Amorphous nanometer magnetic core slitting device

Abstract

The utility model discloses a kind of amorphous nanometer magnetic core slitting device, including slitting table, the upper side of the slitting table is equipped with slitting cover, slitting cover is equipped with slitting machine in its inside, the upper side of slitting table is equipped with two clamping seats of longitudinal symmetry distribution, further include flow distribution mechanism;Flow distribution mechanism: it includes flow distribution seat, pivot one, turnover plate, stop seat, turnover synchronous assembly and limit seat, the amorphous nanometer magnetic core slitting device, by being directly arranged in the lower of amorphous nanometer magnetic core cutting position of flow distribution seat, so that device need not be set rotary blanking mechanism, reduce cost, simultaneously flow distribution seat is through elastic turnover element and intercepting element in, when there is no amorphous nanometer magnetic core cutting block in flow distribution seat, the part of amorphous nanometer magnetic core slitting is collected, when there is amorphous nanometer magnetic core cutting block in flow distribution seat, amorphous nanometer magnetic core cutting block is collected simultaneously with it and cutting residue is separated, convenient to use.

Description

Technical Field

[0001] This utility model relates to the field of amorphous nanomagnetic core processing technology, specifically to an amorphous nanomagnetic core slitting device. Background Technology

[0002] Amorphous nanocrystalline magnetic cores are composite materials composed of amorphous and nanocrystalline states. They possess excellent magnetic properties such as high permeability, low hysteresis loss, and high saturation flux density, giving them significant advantages in high-frequency applications. During processing, the raw materials for amorphous nanocrystalline magnetic cores require segmentation using a slitting device. Existing technology includes a patent (CN 221475672U) that discloses a slitting device suitable for nanocrystalline magnetic core products. This device includes a worktable, a positioning sleeve, a cutting mechanism, a rotary unloading mechanism, a guide rail, and a storage bin. The positioning sleeve is mounted on the worktable, with two legs fixed to its side. The cutting mechanism is mounted on the right side of the positioning sleeve on the worktable. The rotary unloading mechanism is mounted on the top left end of the worktable. A guide rail is positioned on the ground to the left of the rotary unloading mechanism, and a storage bin is positioned on the ground to the lower left of the guide rail. This invention features an automatic feeding... While cutting and unloading materials can reduce manual operation and increase work efficiency, a large amount of cutting residue remains below the cutting section of the amorphous nano-magnetic core material during the cutting process. After the amorphous nano-magnetic core material is cut, it falls onto the residue. When the subsequent device moves the cut amorphous nano-magnetic core material to the guide rail through the rotating unloading mechanism, it carries a large amount of cutting residue, which requires subsequent cleaning by staff, making the operation inconvenient. At the same time, the rotating unloading mechanism has a relatively complex structure, containing electrical components and other parts, resulting in high costs. Therefore, we propose an amorphous nano-magnetic core cutting device. Utility Model Content

[0003] The technical problem this invention aims to solve is to overcome existing defects and provide an amorphous nano-magnetic core slitting device. This device directly sets the diversion seat below the amorphous nano-magnetic core cutting section, eliminating the need for a rotating feeding mechanism and reducing costs. Simultaneously, the diversion seat incorporates elastic flipping and intercepting elements. When there are no amorphous nano-magnetic core pieces in the diversion seat, the slag from the slitting process is collected. When amorphous nano-magnetic core pieces are present in the diversion seat, they are collected and separated from the slag. This convenient device effectively solves the problems in the prior art.

[0004] To achieve the above objectives, the present invention provides the following technical solution: an amorphous nano magnetic core slitting device, comprising a slitting table, a slitting cover provided on the upper side of the slitting table, a slitting machine installed inside the slitting cover, two longitudinally symmetrically distributed clamping seats installed on the upper side of the slitting table, and a diversion mechanism;

[0005] The diversion mechanism includes a diversion seat, a rotating shaft, a flipping plate, a stop seat, a flipping synchronization component, and a limiting seat. The diversion seat is located in a clearance groove 1 on the top wall of the cutting table. A clearance groove 2 is located on the bottom wall of the diversion seat. The flipping plate is rotatably connected to the interior of the clearance groove 2 via the rotating shaft 1. A flipping synchronization component is located between the rotating shaft 1 and the diversion seat. Limit seats are located at both the front and rear ends of the lower side of the flipping plate. A stop seat is located on the bottom wall of the diversion seat, to the right of the flipping plate. This device eliminates the need for a rotating feeding mechanism by directly placing the diversion seat below the amorphous nano-magnetic core cutting section, thus reducing costs. Furthermore, the diversion seat utilizes elastic flipping and interception elements to collect the slag from the amorphous nano-magnetic core cutting process when there are no amorphous nano-magnetic core pieces inside. When amorphous nano-magnetic core pieces are present in the diversion seat, they are collected and separated from the slag, making it convenient to use.

[0006] Furthermore, it also includes a microcontroller, which is located outside the slitting table. The input terminal of the microcontroller is electrically connected to an external power supply, and the input terminal of the slitting machine is electrically connected to the output terminal of the microcontroller, which facilitates the control of the electrical components inside the device.

[0007] Furthermore, the right wall of the slitting cover is provided with an electro-hydraulic push rod one, and the telescopic end of the electro-hydraulic push rod one is provided with an electro-hydraulic push rod two through a fixed base. The telescopic end of the electro-hydraulic push rod two is fixedly connected to the upper side of the slitting machine. The input ends of both the electro-hydraulic push rod one and the electro-hydraulic push rod two are electrically connected to the output end of the microcontroller to adjust the position of the slitting point of the amorphous nano-magnetic core in the amorphous nano-magnetic core slitting device.

[0008] Furthermore, a fixed frame is provided on the upper middle part of the slitting table. A bidirectional lead screw is rotatably connected inside the fixed frame through a bearing. Both ends of the bidirectional lead screw are threadedly connected to adjacent clamping seats. A handwheel is provided at the front end of the bidirectional lead screw. Two guide rods are provided between the front and rear walls of the fixed frame. The guide rods are slidably connected to the round holes opened on the clamping seats. Corrugated tubes are provided between the front and rear walls of the fixed frame and the adjacent clamping seats, and between the opposite inner surfaces of the two clamping seats. The corrugated tubes are movably sleeved on the outer end of the bidirectional lead screw to slit and fix the amorphous nano-magnetic cores in the amorphous nano-magnetic core slitting device.

[0009] Furthermore, the flipping synchronization component includes a connecting seat, a circular seat, and a torsion spring. The connecting seat is located on the top wall of the slitting table. The front end of the first rotating shaft is rotatably connected to the rear side of the connecting seat through a second bearing. The front end of the first rotating shaft is provided with a circular seat. A torsion spring is movably sleeved on the outer front end of the first rotating shaft. The front end of the torsion spring is fixedly connected to the connecting seat, and the rear end of the torsion spring is fixedly connected to the circular seat, so that the flipping plate in the amorphous nano magnetic core slitting device can automatically flip back to its original position after it flips down and opens.

[0010] Furthermore, the flipping synchronization component also includes a flow stop seat, a synchronization seat, a rack plate, and a gear. The gear is located at the rear end of the rotating shaft. The flow stop seat is slidably connected to the clearance groove three opened at the bottom of the flow stop seat. The lower end of the flow stop seat is provided with a rack plate through the synchronization seat. The rack plate is meshed with the gear, so that when the amorphous nano-magnetic core cutting device collects the cut amorphous nano-magnetic core raw material on the flow stop seat, when the flipping plate is flipped down and opened, the flow stop seat can move up to intercept the cutting slag on the flow stop seat, preventing it from falling and moving along with the cut amorphous nano-magnetic core raw material.

[0011] Furthermore, the upper right side of the diversion seat is provided with two longitudinally symmetrically distributed partition plates, and a filter plate is provided between the front and rear walls of the slitting table. The filter plate is installed in conjunction with the flip plate. Drawer 1 and drawer 2 are slidably connected in the groove opened on the front wall of the slitting table, so as to classify and collect the amorphous nano-magnetic core raw materials and some cutting slag cut by the amorphous nano-magnetic core slitting device.

[0012] Compared with the prior art, the beneficial effects of this utility model are as follows: This amorphous nanomagnetic core slitting device has the following advantages:

[0013] When using the amorphous nano-magnetic core slitting device, by directly placing the diverter seat below the amorphous nano-magnetic core cutting section, the device eliminates the need for a rotating feeding mechanism to feed the slitting amorphous nano-magnetic cores, reducing costs. Simultaneously, the diverter seat, through a rotating shaft, flipping plate, stop seat, flipping synchronization component, limit seat, and filter plate, collects the slag from the slitting process when there are no amorphous nano-magnetic core pieces. When amorphous nano-magnetic core pieces are present, the diverter seat collects them while simultaneously separating them from the slag, reducing the workload of subsequent separation of the amorphous nano-magnetic core pieces from the slag. This makes the device convenient to use. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the structure of this utility model;

[0015] Figure 2 This is a schematic diagram of the internal structure of this utility model;

[0016] Figure 3 This is a schematic diagram of the flow divider structure of this utility model;

[0017] Figure 4 This is a schematic diagram of the rear structure of the flow divider of this utility model;

[0018] Figure 5 This is an enlarged structural diagram of point A in this utility model.

[0019] In the diagram: 1. Slitting table, 2. Microcontroller, 3. Slitting cover, 4. Electro-hydraulic actuator 1, 5. Electro-hydraulic actuator 2, 6. Slitting machine, 7. Fixing frame, 8. Clamping seat, 9. Diverting mechanism, 91. Diverting seat, 92. Rotating shaft 1, 93. Tilting plate, 94. Stop seat, 95. Tilting synchronization assembly, 951. Connecting seat, 952. Round seat, 953. Torsion spring, 954. Flow stop seat, 955. Synchronization seat, 956. Rack plate, 957. Gear, 96. Limiting seat, 10. Bidirectional lead screw, 11. Handwheel, 12. Guide rod, 13. Bellows, 14. Divider plate, 15. Filter plate, 16. Drawer 1, 17. Drawer 2. Detailed Implementation

[0020] 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.

[0021] Please see Figure 1-5This embodiment provides a technical solution: an amorphous nanomagnetic core slitting device, including a slitting table 1, a slitting cover 3 on the upper side of the slitting table 1, a slitting machine 6 installed inside the slitting cover 3, two longitudinally symmetrically distributed clamping seats 8 installed on the upper side of the slitting table 1, and a microcontroller 2 located outside the slitting table 1. The input terminal of the microcontroller 2 is electrically connected to an external power supply, and the input terminal of the slitting machine 6 is electrically connected to the output terminal of the microcontroller 2. An electro-hydraulic push rod 4 is provided on the right wall of the slitting cover 3, and an electro-hydraulic push rod 5 is provided at the telescopic end of the electro-hydraulic push rod 4 via a fixed seat. The telescopic end of the electro-hydraulic push rod 5 is connected to the slitting machine 6. The upper side is fixedly connected, and the input ends of electro-hydraulic actuator 4 and electro-hydraulic actuator 5 are electrically connected to the output end of the microcontroller 2. A fixed frame 7 is provided in the middle of the upper side of the cutting table 1. A bidirectional lead screw 10 is rotatably connected inside the fixed frame 7 through a bearing. The front and rear ends of the bidirectional lead screw 10 are threaded to the adjacent clamping seats 8. A handwheel 11 is provided at the front end of the bidirectional lead screw 10. Two guide rods 12 are provided between the front and rear walls of the fixed frame 7. The guide rods 12 are slidably connected to the round holes opened on the clamping seats 8. Corrugated pipes 1 are provided between the front and rear walls of the fixed frame 7 and the adjacent clamping seats 8, and between the opposite inner surfaces of the two clamping seats 8. 3. The bellows 13 are all movably sleeved on the outer end of the bidirectional lead screw 10. When using the device to cut amorphous nano-magnetic core material, the operator first places one end of the amorphous nano-magnetic core material between the two clamping seats 8. Then, the operator turns the handwheel 11 to drive the bidirectional lead screw 10 to rotate. During the rotation of the bidirectional lead screw 10, the two clamping seats 8 move closer to each other along the guide rod 12 through the threaded connection, thereby cutting and fixing the amorphous nano-magnetic core material. The bellows 13 wrap the exposed part of the bidirectional lead screw 10 to prevent the debris generated during the cutting of the amorphous nano-magnetic core material from damaging the bidirectional lead screw. Interference occurs in the transmission of 10. Subsequently, the operator closes the door on the slitting cover 3. Then, the operator controls the extension end of the electro-hydraulic push rod 4 through the microcontroller 2, thereby adjusting the horizontal position of the cutting point of the slitting machine 6. The operator controls the extension end of the electro-hydraulic push rod 5 through the microcontroller 2, thereby adjusting the vertical position of the cutting point of the slitting machine 6. The operator starts the slitting machine 6 through the microcontroller 2. The cutting plate inside the slitting machine 6 rotates at high speed. During the high-speed rotation of the cutting plate, it comes into contact with the amorphous nano magnetic core material, thereby realizing the slitting operation of the amorphous nano magnetic core material. It also includes a diversion mechanism 9.

[0022] The diversion mechanism 9 includes a diversion seat 91, a rotating shaft 92, a flipping plate 93, a stop seat 94, a flipping synchronization assembly 95, and a limiting seat 96. The diversion seat 91 is disposed in a clearance groove 1 opened in the top wall of the cutting table 1. A clearance groove 2 is opened on the bottom wall of the diversion seat 91. The flipping plate 93 is rotatably connected to the interior of the clearance groove 2 via the rotating shaft 92. A flipping synchronization assembly 95 is provided between the rotating shaft 92 and the diversion seat 91. Limit seats 96 are provided at both the front and rear ends of the lower side of the flipping plate 93. A stop seat 94 is provided on the bottom wall of the diversion seat 91, located to the right of the flipping plate 93. The flipping synchronization assembly 95 includes a connecting seat 951, a round seat 952, and a torsion spring 953. The connecting seat 951 is disposed in the top wall of the cutting table 1. The rotating shaft 92... The front end is rotatably connected to the rear side of the connecting seat 951 via bearing 2. The front end of the rotating shaft 92 is provided with a round seat 952. A torsion spring 953 is movably sleeved on the outer front end of the rotating shaft 92. The front end of the torsion spring 953 is fixedly connected to the connecting seat 951, and the rear end of the torsion spring 953 is fixedly connected to the round seat 952. The flipping synchronization assembly 95 also includes a flow stop seat 954, a synchronization seat 955, a rack plate 956, and a gear 957. The gear 957 is located at the rear end of the rotating shaft 92. The flow stop seat 954 is slidably connected in the clearance groove 3 opened at the bottom of the flow divider seat 91. The lower end of the flow stop seat 954 is provided with a rack plate 956 via the synchronization seat 955. The rack plate 956 is meshed with the gear 957. The upper right end of the flow divider seat 91 is provided with two longitudinally symmetrical branches. The partition plate 14 of the cloth, and the filter plate 15 are provided between the front and rear walls of the cutting table 1. The filter plate 15 is installed in conjunction with the flip plate 93. Drawer 16 and drawer 2 17 are slidably connected in the sliding groove opened in the front wall of the cutting table 1. During the cutting of amorphous nano magnetic core material, some of the cutting residue falls into the diversion seat 91 and slides down the bottom slope of the diversion seat 91 into the interior of drawer 2 17. When a certain section of the amorphous nano magnetic core material is cut, the cut amorphous nano magnetic core material falls into the interior of the diversion seat 91 and slides down the bottom slope of the diversion seat 91 to the right. When the cut amorphous nano magnetic core material slides down the bottom of the diversion seat 91 to the stop seat 94, the stop seat 94 controls the cut amorphous nano magnetic core material along the diversion seat 91. The bottom sliding mechanism provides a limit, ensuring that the cut amorphous nano-magnetic core material is positioned just above the flip plate 93. Because the weight of the cut amorphous nano-magnetic core material exerts a downward flipping force on the flip plate 93 around the axis of rotation 92, which is greater than the upward flipping force exerted by the torsion spring 953 on the flip plate 93 around the axis of rotation 92, the flip plate 93 flips downward around the axis of rotation 92. This allows the amorphous nano-magnetic core material on the flip plate 93 to pass through the second clearance groove and fall onto the inclined surface of the filter plate 15. When the flip plate 93 flips downward around the axis of rotation 92, the axis of rotation 92 drives the circular seat 952 to rotate synchronously, increasing the torque of the torsion spring 953. Simultaneously, the rear end of the axis of rotation 92 drives the gear 957 to rotate clockwise.During the forward rotation of gear 957, the meshing connection causes rack plate 956 to move vertically upward. As rack plate 956 moves upward, it drives stop seat 954 to slide upward along dovetail groove three via synchronizing seat 955, exposing the upper end of stop seat 954 above dovetail groove three. Stop seat 954 then intercepts the slag cutting material on the left side of the tilting plate 93 inside the diverter seat 91, preventing the slag cutting material inside the diverter seat 91 from passing through clearance groove two and falling onto the filter plate when the tilting plate 93 tilts down and opens. The amorphous nano-magnetic core material on plate 15 slides down its inclined surface into drawer 16. The amorphous nano-magnetic core material and its accompanying slag are separated again through the filter holes on filter plate 15, improving the cleanliness of the collected amorphous nano-magnetic core material. After the amorphous nano-magnetic core material falls and separates from the flip plate 93, the torque of the torsion spring 953 causes the rotating shaft 92 to flip the flip plate 93 upwards and reset. During the upward flipping process, the upper side of the limiting seat 96 and the diversion seat 95... The lower side of the rotating shaft 92 contacts the upper side, thus limiting the upward stroke of the rotating plate 93, so that the rotating plate 93 just closes the second clearance groove again. At the same time, the rear end of the rotating shaft 92 is connected by the meshing between the gear 957 and the rack plate 956, so that the rack plate 956 drives the stop seat 954 to slide down and reset along the third clearance groove through the synchronous seat 955. When the rotating plate 93 is rotated to a stop, the upper side of the stop seat 954 is just in the same plane as the bottom wall of the diverter seat 91. This device directly sets the diverter seat 91 below the amorphous nano-magnetic core cutting part, so that the device does not need to set a rotating feeding mechanism, reducing costs. At the same time, the diverter seat 91 contains elastic flipping elements and intercepting elements. When there are no amorphous nano-magnetic core pieces in the diverter seat 91, the slag from the amorphous nano-magnetic core cutting is collected. When there are amorphous nano-magnetic core pieces in the diverter seat 91, the amorphous nano-magnetic core pieces are collected and separated from the slag, which is convenient to use.

[0023] The working principle of the amorphous nano-magnetic core slitting device provided by this utility model is as follows: When using the device to slit amorphous nano-magnetic core raw materials, the operator first places one end of the amorphous nano-magnetic core raw material between two clamping seats 8. Then, the operator rotates the handwheel 11 to drive the bidirectional lead screw 10 to rotate. During the rotation of the bidirectional lead screw 10, the two clamping seats 8 move closer to each other along the guide rod 12 through the threaded connection, thereby slitting and fixing the amorphous nano-magnetic core raw material. The exposed part of the bidirectional lead screw 10 is wrapped by the corrugated tube 13 to prevent the debris generated during the slitting of the amorphous nano-magnetic core raw material from interfering with the transmission of the bidirectional lead screw 10. Then, the operator closes the door on the slitting cover 3. Then, the operator controls the electro-hydraulic... The telescopic end of push rod 4 is adjusted to change the lateral position of the cutting point of slitting machine 6. The operator uses microcontroller 2 to adjust the telescopic end of electro-hydraulic push rod 5 to change the vertical position of the cutting point of slitting machine 6. The operator starts slitting machine 6 via microcontroller 2. The cutting plate inside slitting machine 6 rotates at high speed, contacting the amorphous nano-magnetic core material during this high-speed rotation, thus achieving the slitting operation. During the slitting process, some shavings fall into the diverter seat 91 and slide down the bottom slope of the diverter seat 91 into the drawer 17. After a section of the amorphous nano-magnetic core material is slid, the cut amorphous nano-magnetic core material falls into the diverter seat 91 and slides down the bottom slope of the diverter seat 91 into the drawer 17. The bottom slope of the flow seat 91 slides to the right. When the cut amorphous nano-magnetic core material slides along the bottom of the flow seat 91 to the stop seat 94, the stop seat 94 limits the sliding of the cut amorphous nano-magnetic core material along the bottom of the flow seat 91, so that the cut amorphous nano-magnetic core material is just above the flip plate 93. Since the gravity of the cut amorphous nano-magnetic core material exerts a downward flipping force on the flip plate 93 around the axis of rotation 92, which is greater than the upward flipping force exerted by the torsion spring 953 on the flip plate 93 around the axis of rotation 92, the flip plate 93 flips downward around the axis of rotation 92 and opens, allowing the amorphous nano-magnetic core material on the flip plate 93 to pass through the second clearance groove and fall onto the slope of the filter plate 15. When the flip plate 93 rotates around the axis of rotation 92, the amorphous nano-magnetic core material on the flip plate 93 passes through the second clearance groove and falls onto the slope of the filter plate 15. When shaft 92 rotates downwards, it drives the round seat 952 to rotate synchronously, increasing the torque of the torsion spring 953. Simultaneously, the rear end of shaft 92 drives gear 957 to rotate forward. During this rotation, gear 957 engages, causing rack 956 to move vertically upwards. As rack 956 moves upwards, it drives stop seat 954 to slide upwards along dovetail groove three via synchronizer seat 955, exposing the upper end of stop seat 954 above dovetail groove three. Stop seat 954 then intercepts the slag cutting material on the left side of the flip plate 93 inside the diverter seat 91, preventing it from passing through clearance groove two and falling onto the filter plate 15. The amorphous nano-magnetic core material then slides down its inclined surface into drawer 16.The amorphous nano-magnetic core material and its accompanying slag are separated again through the filter holes on the filter plate 15, improving the cleanliness of the collected amorphous nano-magnetic core material. After the amorphous nano-magnetic core material falls and separates from the flip plate 93, the torque of the torsion spring 953 causes the rotating shaft 92 to drive the flip plate 93 to flip upward and reset. During the upward flipping process, the upper side of the limiting seat 96 contacts the lower side of the diverter seat 91, thereby limiting the upward stroke of the flip plate 93, so that the flip plate 93 just closes the second relief groove again. At the same time, the rear end of the rotating shaft 92 is connected by the meshing between the gear 957 and the rack plate 956, so that the rack plate 956 drives the stop seat 954 to slide down and reset along the third relief groove through the synchronizing seat 955. When the flip plate 93 comes to a stop, the upper side of the stop seat 954 is just in the same plane as the bottom wall of the diverter seat 91.

[0024] It is worth noting that the microcontroller 2 disclosed in the above embodiments can be COP8CBE9, the electro-hydraulic actuator 4 and the electro-hydraulic actuator 5 can both be DYZW integral straight micro electro-hydraulic actuators, and the slitting machine 6 can be M1Y-FF02-235. The microcontroller 2 controls the operation of the electro-hydraulic actuator 4, the electro-hydraulic actuator 5 and the slitting machine 6 using methods commonly used in the prior art.

[0025] The above description is merely an embodiment of this utility model and does not limit the patent scope of this utility model. Any equivalent structural or procedural transformations made based on the content of this utility model specification and drawings, or direct or indirect applications in other related technical fields, are similarly included within the patent protection scope of this utility model.

Claims

1. An amorphous nanomagnetic core slitting device, comprising a slitting table (1), a slitting cover (3) provided on the upper side of the slitting table (1), a slitting machine (6) installed inside the slitting cover (3), and two longitudinally symmetrically distributed clamping seats (8) installed on the upper side of the slitting table (1), characterized in that: It also includes a diversion mechanism (9); The diversion mechanism (9) includes a diversion seat (91), a rotating shaft (92), a flip plate (93), a stop seat (94), a flip synchronization component (95), and a limiting seat (96). The diversion seat (91) is located in a clearance groove (1) on the top wall of the cutting table (1). A clearance groove (2) is provided on the bottom wall of the diversion seat (91). The flip plate (93) is rotatably connected to the interior of the clearance groove (2) through the rotating shaft (92). A flip synchronization component (95) is provided between the rotating shaft (92) and the diversion seat (91). Limit seats (96) are provided at both the front and rear ends of the lower side of the flip plate (93). A stop seat (94) is provided on the bottom wall of the diversion seat (91). The stop seat (94) is located to the right of the flip plate (93).

2. The amorphous nanomagnetic core slitting device according to claim 1, characterized in that: It also includes a microcontroller (2), which is located outside the slitting table (1). The input terminal of the microcontroller (2) is electrically connected to an external power supply, and the input terminal of the slitting machine (6) is electrically connected to the output terminal of the microcontroller (2).

3. The amorphous nanomagnetic core slitting device according to claim 2, characterized in that: The right wall of the slitting cover (3) is provided with an electro-hydraulic push rod 1 (4), and the telescopic end of the electro-hydraulic push rod 1 (4) is provided with an electro-hydraulic push rod 2 (5) through a fixed seat. The telescopic end of the electro-hydraulic push rod 2 (5) is fixedly connected to the upper side of the slitting machine (6). The input ends of the electro-hydraulic push rod 1 (4) and the electro-hydraulic push rod 2 (5) are both electrically connected to the output end of the microcontroller (2).

4. The amorphous nanomagnetic core slitting device according to claim 1, characterized in that: The upper middle part of the cutting table (1) is provided with a fixed frame (7). The inside of the fixed frame (7) is rotatably connected to a double-acting screw (10) through a bearing. The front and rear ends of the double-acting screw (10) are threadedly connected to the adjacent clamping seats (8). The front end of the double-acting screw (10) is provided with a handwheel (11). Two guide rods (12) are provided between the front and rear walls of the fixed frame (7). The guide rods (12) are slidably connected to the round holes opened on the clamping seats (8). Corrugated tubes (13) are provided between the front and rear walls of the fixed frame (7) and the adjacent clamping seats (8) and between the opposite inner surfaces of the two clamping seats (8). The corrugated tubes (13) are movably sleeved on the outer end of the double-acting screw (10).

5. The amorphous nanomagnetic core slitting device according to claim 1, characterized in that: The flipping synchronization component (95) includes a connecting seat (951), a round seat (952), and a torsion spring (953). The connecting seat (951) is located on the top wall of the cutting table (1). The front end of the rotating shaft (92) is rotatably connected to the rear side of the connecting seat (951) through a bearing (2). The front end of the rotating shaft (92) is provided with a round seat (952). The outer front end of the rotating shaft (92) is movably sleeved with a torsion spring (953). The front end of the torsion spring (953) is fixedly connected to the connecting seat (951), and the rear end of the torsion spring (953) is fixedly connected to the round seat (952).

6. The amorphous nanomagnetic core slitting device according to claim 1, characterized in that: The flipping synchronization assembly (95) also includes a flow stop seat (954), a synchronization seat (955), a rack plate (956), and a gear (957). The gear (957) is located at the rear end of the rotating shaft (92). The flow stop seat (954) is slidably connected in the clearance groove three opened at the bottom of the flow divider (91). The lower end of the flow stop seat (954) is provided with a rack plate (956) through the synchronization seat (955). The rack plate (956) is meshed with the gear (957).

7. The amorphous nanomagnetic core slitting device according to claim 1, characterized in that: The upper right side of the diversion seat (91) is provided with two longitudinally symmetrically distributed partition plates (14). A filter plate (15) is provided between the front and rear walls of the cutting table (1). The filter plate (15) is installed in conjunction with the flip plate (93). Drawer 1 (16) and drawer 2 (17) are slidably connected in the groove opened on the front wall of the cutting table (1).

Images