving block 11. There are two moving blocks 11, and the two moving blocks 11 are located at the two side edges of the first rotating plate 5, respectively. The number of moving blocks 11, sliders 12, and elastic elements 13 corresponds one-to-one with the number of moving blocks 11.

[0018] The rotation plate 10 and the moving block 11 work together to separate the rotation plate 5 from the positioning block 14, thus avoiding the need for workers to manually separate the rotation plate 5 from the positioning block 14 and reducing the number of steps required to operate the barrier component.

[0019] Working Principle: When using this device, the operator first feeds materials containing impurities (dust or non-metallic substances) into the equipment. Then, the magnetic separator 1 is activated to separate the impurities (dust or non-metallic substances) from the iron concentrate. The separated impurities (dust or non-metallic substances) fall onto the surface of the guide plate and then along the guide plate into the guide housing 3. They then move along the inner wall of the guide housing 3 towards the collection box 4. During this process, the impurities (dust or non-metallic substances) come into contact with the rotating plate 10, causing it to rotate. The rotating plate 10 rotates along the inclined surface of the moving block 11, causing the moving block 11 to move vertically downwards. The moving block 11 drives the slider 12 to move synchronously, and the slider 12 stretches the elastic element 13 during this movement. As the moving block 11 moves downward, it pushes the rotating plate 5 to rotate. The rotation of the rotating plate 5 causes the rotating component 6 to rotate synchronously. During this rotation, the rotating component 6 drives the moving rod 7 towards the connecting plate 8. The connecting plate 8, during this movement, compresses and deforms the elastic component 9. This completes the rotation of the rotating plate 5. After rotation, the rotating plate 5 separates from the bottom of the positioning block 14. At this point, impurities (dust or non-metallic substances) that have passed through the rotating plate 10 inside the guide housing 3 will fall onto the surface of the rotating plate 5 and spread along... After rotation, the surface of rotating plate 5 falls into the collection box 4. Once rotating plate 10 separates from moving block 11, moving block 11 can no longer compress elastic element 13, causing elastic element 13 to rebound. The rebounded elastic element 13 pushes moving block 11 in the opposite direction. At this point, the reverse-moving moving block 11 can no longer push rotating plate 5 to tilt, and rotating plate 5 can no longer restrict elastic element 9, causing elastic element 9 to return to its original shape and push rotating plate 5 in the opposite direction until the top edge of rotating plate 5 is aligned with the fixed point. With the bottom of the positioning block 14 in contact, the top edge of the rotating plate 5 and the bottom of the positioning block 14 are in contact. The cooperation between the rotating plate 5 and the positioning block 14 blocks impurities (dust or non-metallic substances) that fall into the collection box 4, thus preventing the problem of smoke generated by impurities (dust or non-metallic substances) from drifting away. Through the cooperation between the blocking component and the separation component, the smoke generated by impurities (dust or non-metallic substances) is blocked, preventing this smoke from drifting around the device, thereby improving the cleanliness of the environment around the device.

[0020] The above embodiments are only used to illustrate the technical solution of this utility model, and are not intended to limit it.

Claims

1. A magnetic separator for ultrapure iron concentrate, characterized in that, include: A magnetic separator body (1) and a magnetic separator frame (2), wherein the magnetic separator body (1) is connected to the magnetic separator frame (2) for magnetic separation of iron concentrate; The guide housing (3) is connected to the magnetic separator body (1) and is used to guide the separated impurities. A collection box (4) is connected to the guide housing (3), and the collection box (4) is located at the bottom of the guide housing (3); The blocking assembly includes a rotating plate (5), a rotating component (6), a moving rod (7), a connecting plate (8), and an elastic component (9). The rotating plate (5) drives the rotating component (6) to rotate inside the guide housing (3). The elastic component (9) is connected to the moving rod (7) through the connecting plate (8), and one end of the moving rod (7) away from the connecting plate (8) rotates inside the rotating component (6).

2. The ultrapure iron concentrate magnetic separator according to claim 1, characterized in that, It also includes a separation component, which includes a second rotating plate (10), a moving block (11), a slider (12), and a second elastic element (13). The second rotating plate (10) rotates inside the guide housing (3), and the second rotating plate (10) drives the moving block (11) to move in a vertical direction. The second elastic element (13) is connected to the moving block (11) through the slider (12), and the slider (12) slides on the inner wall of the guide housing (3).

3. The ultrapure iron concentrate magnetic separator according to claim 1, characterized in that, The guide housing (3) is provided with a positioning block (14), and the bottom of the positioning block (14) is in contact with the top edge of the rotating plate (5).

4. The ultrapure iron concentrate magnetic separator according to claim 1, characterized in that, The rotating plate (5) is provided with a positioning element (15), and one end face of the positioning element (15) is attached to the end of the rotating part (6) away from the moving rod (7) to limit the rotation angle of the rotating part (6).

5. A magnetic separator for ultrapure iron concentrate according to claim 2, characterized in that, The movable block (11) has an inclined surface, and the surface of the rotating plate (10) is in contact with the inclined surface on the movable block (11).

6. The ultrapure iron concentrate magnetic separator according to claim 2, characterized in that, There are two moving blocks (11), and the two moving blocks (11) are located at the two side edges of the rotating plate (5). The number of moving blocks (11), the slider (12) and the elastic element (13) corresponds one-to-one with the number of moving blocks (11).

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