A feeding device for nanocrystalline magnetic ring processing

Abstract

The utility model discloses a kind of nanocrystalline magnetic ring processing is used loading device, including workbench, the upper middle part of workbench is equipped with storage tank, two inside the storage tank are equipped with downwardly inclined guide plate, motor is equipped with below the guide plate in the storage tank, motor rotating shaft is fixedly connected with driving roll shaft and penetrates storage tank, driven roll shaft is equipped with in the storage tank and away from driving roll shaft side, it is driven by transmission belt driving connection between driving roll shaft and driven roll shaft, the side wall of the storage tank is equipped with guide inlet in driving roll shaft side, storage tank is equipped with undergate below guide inlet, shaft rod is equipped with in the storage tank and above driven roll shaft, shaft rod outside is equipped with pusher roll shaft plate. This kind of loading device structure is simple and easy to understand, and it is convenient to load magnetic ring, and loading stability is good, avoid the phenomenon that magnetic ring appears damage in loading process, effectively improve the processing efficiency of magnetic ring.

Description

Technical Field

[0001] This utility model relates to the field of magnetic ring processing technology, and in particular to a feeding device for processing nanocrystalline magnetic rings. Background Technology

[0002] Nanocrystalline magnetic rings are toroidal magnetic core components made of nanocrystalline soft magnetic materials, widely used in electromagnetic compatibility and other fields. Compared with traditional manganese-zinc ferrite magnetic rings, nanocrystalline magnetic rings exhibit superior performance in high-frequency noise filtering. In mid-to-high frequency environments, their permeability can typically reach tens of thousands to hundreds of thousands, far exceeding that of traditional magnetic ring materials such as amorphous magnetic rings. They can achieve the same inductance and impedance as larger-sized traditional magnetic rings in a smaller volume, meeting the requirements of miniaturization and high performance in high-frequency circuits. The processing of magnetic rings requires a feeding device. Existing feeding devices mostly use vibration, which can easily damage the magnetic rings due to uneven force during vibration feeding, resulting in poor feeding efficiency and affecting the quality of the finished product. Therefore, we propose a feeding device for the processing of nanocrystalline magnetic rings. Utility Model Content

[0003] To address the aforementioned problems, this invention provides a feeding device for processing nanocrystalline magnetic rings. This invention solves the problem that existing feeding devices often use vibration for feeding, which can easily damage the magnetic rings due to uneven stress during vibration feeding, resulting in poor feeding efficiency and affecting the processing efficiency and quality of the finished product.

[0004] This utility model discloses a feeding device for processing nanocrystalline magnetic rings, comprising a worktable, a storage trough located at the center of the upper part of the worktable, two downwardly inclined guide plates inside the storage trough, a motor located below the guide plates in the storage trough, the motor's rotating shaft passing through the storage trough and fixedly connected to a drive roller shaft, a driven roller shaft located on the side of the storage trough away from the drive roller shaft, the drive roller shaft and the driven roller shaft being connected by a transmission belt, a guide port located on the side wall of the storage trough near the drive roller shaft, a discharge trough located below the guide port in the storage trough, a shaft located above the driven roller shaft in the storage trough, a pusher roller shaft located on the outer side of the shaft, a through groove matching the pusher roller shaft on the guide plate, and a transmission plate matching the pusher roller shaft on the driven roller shaft.

[0005] In the above scheme, the storage tank is provided with a guide block between the active roller shaft and the guide port.

[0006] In the above scheme, the transmission plate is provided with an anti-slip sleeve on the outside.

[0007] In the above scheme, the feeding trough is inclined downward, and the lower end of the feeding trough on the side away from the storage trough is provided with a discharge port.

[0008] In the above scheme, reinforcing plates are provided on both sides of the feeding trough, and the reinforcing plates are fixedly connected to the storage trough.

[0009] In the above scheme, a control button is provided on the upper part of the workbench.

[0010] In the above scheme, an observation window is provided on one side wall of the storage tank.

[0011] The advantages and beneficial effects of this utility model are as follows: This utility model provides a feeding device for processing nanocrystalline magnetic rings. A motor drives the active roller shaft to rotate. Through the cooperation between the active and driven roller shafts, a conveyor belt can transport the magnetic rings. The magnetic rings driven by the conveyor belt can enter the unloading trough through the guide port. The magnetic rings inside the unloading trough can be discharged through the outlet. When the driven roller shaft rotates, it drives the transmission plate to rotate. When the transmission plate rotates, the mutual friction between the transmission plate and the pusher roller shaft causes the transmission plate to rotate as well. The rotation of the transmission plate pushes the magnetic rings inside the storage trough, thus facilitating the unloading of the magnetic rings. This feeding device has a simple structure, facilitates the feeding of magnetic rings, has good feeding stability, avoids damage to the magnetic rings during the feeding process, and effectively improves the processing efficiency of the magnetic rings. Attached Figure Description

[0012] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0013] Figure 1 This is a schematic diagram of the structure of this utility model;

[0014] Figure 2 This is a cross-sectional view of the present invention;

[0015] Figure 3 This is a schematic diagram of part A of the present invention;

[0016] Figure 4 This is a schematic diagram of part B of the present invention.

[0017] In the diagram: 1. Workbench; 2. Storage tank; 3. Guide plate; 4. Motor; 5. Driven roller; 6. Driven roller; 7. Conveyor belt; 8. Feed port; 9. Discharge chute; 10. Guide block; 11. Shaft; 12. Push roller; 13. Through groove; 14. Transmission plate; 15. Anti-slip sleeve; 16. Discharge port; 17. Reinforcing plate; 18. Control button; 19. Observation window. Detailed Implementation

[0018] The specific embodiments of this utility model will be further described below with reference to the accompanying drawings and examples. The following examples are only used to more clearly illustrate the technical solution of this utility model and should not be construed as limiting the scope of protection of this utility model.

[0019] like Figure 1-4 As shown, this utility model is a feeding device for processing nanocrystalline magnetic rings, including a worktable 1. A storage tank 2 is located at the center of the upper part of the worktable 1. Two downward-sloping guide plates 3 are arranged symmetrically within the storage tank 2, forming an inverted conical guiding structure. The guide plates 3 allow the magnetic rings to pass sequentially between them. A motor 4 is located below the guide plates 3 in the storage tank 2. The rotating shaft of the motor 4 passes through the storage tank 2 and is fixedly connected to a drive roller 5. Both ends of the drive roller 5 are movably connected to the inner wall of the storage tank 2. A driven roller 6 is located on the side of the storage tank 2 away from the drive roller 5. Both ends of the driven roller 6 are movably connected to the inner wall of the storage tank 2. The drive roller 5 and the driven roller 6 are connected by a transmission belt 7. When the motor 4 is working, it drives the drive roller 5 to rotate. The driven roller 6, connected to the drive roller 5 via the transmission belt 7, begins to rotate under the drive of the drive roller 5. The interaction between the driven roller 5 and the driven roller 6 allows the conveyor belt 7 to transport the magnetic rings. A guide port 8 is provided on the side wall of the storage tank 2 near the driven roller 5. A discharge trough 9 is located below the guide port 8 in the storage tank 2. The magnetic rings driven by the conveyor belt 7 can enter the discharge trough 9 through the guide port 8. A shaft 11 is located inside the storage tank 2 above the driven roller 6. Both ends of the shaft 11 are movably connected to the inner wall of the storage tank 2. A pusher roller 12 is located on the outer side of the shaft 11. The guide plate 3 is provided with a through groove 13 that matches the pusher roller shaft 12. The driven roller shaft 6 is provided with a transmission plate 14 that matches the pusher roller shaft 12. When the driven roller shaft 6 rotates, it drives the transmission plate 14 to rotate. When the transmission plate 14 rotates, the mutual friction between the transmission plate 14 and the pusher roller shaft 12 causes the transmission plate 14 to rotate as well. When the transmission plate 14 rotates, it can push the magnetic ring inside the storage tank 2, thereby making it easier for the magnetic ring to be discharged.

[0020] The storage tank 2 is located between the drive roller 5 and the guide port 8 and is equipped with a guide block 10.

[0021] The transmission plate 14 is provided with an anti-slip sleeve 15 on the outside. The anti-slip sleeve 15 is a rubber sleeve. The anti-slip sleeve 15 effectively increases the friction between the transmission plate 14 and the pusher roller shaft 12.

[0022] The feeding trough 9 is inclined downward, and the lower end of the feeding trough 9 away from the storage trough 2 is provided with a discharge port 16. The magnetic ring inside the feeding trough 9 can be discharged through the discharge port 16.

[0023] Both sides of the feeding trough 9 are provided with reinforcing plates 17, which are fixedly connected to the storage trough 2. The setting of the reinforcing plates 17 effectively increases the connection strength between the feeding trough 9 and the storage trough 2.

[0024] The upper end of the workbench 1 is equipped with a control button 18, which can be used to control the working status of the feeding device.

[0025] The storage tank 2 has an observation window 19 on one side wall, through which the number of magnetic rings inside the storage tank 2 can be observed.

[0026] Specifically, in this utility model, when the motor 4 is working, the motor 4 drives the active roller shaft 5 to rotate. The driven roller shaft 6, which is connected to the active roller shaft 5 through the transmission belt 7, starts to rotate under the drive of the active roller shaft 5. Through the mutual cooperation between the active roller shaft 5 and the driven roller shaft 6, the transmission belt 7 can transport the magnetic rings. The magnetic rings driven by the transmission belt 7 can enter the discharge trough 9 through the guide port 8. The magnetic rings inside the discharge trough 9 can be discharged through the discharge port 16. When the driven roller shaft 6 rotates, the driven roller shaft 6 drives the transmission plate 14 to rotate. When the transmission plate 14 rotates, the mutual friction between the transmission plate 14 and the pusher roller shaft 12 causes the transmission plate 14 to rotate as well. When the transmission plate 14 rotates, it can push the magnetic rings inside the storage trough 2, thereby making it easier for the magnetic rings to be discharged.

[0027] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A feeding device for processing nanocrystalline magnetic rings, comprising a worktable (1), characterized in that, A storage tank (2) is provided in the middle of the upper part of the workbench (1). Two inclined guide plates (3) are provided in the storage tank (2). A motor (4) is provided below the guide plates (3) in the storage tank (2). The rotating shaft of the motor (4) passes through the storage tank (2) and is fixedly connected to the drive roller shaft (5). A driven roller shaft (6) is provided in the storage tank (2) on the side away from the drive roller shaft (5). The drive roller shaft (5) and the driven roller shaft (6) are connected by a transmission belt (7). The material trough (2) has a guide port (8) on the side wall near the drive roller shaft (5). The storage trough (2) has a discharge trough (9) below the guide port (8). The storage trough (2) has a shaft (11) above the driven roller shaft (6). The shaft (11) has a push roller shaft (12) on the outside. The guide plate (3) has a through groove (13) that matches the push roller shaft (12). The driven roller shaft (6) has a transmission plate (14) that matches the push roller shaft (12).

2. The feeding device for processing nanocrystalline magnetic rings according to claim 1, characterized in that, The storage tank (2) is provided with a guide block (10) between the drive roller (5) and the guide port (8).

3. The feeding device for processing nanocrystalline magnetic rings according to claim 1, characterized in that, The transmission plate (14) is provided with an anti-slip sleeve (15) on the outside.

4. The feeding device for processing nanocrystalline magnetic rings according to claim 1, characterized in that, The feeding trough (9) is inclined downward, and the lower end of the feeding trough (9) away from the storage trough (2) is provided with a discharge port (16).

5. The feeding device for processing nanocrystalline magnetic rings according to claim 1, characterized in that, The feeding trough (9) is provided with reinforcing plates (17) on both sides, and the reinforcing plates (17) are fixedly connected to the storage trough (2).

6. The feeding device for processing nanocrystalline magnetic rings according to claim 1, characterized in that, The workbench (1) is equipped with a control button (18) at its upper end.

7. The feeding device for processing nanocrystalline magnetic rings according to claim 1, characterized in that, The storage tank (2) has an observation window (19) on one side wall.

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