Magnetic core row-up structure

Abstract

The utility model belongs to the technical field of magnetic core stacking, and particularly relates to a magnetic core row-up structure which comprises a material stacking lower plate, material stacking side plates and a bearing material stacking mechanism, the material stacking lower plate is provided with a first material stacking through hole, the material stacking side plates and the bearing material stacking mechanism are arranged on the material stacking lower plate, and a material stacking channel communicated with the first material stacking through hole is formed between the two material stacking side plates. The magnetic cores are taken and placed into the stacking channel one by one through the mechanical arm and limited through the stacking side plate, automatic stacking and row forming of the magnetic cores are achieved, time and labor are saved, efficiency is higher, meanwhile, when the magnetic cores fall into the stacking channel, the magnetic cores are supported by the supporting and stacking mechanism and gradually move downwards along with falling of the magnetic cores into the stacking channel, and the next magnetic core enters the stacking channel; and collision between the magnetic cores during material stacking is reduced so as to ensure the product quality.

Description

[Technical field]

[0001] The utility model belongs to the technical field of magnetic core stacking, and in particular relates to a magnetic core row structure. [Background technology]

[0002] Printer cores play an important role in printers. They absorb toner through magnetic force, so that toner can be evenly transferred from the surface of the core to the paper to realize the development process. In the traditional process, after the cores are injection molded, they need to be manually arranged to stack the cores in rows. However, due to the magnetic force of the cores, the attraction between the cores is large during the arrangement process, which is not only labor-intensive and labor-intensive, but also inefficient. In addition, the cores are prone to unnecessary collisions during the arrangement process, so that the product quality cannot be guaranteed. [Contents of the utility model]

[0003] The utility model aims to provide a magnetic core row structure which can realize automatic magnetic core stacking, save time and labor, have higher efficiency, and can reduce collision during stacking to ensure product quality.

[0004] The utility model is realized by the following technical solutions:

[0005] A magnetic core row structure, comprising:

[0006] A stacking lower plate, on which a first stacking through hole is provided;

[0007] A stacking side plate, which is arranged on the stacking lower plate, and a stacking channel connected to the first stacking through hole is formed between the two stacking side plates;

[0008] The stacking material supporting mechanism is arranged on the stacking material lower plate and is used for supporting the magnetic core in the stacking material channel and driving the magnetic core to move downward.

[0009] In the above-mentioned magnetic core row structure, the supporting stacking mechanism comprises:

[0010] A material support mounting frame, which is arranged at one end of the stacking lower plate away from the stacking side plate;

[0011] A supporting plate is movably arranged on the supporting mounting frame and can pass through the first stacking through hole and extend into the stacking channel, and is used for supporting the magnetic core in the stacking channel;

[0012] The support drive assembly is arranged on the support mounting frame and is used to drive the support plate to move up and down.

[0013] In the magnetic core row structure as described above, a plurality of the stacking side plates are arranged to form a plurality of stacking channels, and the support plate includes a support mounting portion, and a plurality of support supporting portions arranged on the support mounting portion, and the plurality of support supporting portions respectively correspond to the plurality of stacking channels.

[0014] In the above-mentioned magnetic core row structure, the support drive assembly comprises:

[0015] A material supporting stepping motor, which is arranged on the material supporting mounting frame;

[0016] A material-supporting driving screw rod, which is arranged at the rotation output end of the material-supporting stepping motor;

[0017] A support drive plate, which is sleeved on the support drive screw rod;

[0018] A support drive guide sleeve, which is arranged on the support mounting frame;

[0019] The support driving guide rod has one end arranged on the support driving plate, and the other end movably passes through the support driving guide sleeve and is connected with the support plate.

[0020] In the magnetic core row structure as described above, the material supporting portion attracts the magnetic core.

[0021] As described above, a magnetic core row structure, an upper stacking plate is provided at one end of the stacking side plate away from the lower stacking plate, a second stacking through hole connected to the stacking channel is provided on the upper stacking plate, guide blocks are provided on both sides of the second stacking through hole, and a guide slope is provided on the side of the guide block close to the second stacking through hole.

[0022] In the magnetic core row structure as described above, the plurality of guide blocks are arranged along the length direction of the second stacking through hole.

[0023] In the above-mentioned magnetic core row structure, the stacking upper plate is provided with a pushing mechanism, and the pushing mechanism is used to push the magnetic cores stacked in a row in the stacking channel out of the stacking channel.

[0024] As described above, a magnetic core row structure, the pushing mechanism includes a pushing guide rail arranged along the length direction of the second stacking through hole, a pushing slider movably arranged on the pushing guide rail, a pushing member with one end arranged on the pushing slider and the other end extending into the stacking channel, and a pushing driving member for driving the pushing slider to move.

[0025] In the magnetic core row structure as described above, the stacking lower plate is further provided with a material guiding side plate, and a material guiding channel corresponding to the stacking channel is formed between the two material guiding side plates.

[0026] Compared with the prior art, the utility model has the following advantages:

[0027] The utility model provides a magnetic core row structure, comprising a stacking lower plate provided with a first stacking through hole, a stacking side plate and a supporting stacking mechanism arranged on the stacking lower plate, a stacking channel connected to the first stacking through hole is formed between the two stacking side plates, during production, a manipulator is used to take and place the magnetic cores one by one into the stacking channel, and the stacking side plates are used for limiting, so as to realize automatic stacking and rowing of the magnetic cores, which saves time and labor and has higher efficiency, and at the same time, when the magnetic core falls into the stacking channel, it is supported by the supporting stacking mechanism, and gradually moves downward as the magnetic core falls into the stacking channel to allow the next magnetic core to enter the stacking channel, so as to reduce the collision between the magnetic cores during stacking to ensure product quality.

Brief Description of the Drawings

[0028] In order to more clearly illustrate the technical solutions in the embodiments of the present utility model, the following briefly introduces the drawings required for describing the embodiments.

[0029] Figure 1 This is a schematic diagram of the structure of the magnetic core in a row in a specific implementation manner of the utility model;

[0030] Figure 2 This is a schematic diagram of the exploded structure of the magnetic core row structure in a specific implementation manner of the utility model;

[0031] Figure 3 It is a schematic cross-sectional view of the magnetic core row structure in a specific implementation manner of the present utility model. [Specific implementation method]

[0032] In order to make the technical problems, technical solutions and beneficial effects solved by the utility model more clear, the utility model is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described here are only used to explain the utility model and are not used to limit the utility model.

[0033] When the embodiments of the present invention mention ordinal numbers such as "first" and "second", unless they do express the meaning of order according to the context, they should be understood as being merely for distinction.

[0034] In the description of the present invention, it should be noted that, unless otherwise clearly specified and limited, the terms "installation", "connection" and "connection" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be indirectly connected through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0035] Specific embodiments, such as Figure 1-3The structure of a magnetic core in a row shown in the figure comprises: a stacking lower plate 21, on which a first stacking through hole 211 is provided; a stacking side plate 22, which is arranged on the stacking lower plate 21, and a stacking channel 221 connected to the first stacking through hole 211 is formed between the two stacking side plates 22; a supporting stacking mechanism 23, which is arranged on the stacking lower plate 21, and is used to support the magnetic cores in the stacking channel 221 and drive the magnetic cores to move downward. During production, a manipulator is used to take and place the magnetic cores one by one into the stacking channel, and the stacking side plates are used for limiting the position, so as to realize the automatic stacking of the magnetic cores in a row, which saves time and labor and is more efficient. At the same time, when the magnetic core falls into the stacking channel, it is supported by the supporting stacking mechanism, and gradually moves downward as the magnetic core falls into the stacking channel to allow the next magnetic core to enter the stacking channel, thereby reducing the collision between the magnetic cores during stacking to ensure product quality.

[0036] Specifically, the stacking support mechanism 23 includes: a support mounting frame 231, which is arranged at one end of the stacking lower plate 21 away from the stacking side plate 22; a support plate 232, which is movably arranged on the support mounting frame 231 and can pass through the first stacking through hole 211 and extend into the stacking channel 221, and is used to support the magnetic core in the stacking channel 221; a support driving component 233, which is arranged on the support mounting frame 231 and is used to drive the support plate 232 to move up and down. The support driving component 233 drives the support mounting frame 231 to move up and down, thereby driving the support plate 232 to extend into or out of the stacking channel 221, and the support plate 232 supports the magnetic core in the corresponding stacking channel 221, and the structure is reasonable and simple.

[0037] In addition, a plurality of stacking side plates 22 are arranged to form a plurality of stacking channels 221, and the support plate 232 includes a support mounting portion 2321 and a plurality of support supporting portions 2322 arranged on the support mounting portion 2321, and the plurality of support supporting portions 2322 respectively correspond to the plurality of stacking channels 221. By grasping a plurality of magnetic cores at the same time and placing them in the corresponding stacking channels 221 by a manipulator, a plurality of magnetic cores can be stacked at the same time, and the production efficiency is higher. The support drive assembly 233 can adopt a telescopic cylinder.

[0038] As an optional solution of the present application, the material support drive assembly 233 includes: a material support stepper motor 2331, which is arranged on the material support mounting frame 231; a material support drive screw rod 2332, which is arranged at the rotation output end of the material support stepper motor 2331; a material support drive plate 2333, which is sleeved on the material support drive screw rod 2332; a material support drive guide sleeve 2334, which is arranged on the material support mounting frame 231; a material support drive guide rod 2335, one end of which is arranged on the material support drive plate 2333, and the other end moves through the material support drive guide sleeve 2334 and is connected to the material support plate 232. The support driving screw rod 2332 is used to drive the support driving plate 2333 to move up and down, so that the movement is more stable. At the same time, the support stepping motor 2331 is used to drive the support plate 232 to move up and down, so that the downward movement distance of the support plate 232 can be controlled each time according to the diameter of the magnetic core, so as to avoid the collision of the magnetic core below when the magnetic core falls into the stacking channel 221, thereby ensuring product quality.

[0039] More specifically, the material support portion 2322 is made of a magnetic material that is attracted to the magnetic core, and the material support portion 2322 absorbs the magnetic core that falls into the stacking channel 221, making the stacking and discharging of the magnetic core more stable. Optionally, the material support portion 2322 is made of a metal material that is attracted to the magnetic core, or a magnetic material.

[0040] Furthermore, an upper stacking plate 24 is provided at one end of the stacking side plate 22 away from the lower stacking plate 21, and a second stacking through hole 241 connected to the stacking channel 221 is provided on the upper stacking plate 24, and guide blocks 25 are provided on the upper stacking plate 24 and on both sides of the second stacking through hole 241. A guide slope 26 is provided on the side of the guide block 25 close to the second stacking through hole 241 to facilitate the magnetic core to fall into the stacking channel 221.

[0041] Specifically, in order to further facilitate the magnetic core to fall into the stacking channel 221 , a plurality of guide blocks 25 are arranged along the length direction of the second stacking through hole 241 .

[0042] Furthermore, a pushing mechanism 27 is provided on the stacking upper plate 24, and the pushing mechanism 27 is used to push the magnetic cores stacked in a row in the stacking channel 221 out of the stacking channel 221. There are two pushing mechanisms 27, and the two pushing mechanisms 27 are relatively arranged on both sides of the stacking upper plate 24. The magnetic cores after stacking can be automatically unloaded, which is more efficient.

[0043] Specifically, the pushing mechanism 27 includes a pushing guide rail 271 arranged along the length direction of the second stacking through hole 241, a pushing slider 272 movably arranged on the pushing guide rail 271, a pushing member 273 with one end arranged on the pushing slider 272 and the other end extending into the stacking channel 221, and a pushing driving member 274 for driving the pushing slider 272 to move. Optionally, the pushing driving member 274 is a telescopic cylinder.

[0044] More specifically, a material guiding side plate 28 is further provided on the stacking lower plate 21, and a material guiding channel 281 corresponding to the stacking channel 221 is formed between the two material guiding side plates 28, so as to facilitate the discharge of the magnetic core after stacking.

[0045] The above is an implementation method provided in combination with specific content, and it is not considered that the specific implementation of the utility model is limited to these descriptions. At the same time, due to different industry names, it is not limited to the above names, nor is it limited to English names. Any method, structure, etc. similar to or identical to the method, structure, etc. of the utility model, or a number of technical deductions or replacements made on the premise of the concept of the utility model, shall be regarded as the protection scope of the utility model.

Claims

1. A magnetic core row structure, characterized in that: include: A stacking lower plate (21) having a first stacking through hole (211) disposed thereon; A stacking side plate (22) is arranged on the stacking lower plate (21), and a stacking channel (221) connected to the first stacking through hole (211) is formed between the two stacking side plates (22); The stacking material supporting mechanism (23) is arranged on the stacking material lower plate (21) and is used for supporting the magnetic core in the stacking material channel (221) and driving the magnetic core to move downward.

2. A magnetic core row structure according to claim 1, characterized in that: The supporting and stacking material mechanism (23) comprises: A material support mounting frame (231) is arranged at one end of the stacking lower plate (21) away from the stacking side plate (22); A material supporting plate (232) is movably disposed on the material supporting mounting frame (231) and is capable of passing through the first material stacking through hole (211) and extending into the material stacking channel (221), and is used for supporting the magnetic core in the material stacking channel (221); The material support driving assembly (233) is arranged on the material support mounting frame (231) and is used to drive the material support plate (232) to move upward and downward.

3. A magnetic core row structure according to claim 2, characterized in that: A plurality of the stacking side plates (22) are arranged in an array to form a plurality of stacking channels (221); the supporting plate (232) comprises a supporting mounting portion (2321) and a plurality of supporting portions (2322) arranged on the supporting mounting portion (2321); the plurality of supporting portions (2322) respectively correspond to the plurality of stacking channels (221).

4. The magnetic core row structure according to claim 2, characterized in that: The support drive assembly (233) comprises: A material supporting stepping motor (2331), which is arranged on the material supporting mounting frame (231); A material-supporting driving screw rod (2332) is arranged at the rotation output end of the material-supporting stepping motor (2331); A support driving plate (2333) sleeved on the support driving screw rod (2332); A support driving guide sleeve (2334) is arranged on the support mounting frame (231); A support driving guide rod (2335) has one end disposed on the support driving plate (2333) and the other end movably passes through the support driving guide sleeve (2334) and is connected to the support plate (232).

5. The magnetic core row structure according to claim 3, characterized in that: The material supporting portion (2322) is attracted to the magnetic core.

6. The magnetic core row structure according to claim 1, characterized in that: An upper stacking plate (24) is provided at one end of the stacking side plate (22) away from the lower stacking plate (21); a second stacking through hole (241) connected to the stacking channel (221) is provided on the upper stacking plate (24); guide blocks (25) are provided on the upper stacking plate (24) and located on both sides of the second stacking through hole (241); a guide inclined surface (26) is provided on one side of the guide block (25) close to the second stacking through hole (241).

7. The magnetic core row structure according to claim 6, characterized in that: The plurality of guide blocks (25) are arranged along the length direction of the second stacking through hole (241).

8. The magnetic core row structure according to claim 6, characterized in that: A material pushing mechanism (27) is provided on the stacking upper plate (24), and the material pushing mechanism (27) is used to push the magnetic cores stacked in a row in the stacking channel (221) out of the stacking channel (221).

9. The magnetic core row structure according to claim 8, characterized in that: The pushing mechanism (27) comprises a pushing guide rail (271) arranged along the length direction of the second stacking through hole (241), a pushing slider (272) movably arranged on the pushing guide rail (271), a pushing member (273) with one end arranged on the pushing slider (272) and the other end extending into the stacking channel (221), and a pushing driving member (274) for driving the pushing slider (272) to move.

10. The magnetic core row structure according to claim 1, characterized in that: A material guiding side plate (28) is also provided on the material stacking lower plate (21), and a material guiding channel (281) corresponding to the material stacking channel (221) is formed between the two material guiding side plates (28).

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