Conveying device for iron-silicon-aluminum magnetic core machining

Abstract

The utility model discloses a conveying device for iron-silicon-aluminum magnetic core machining, and relates to the technical field of conveying devices.The conveying device comprises a rack and a conveying belt, the conveying belt is arranged in the rack, a cam part is rotationally arranged in the rack, sliding grooves are formed in the two side walls of the inner side of the rack, and magnetic suction plates are movably arranged in the sliding grooves; and a toothed plate is fixedly arranged at the end, stretching into the sliding groove, of the magnetic attraction plate, gear nuts are rotationally connected to the two side walls of the rack in an inserted mode, the toothed plate is meshed with the gear nuts, correcting pieces are inserted into the gear nuts in a threaded mode, and a sweeping piece is rotationally arranged on the inner side of the rack. When the cam part rotates, the magnetic attraction plate is pushed to move upwards and attracts the magnetic core to adjust the position of the magnetic core, the toothed plate is driven to move synchronously along with upward movement of the magnetic attraction plate to drive the gear nut to rotate, the correction part is promoted to move to correct the position of the magnetic core again, and therefore the magnetic core can be accurately conveyed into machining equipment to be machined.

Description

Technical Field

[0001] The present application relates to the technical field of conveying devices, and in particular to a conveying device for processing iron-silicon-aluminum magnetic cores. Background Art

[0002] Iron-silicon-aluminum magnetic cores are one of the magnetic rings with a relatively high usage rate. Briefly speaking, iron-silicon-aluminum is composed of aluminum-silicon-iron. Its magnetic core loss is much lower than that of iron powder cores and high-flux magnetic cores. It has low magnetostriction (low noise), is a low-cost energy storage material, has no thermal aging, can be used to replace iron powder cores, and has very stable performance at high temperatures. When the existing iron-silicon-aluminum magnetic cores are processed, it is necessary to convey the iron-silicon-aluminum magnetic cores into the processing equipment.

[0003] Some of the existing magnetic cores are directly conveyed by a conveyor belt. However, when the magnetic core falls on the conveyor belt, its position is difficult to maintain once. Therefore, it is difficult for the conveyor belt to accurately convey the magnetic core into the processing equipment for precise processing. Summary of the Utility Model

[0004] In order to improve the problem that some of the above-mentioned magnetic cores are directly conveyed by a conveyor belt. However, when the magnetic core falls on the conveyor belt, its position is difficult to maintain once. Therefore, it is difficult for the conveyor belt to accurately convey the magnetic core into the processing equipment for precise processing, the present application provides a conveying device for processing iron-silicon-aluminum magnetic cores.

[0005] The present application provides a conveying device for processing iron-silicon-aluminum magnetic cores, adopting the following technical solutions:

[0006] A conveying device for processing iron-silicon-aluminum magnetic cores includes a frame and a conveyor belt. The conveyor belt is arranged inside the frame. A cam member is rotatably arranged inside the frame. Sliding grooves are opened on both side walls inside the frame. A magnetic attraction plate is movably arranged in the sliding grooves. One end of the magnetic attraction plate extending into the sliding groove is fixedly provided with a toothed plate. Gear nuts are rotatably inserted into both side walls of the frame. The toothed plate meshes with the gear nuts. A correction member is threadedly inserted into the gear nuts. A cleaning member is rotatably arranged inside the frame. A driving rod is movably inserted into the cleaning member. One end of the driving rod away from the cleaning member extends out of the frame and is connected to the correction member through a connecting rod.

[0007] Through the above technical solutions, it is convenient to drive the conveyor belt to run intermittently and intermittently convey the magnetic cores through a servo motor. When the magnetic core moves above the magnetic attraction plate, the cam member is started. As the cam member rotates, the magnetic attraction plate is pushed upward. At this time, the magnetic attraction plate attracts the magnetic core and adjusts the position of the magnetic core. As the magnetic attraction plate moves upward, the toothed plate moves synchronously, thereby driving the gear nut to rotate through the toothed plate, and prompting the correction member to move to correct the position of the magnetic core again.

[0008] Optionally, in the above-mentioned conveying device for processing Sendust cores, the cam member is inside the conveyor belt, and the cam member includes a round rod and a driving motor. The round rod is rotatably arranged inside the frame along the lateral direction of the frame, and the driving motor is fixedly arranged on the outer wall of the frame. The rotating shaft of the driving motor is fixedly connected to one end of the round rod, and a cam disk is fixedly sleeved on the round rod.

[0009] Through the above technical solution, the round rod and the cam plate are driven to rotate by the driving motor. When the cam plate rotates, the protrusion of the cam plate contacts the magnetic plate to push the magnetic plate upward.

[0010] Optionally, in the above-mentioned conveying device for processing Sendust cores, the magnetic plate includes a transverse plate and a magnetic block, the two ends of the transverse plate are respectively inserted into two slide grooves and connected to the inner bottom wall of the slide groove by setting a spring, and the magnetic block is fixedly set on the top surface of the transverse plate.

[0011] Through the above technical solution, when the cam plate rotates, the protrusion of the cam plate contacts the magnetic plate to facilitate pushing the cross plate and the magnetic block upward. At this time, the magnetic core is adsorbed by the magnetic block to adjust the position of the magnetic core, and the spring is stretched and deformed as the cross plate moves up.

[0012] Optionally, in the above-mentioned conveying device for processing Sendust cores, the correction piece includes a screw rod, which is rotatably inserted into a gear nut, and the screw rod passes through the gear nut and is fixedly provided with a push plate.

[0013] Through the above technical solution, when the gear nut rotates, the screw rod is prompted to move along the axial direction of the gear nut, thereby driving the push plate to move synchronously through the screw rod.

[0014] Optionally, in the above-mentioned conveying device for processing Sendust cores, a plurality of rubber strips are fixedly provided on a side of the push plate away from the screw.

[0015] Through the above technical solution, the possibility of damage to the magnetic core caused by the push plate clamping the magnetic core can be reduced by using the rubber strip.

[0016] Optionally, in the above-mentioned conveying device for processing Sendust cores, a through hole for inserting a driving rod is opened on the inner side of the cleaning piece, a semicircular block is fixedly arranged in the through hole, and a plurality of brushes are arranged on the outer wall of the cleaning piece.

[0017] Through the above technical solution, the driving rod can be inserted into the cleaning member through the through hole, and as the driving rod is inserted into the through hole, the semicircular block drives the cleaning member to rotate.

[0018] Optionally, in the above-described conveying device for processing an iron-silicon-aluminum magnetic core, a spiral groove adapted to the semi-circular block is provided on the outer wall of the driving rod. One end of the driving rod passes through the machine frame and is inserted into the through hole, and the semi-circular block is located in the spiral groove and is slidably engaged with the inner wall of the spiral groove.

[0019] Through the above technical solution, when the driving rod is inserted into the through hole, the semi-circular block slides along the inner wall of the spiral groove, thereby causing the cleaning member to drive the brush to rotate and clean the magnetic core.

[0020] In summary, the present application includes at least one of the following beneficial effects:

[0021] When the cam member rotates, it pushes the magnetic attraction plate upward to engage with the magnetic core to adjust the position of the magnetic core, and as the magnetic attraction plate moves upward, it drives the toothed plate to move synchronously to drive the gear nut to rotate, and causes the correction member to move to correct the position of the magnetic core again. Therefore, the magnetic core can be accurately conveyed into the processing equipment for processing;

[0022] When the correction member moves, it drives the driving rod to move synchronously through the connecting rod. When the driving rod is inserted into the cleaning member, it causes the cleaning member to rotate and clean the magnetic core. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 is a three-dimensional structural schematic diagram of the present application;

[0024] Figure 2 is a partial three-dimensional structural sectional view of the present application;

[0025] Figure 3 is a partial three-dimensional unfolded structural sectional view of the present application.

[0026] In the figure: 1, machine frame; 2, conveyor belt; 3, cam member; 31, round rod; 32, drive motor; 33, cam disc; 4, chute; 5, magnetic attraction plate; 51, cross plate; 52, magnetic attraction block; 53, spring; 6, toothed plate; 7, gear nut; 8, correction member; 81, screw rod; 82, push plate; 83, rubber strip; 9, cleaning member; 91, through hole; 92, semi-circular block; 93, brush; 10, driving rod; 101, spiral groove; 11, connecting rod. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0027] The following is a further detailed description of the present application in conjunction with the attached Figures 1-3 drawings.

[0028] Please refer to the drawings in the specification Figure 1 , Figure 2 and Figure 3, An embodiment provided by the present application: A conveying device for processing an iron-silicon-aluminum magnetic core, including a frame 1 and a conveyor belt 2. The conveyor belt 2 is arranged inside the frame 1, and a servo motor is used to drive the conveyor belt 2 to intermittently operate and intermittently convey the magnetic core.

[0029] A cam member 3 is rotatably arranged inside the frame 1. Chute 4s are opened on both side walls inside the frame 1. A magnetic attraction plate 5 is movably arranged inside the chute 4. The cam member 3 is inside the conveyor belt 2. The cam member 3 includes a round rod 31 and a driving motor 32. The round rod 31 is rotatably arranged inside the frame 1 along the transverse direction of the frame 1. The driving motor 32 is fixedly arranged on the outer wall of the frame 1. The rotating shaft of the driving motor 32 is fixedly connected to one end of the round rod 31. A cam disc 33 is fixedly sleeved on the round rod 31. By means of the driving motor 32, it is convenient to drive the round rod 31 and the cam disc 33 to rotate. When the cam disc 33 rotates, the protrusion of the cam disc 33 abuts against the magnetic attraction plate 5 to facilitate pushing the magnetic attraction plate 5 upward. As the cam disc 33 continues to rotate, the protrusion of the cam disc 33 separates from the magnetic attraction plate 5. At this time, the magnetic attraction plate 5 loses the thrust and moves downward to reset.

[0030] The magnetic attraction plate 5 includes a cross plate 51 and a magnetic attraction block 52. Both ends of the cross plate 51 are respectively inserted into the two chute 4s and are connected to the inner bottom wall of the chute 4 by arranging springs 53. The magnetic attraction block 52 is fixedly arranged on the top surface of the cross plate 51. When the cam disc 33 rotates, the protrusion of the cam disc 33 abuts against the magnetic attraction plate 5 to facilitate pushing the cross plate 51 and the magnetic attraction block 52 upward. At this time, the magnetic core is adsorbed by the magnetic attraction block 52, so as to adjust the position of the magnetic core, and as the cross plate 51 moves upward, the spring 53 is stretched and deformed. As the cam disc 33 continues to rotate, the protrusion of the cam disc 33 separates from the magnetic attraction plate 5. At this time, the cross plate 51 loses the thrust and is pulled by the spring 53 to move the cross plate 51 and the magnetic attraction block 52 downward to reset, and the magnetic attraction block 52 is separated from the magnetic core.

[0031] A toothed plate 6 is fixedly arranged at one end of the magnetic attraction plate 5 extending into the chute 4. Gear nuts 7 are rotatably inserted into both side walls of the frame 1. The toothed plate 6 meshes with the gear nuts 7. A correcting member 8 is threadedly inserted into the gear nuts 7. The correcting member 8 includes a screw rod 81. The screw rod 81 is rotatably inserted into the gear nut 7. The screw rod 81 passes through the gear nut 7 and is fixedly provided with a push plate 82. When the gear nut 7 rotates, it causes the screw rod 81 to move along the axial direction of the gear nut 7, so as to drive the push plate 82 to move synchronously through the screw rod 81, and the positions of the magnetic cores are corrected by the cooperation of the two push plates 82.

[0032] A plurality of rubber strips 83 are fixedly arranged on the surface of the push plate 82 away from the screw rod 81. By means of the rubber strips 83, it is convenient to reduce the possibility of damage to the magnetic core caused by the push plate 82 clamping the magnetic core.

[0033] A cleaning member 9 is rotatably arranged inside the frame 1. A driving rod 10 is movably inserted into the cleaning member 9. A through hole 91 for inserting the driving rod 10 is formed inside the cleaning member 9. A semi-circular block 92 is fixedly arranged inside the through hole 91. A plurality of brush hairs 93 are arranged on the outer wall of the cleaning member 9. Through the through hole 91, the driving rod 10 can be inserted into the cleaning member 9. As the driving rod 10 is inserted into the through hole 91, the semi-circular block 92 drives the cleaning member 9 to rotate, and the cleaning member 9 drives the brush hairs 93 to rotate and clean the magnetic core.

[0034] One end of the driving rod 10 away from the cleaning member 9 extends out of the frame 1 and is connected to the correction member 8 through a connecting rod 11. A spiral groove 101 adapted to the semi-circular block 92 is formed on the outer wall of the driving rod 10. One end of the driving rod 10 passes through the frame 1 and is inserted into the through hole 91. The semi-circular block 92 is located inside the spiral groove 101 and is in sliding fit with the inner wall of the spiral groove 101. When the driving rod 10 is inserted into the through hole 91, the semi-circular block 92 slides along the inner wall of the spiral groove 101, so as to prompt the cleaning member 9 to drive the brush hairs 93 to rotate and clean the magnetic core.

[0035] Working principle: When using the conveying device for processing the iron-silicon-aluminum magnetic core, the servo motor facilitates driving the conveyor belt 2 to intermittently operate and intermittently convey the magnetic core. When the magnetic core moves above the magnetic attraction plate 5, the cam member 3 is started. As the cam member 3 rotates, the magnetic attraction plate 5 is pushed upward. At this time, the magnetic attraction plate 5 attracts and combines with the magnetic core and adjusts the position of the magnetic core. As the magnetic attraction plate 5 moves upward, the toothed plate 6 is driven to move synchronously, so as to drive the gear nut 7 to rotate through the toothed plate 6, and the correction member 8 is prompted to move to correct the position of the magnetic core again;

[0036] When the correction member 8 moves, the driving rod 10 is driven to move synchronously through the connecting rod 11. When the driving rod 10 is inserted into the cleaning member 9, the cleaning member 9 is prompted to rotate and clean the magnetic core.

[0037] The above are all the preferred embodiments of this application. The protection scope of this application is not limited accordingly. Therefore, all equivalent changes made according to the structure, shape, and principle of this application should be covered within the protection scope of this application.

Claims

1. A conveying device for processing an iron-silicon-aluminum magnetic core, comprising a frame (1) and a conveyor belt (2), characterized in that: The conveyor belt (2) is arranged inside the frame (1). A cam member (3) is rotatably arranged inside the frame (1). Chute grooves (4) are formed on both side walls inside the frame (1). A magnetic attraction plate (5) is movably arranged inside the chute grooves (4). A toothed plate (6) is fixedly arranged at one end of the magnetic attraction plate (5) extending into the chute groove (4). Gear nuts (7) are rotatably inserted into both side walls of the frame (1). The toothed plate (6) meshes with the gear nuts (7). A correction member (8) is threadedly inserted into the gear nuts (7). A cleaning member (9) is rotatably arranged inside the frame (1). A driving rod (10) is movably inserted into the cleaning member (9). One end of the driving rod (10) away from the cleaning member (9) extends out of the frame (1) and is connected to the correction member (8) through a connecting rod (11).

2. The conveying device for processing the iron-silicon-aluminum magnetic core according to claim 1, wherein: The cam member (3) is arranged inside the conveyor belt (2). The cam member (3) includes a round rod (31) and a driving motor (32). The round rod (31) is rotatably arranged inside the frame (1) along the transverse direction of the frame (1). The driving motor (32) is fixedly arranged on the outer wall of the frame (1). The rotating shaft of the driving motor (32) is fixedly connected to one end of the round rod (31). A cam disc (33) is fixedly sleeved on the round rod (31).

3. The conveying device for processing the iron-silicon-aluminum magnetic core according to claim 2, wherein: The magnetic attraction plate (5) includes a cross plate (51) and magnetic attraction blocks (52). Both ends of the cross plate (51) are respectively inserted into the two chute grooves (4) and are connected to the inner bottom wall of the chute grooves (4) through springs (53). The magnetic attraction blocks (52) are fixedly arranged on the top surface of the cross plate (51).

4. The conveying device for processing the Fe-Si-Al magnetic core according to claim 1, characterized in that: The correction member (8) includes a screw rod (81). The screw rod (81) is rotatably inserted into the gear nut (7). The screw rod (81) passes through the gear nut (7) and a push plate (82) is fixedly arranged thereon.

5. The conveying device for processing the iron-silicon-aluminum magnetic core according to claim 4, wherein: A plurality of rubber strips (83) are fixedly arranged on the surface of the push plate (82) away from the screw rod (81).

6. The conveying device for processing the Fe-Si-Al magnetic core according to claim 1, characterized in that: A through hole (91) for inserting the driving rod (10) is formed inside the cleaning member (9). A semi-circular block (92) is fixedly arranged inside the through hole (91). A plurality of brush hairs (93) are arranged on the outer wall of the cleaning member (9).

7. The conveying device for processing the Fe-Si-Al magnetic core according to claim 6, wherein: A spiral groove (101) adapted to the semi-circular block (92) is formed on the outer wall of the driving rod (10). One end of the driving rod (10) passes through the frame (1) and is inserted into the through hole (91). The semi-circular block (92) is located inside the spiral groove (101) and is in sliding fit with the inner wall of the spiral groove (101).

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