Magnet string separation mechanism

Abstract

The utility model relates to magnet string separation technical field especially relates to a magnet string separation mechanism, including base, push assembly, cutting slide, cutting power mechanism, two loading assemblies, the push assembly includes push slide, push rod, push power mechanism, and two loading assemblies include material distribution seat, loading rod group respectively, and the material distribution seat is formed with the material distribution slide, and the loading rod group is equipped with the material discharge channel, the blanking, and the material discharge channel is linked with the material distribution slide through the blanking and communicates, and the material discharge channel and the material distribution channel are perpendicularly located between the material distribution channel, the utility model can replace manual mode to automatically separate each magnet in magnet string, not only can greatly reduce the workload of operator, improve efficiency, and there is no hand to be pinched and so on, can be well applied to each magnet separation in large quantities magnet string, can better realize efficient, continuously to magnet string separation.

Description

Technical fields:

[0001] This utility model relates to the field of magnet string separation technology, and in particular to a magnet string separation mechanism. Background technology:

[0002] Currently, magnets are widely used in industries such as machinery and electrical appliances. Magnets are generally supplied in the form of magnet strings. Before use, operators need to separate the end magnets from the other magnets in the string, making each magnet an independent unit for use. In existing technology, most magnets are still separated manually. However, manual separation is not only labor-intensive and inefficient, but also prone to hand injuries. Therefore, there is an urgent need for a magnet string separation mechanism that can automatically separate the magnets in a string, replacing manual separation. Utility Model Content:

[0003] The purpose of this invention is to provide a magnet string separation mechanism that addresses the shortcomings of existing technologies. This mechanism can automatically separate individual magnets in a magnet string, replacing manual methods. It can not only greatly reduce the workload of operators and improve efficiency, but also eliminate the risk of hand injuries. It is well-suited for separating individual magnets in a large number of magnet strings.

[0004] To achieve the above objectives, the technical solution adopted by this utility model is as follows: a magnet string separation mechanism, comprising a base, a push assembly, a cutting slide slidably connected to the base along the X-axis, a cutting power mechanism for driving the cutting slide to slide, and two loading assemblies arranged side by side on the cutting slide along the X-axis. The push assembly includes a push slide slidably connected to the base along the Y-axis, a push rod disposed on the push slide, and a push force mechanism for driving the push slide to slide. The two loading assemblies respectively include a material distribution seat disposed on the cutting slide and a loading rod assembly disposed on the material distribution seat. The material distribution seat is formed with a material distribution channel for the push rod to pass through. The loading rod assembly is provided with a discharge channel for placing the magnet string to be separated and a discharge port located at the bottom of the discharge channel. The discharge channel is connected to the material distribution channel through the discharge port. The discharge channel and the material distribution channel are arranged perpendicularly to each other.

[0005] A further improvement to the above scheme is that there are multiple push rods, each push rod is arranged side by side at equal intervals along the X-axis on the push slide, the material distribution seats of the two loading components are respectively formed with multiple material distribution channels that are the same number and corresponding in position as the push rods, and the two loading components are respectively provided with multiple loading rod groups that are the same number and corresponding in position as the push rods.

[0006] A further improvement to the above scheme is that each of the loading rod groups includes at least three loading limiting rods, and the loading limiting rods in the same loading rod group form a feeding channel.

[0007] A further improvement to the above solution is that a soft rubber cap is provided on the top of the loading limit rod.

[0008] A further improvement to the above solution is that the soft cap has a hemispherical structure.

[0009] A further improvement to the above scheme is that the push assembly also includes a backing seat disposed on the side of the material distribution seat away from the push rod.

[0010] A further improvement to the above scheme is that the push rod is formed with a V-shaped push part, and the abutment seat is formed with a V-shaped abutment part.

[0011] A further improvement to the above scheme is that the thickness T of the magnet and the height H of the material distribution channel satisfy the following condition: T≤H<2T.

[0012] A further improvement to the above solution is that the cutting power mechanism is mounted on the base, and the output end of the cutting power mechanism is connected to the cutting slide. The pushing force mechanism is mounted on the base, and the output end of the pushing force mechanism is connected to the pushing slide.

[0013] The beneficial effects of this utility model are as follows: The magnet string separation mechanism provided by this utility model includes a base, a push assembly, a cutting slide connected to the base along the X-axis, a cutting power mechanism for driving the cutting slide to slide, and two loading assemblies arranged side by side on the cutting slide along the X-axis. The push assembly includes a push slide connected to the base along the Y-axis, a push rod arranged on the push slide, and a push force mechanism for driving the push slide to slide. The two loading assemblies respectively include a material distribution seat arranged on the cutting slide and a loading rod assembly arranged on the material distribution seat. The material distribution seat is formed with a material distribution channel for the push rod to pass through. The loading rod assembly is provided with a material discharge channel for placing the magnet string to be separated and a material drop port located at the bottom of the material discharge channel. The material discharge channel is connected to the material distribution channel through the material drop port. The material discharge channel and the material distribution channel are arranged perpendicularly to each other.

[0014] By placing the magnet string to be separated into the feeding channel of the loading rod assembly, the magnet at the bottom of the string automatically falls downwards through the discharge port into the distributing slide below the feeding channel due to gravity. A jacking force mechanism drives the jacking slide to slide, causing the jacking rod to insert into the distributing channel. The jacking rod pushes the magnet located in the distributing channel, separating the bottom magnet from the rest of the string and pushing it out of the distributing channel, thus completing the separation of one magnet. This process is repeated to separate all the magnets in the string. This invention can replace manual labor. This method automatically separates individual magnets from a string of magnets, significantly reducing operator workload and improving efficiency. It also eliminates the risk of hand injuries and is well-suited for separating magnets from large quantities of strings. Furthermore, the invention includes two loading assemblies. A cutting power mechanism drives a cutting slide to switch between the two loading assemblies, allowing for simultaneous magnet separation in one assembly and replenishment of magnets in the other. This enables more efficient and continuous separation of magnet strings. Attached image description:

[0015] Figure 1 This is a schematic diagram of the structure of this utility model.

[0016] Figure 2 This is a structural schematic diagram of the pusher assembly and the loading assembly of this utility model.

[0017] Explanation of reference numerals in the attached drawings: Base 1, Pushing assembly 2, Pushing slide 21, Pushing rod 22, V-shaped pushing part 221, Pushing force mechanism 23, Material abutment seat 24, V-shaped material abutment part 241, Cutting slide 3, Cutting power mechanism 4, Loading assembly 5, Material distribution seat 51, Material distribution slide 511, Loading rod assembly 52, Loading limit rod 521, Discharge channel 522, Discharge port 523, Soft rubber cap 524. Detailed implementation method:

[0018] The present invention will be further described below with reference to the accompanying drawings, such as... Figure 1-2As shown, this utility model includes a base 1, a pushing assembly 2, a cutting slide 3 slidably connected to the base 1 along the X-axis, a cutting power mechanism 4 for driving the cutting slide 3 to slide, and two loading assemblies 5 arranged side by side on the cutting slide 3 along the X-axis. The pushing assembly 2 includes a pushing slide 21 slidably connected to the base 1 along the Y-axis, a pushing rod 22 disposed on the pushing slide 21, and a pushing force mechanism 23 for driving the pushing slide 21 to slide. The two loading assemblies 5 each include a distributing seat 51 disposed on the cutting slide 3 and a loading rod assembly 52 disposed on the distributing seat 51. The assembly includes a material distribution slide 511 through which the push rod 22 passes. The loading rod assembly 52 has a material discharge channel 522 for holding the magnet string to be separated, and a discharge port 523 at the bottom of the material discharge channel 522. The material discharge channel 522 is connected to the material distribution slide 511 via the discharge port 523. The material discharge channel 522 and the material distribution channel are perpendicular to each other. A cutting power mechanism 4 is mounted on the base 1, and its output is connected to a cutting slide 3. A push force mechanism 23 is mounted on the base 1, and its output is connected to a push slide 21. The magnet string to be separated is placed in the loading rod assembly 52... In the feeding channel 522, the magnet at the bottom of the magnet string automatically falls downwards through the discharge port 523 due to gravity and enters the distribution slide 511 below the feeding channel 522. The pushing force mechanism 23 drives the pushing slide 21 to slide, causing the pushing rod 22 to penetrate the distribution channel. The pushing rod 22 pushes the magnet located in the distribution channel, separating the bottom magnet from the rest of the magnet string and pushing it out of the distribution channel, thus completing the separation of one magnet. This process is repeated to separate all the magnets in the magnet string. This invention can replace manual labor. This method automatically separates individual magnets from a magnet string, significantly reducing operator workload and improving efficiency. It also eliminates the risk of hand injuries and is well-suited for separating individual magnets from large quantities of magnet strings. Furthermore, the invention includes two loading assemblies 5. A cutting power mechanism 4 drives a cutting slide 3 to slide, allowing the two loading assemblies 5 to switch back and forth. This enables simultaneous magnet separation in one loading assembly 5 and replenishment of magnet strings in the other, thus achieving more efficient and continuous magnet string separation.

[0019] There are multiple push rods 22, and each push rod 22 is arranged side by side at equal intervals along the X-axis on the push slide 21. The material distribution seats 51 of the two loading components 5 are respectively formed with multiple material distribution slides 511 that are the same number and corresponding in position as the push rods 22. The two loading components 5 are respectively provided with multiple loading rod groups 52 that are the same number and corresponding in position as the push rods 22. In this embodiment, there are four push rods 22, which can separate four magnet strings at the same time, which can greatly improve the efficiency of magnet string separation.

[0020] Each of the aforementioned loading rod groups 52 includes at least three loading limiting rods 521. The loading limiting rods 521 located in the same loading rod group 52 form a feeding channel 522, which can not only effectively limit the placement of the magnet strings to be separated, but also make the overall structure lighter.

[0021] The top of the loading limit rod 521 is provided with a soft rubber cap 524. The soft rubber cap 524 can prevent the top of the loading limit rod 521 from scratching the magnet string or hands, making it more practical.

[0022] The soft cap 524 has a hemispherical structure, which not only further prevents scratches, but also makes it easier to align the magnet string and place it in the feeding channel 522.

[0023] The push assembly 2 also includes a backing seat 24 disposed on the side of the material distribution seat 51 away from the push rod 22. By setting the backing seat 24, the magnets that have been pushed out of the material distribution channel by the push rod 22 and separated can be arranged more orderly, making it easier to automatically pick up and put away the separated magnets by a robot or the like.

[0024] The push rod 22 is formed with a V-shaped push part 221, and the abutment 24 is formed with a V-shaped abutment part 241, which can be better suited for the separation and positioning of circular magnets.

[0025] The thickness T of the magnet and the height H of the material distribution channel satisfy the following condition: T≤H<2T, which can better ensure that only one magnet is pushed and separated at a time, thus ensuring the stability of magnet separation.

[0026] Working principle:

[0027] By placing the magnet string to be separated into the feeding channel 522 of the loading rod assembly 52, the magnet at the bottom of the magnet string automatically falls downwards through the drop port 523 due to gravity and into the distributing slide 511 below the feeding channel 522. The pushing force mechanism 23 drives the pushing slide 21 to slide and causes the pushing rod 22 to pass through the distributing channel. The pushing rod 22 pushes the magnet located in the distributing channel, separating the magnet at the bottom of the magnet string from the rest of the magnet string and pushing it out of the distributing channel by the pushing rod 22, thus completing the separation of one magnet. This process is repeated to separate each magnet in the magnet string. The separation of magnets: The cutting slide 3 is driven by the cutting power mechanism 4 to move the two loading components 5 back and forth, which can separate the magnets in one loading component 5 while loading and replenishing the magnets in the other loading component 5. This utility model can automatically separate the individual magnets in the magnet string, which can not only greatly reduce the workload of the operator and improve efficiency, but also eliminate the risk of hand injury. It is well applicable to the separation of individual magnets in a large number of magnet strings, and can better achieve efficient and continuous separation of magnet strings.

[0028] Of course, the above description is only a preferred embodiment of the present utility model. Therefore, all equivalent changes or modifications made to the structure, features and principles described in the claims of the present utility model patent application are included in the scope of the present utility model patent application.

Claims

1. A magnet string separation mechanism, characterized by: The system includes a base (1), a push assembly (2), a cutting slide (3) slidably connected to the base (1) along the X-axis, a cutting power mechanism (4) for driving the cutting slide (3) to slide, and two loading assemblies (5) arranged side by side on the cutting slide (3) along the X-axis. The push assembly (2) includes a push slide (21) slidably connected to the base (1) along the Y-axis, a push rod (22) arranged on the push slide (21), a push force mechanism (23) for driving the push slide (21) to slide, and two loading assemblies (5). 5) Each includes a material distribution seat (51) set on the cutting slide (3) and a loading rod assembly (52) set on the material distribution seat (51). The material distribution seat (51) is formed with a material distribution slide (511) through which the push rod (22) passes. The loading rod assembly (52) is provided with a material discharge channel (522) for disposing of the magnet string to be separated and a material drop port (523) located at the bottom of the material discharge channel (522). The material discharge channel (522) is connected to the material distribution slide (511) through the material drop port (523). The material discharge channel (522) and the material distribution channel are arranged perpendicularly to each other.

2. A magnet string separation mechanism according to claim 1, wherein: There are multiple push rods (22), and each push rod (22) is arranged side by side at equal intervals along the X-axis on the push slide (21). The material distribution seats (51) of the two loading assemblies (5) are respectively formed with multiple material distribution slides (511) that are the same number and corresponding in position as the push rods (22). The two loading assemblies (5) are respectively provided with multiple loading rod groups (52) that are the same number and corresponding in position as the push rods (22).

3. A magnet string separation mechanism according to claim 2, wherein: Each of the aforementioned loading rod groups (52) includes at least three loading limiting rods (521), and the loading limiting rods (521) located in the same loading rod group (52) surround each other to form a material discharge channel (522).

4. A magnet string separation mechanism according to claim 3, wherein: The top of the loading limit rod (521) is provided with a soft rubber cap (524).

5. A magnet string separation mechanism according to claim 4, wherein: The soft rubber cap (524) has a hemispherical structure.

6. The magnet string separation mechanism of claim 1, wherein: The push assembly (2) also includes a stop seat (24) disposed on the side of the material distribution seat (51) away from the push rod (22).

7. A magnet string separation mechanism according to claim 6, wherein: The push rod (22) is formed with a V-shaped push part (221), and the abutment seat (24) is formed with a V-shaped abutment part (241).

8. The magnet string separation mechanism of claim 1, wherein: The thickness T of the magnet and the height H of the material distribution channel satisfy the following condition: T≤H<2T.

9. The magnet string separation mechanism of claim 1, wherein: The cutting power mechanism (4) is mounted on the base (1), and the output end of the cutting power mechanism (4) is connected to the cutting slide (3). The top pushing force mechanism (23) is mounted on the base (1), and the output end of the top pushing force mechanism (23) is connected to the top pushing slide (21).

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