Microcapsule repairing agent particle size screening device

Abstract

The utility model provides a microcapsule repairing agent particle size screening device, which belongs to the technical field of microcapsule repairing agent screening and comprises a first screen cylinder disc, a second screen cylinder disc is arranged on the upper surface of the first screen cylinder disc, and a third screen cylinder disc is arranged on the upper surface of the second screen cylinder disc. A vibration assembly is arranged at the bottom of the first screen mesh cylinder disc and used for providing vibration and shaking effects on parts above the first screen mesh cylinder disc, and connecting pieces are arranged on the first screen mesh cylinder disc, the second screen mesh cylinder disc and the third screen mesh cylinder disc. The connecting pieces are used for fixedly installing the first screen cylinder disc, the second screen cylinder disc and the third screen cylinder disc. According to the micro-capsule screening device, the arc-shaped flowing pieces can push micro-capsules to flow, so that the falling speed of the micro-capsules is increased, and meanwhile, the screening efficiency is improved.

Description

Technical Field

[0001] This utility model relates to the field of microcapsule repair agent sieving technology, specifically to a microcapsule repair agent particle size sieving device. Background Technology

[0002] In the existing microcapsule repair agent screening process, the microcapsule repair agent is first placed on the upper surface of the screening machine body. The vibration motor in the vibration component at the bottom of the screening machine body drives the vibration spring to vibrate, thereby causing the entire screening machine body to vibrate. Indirectly, the microcapsule repair agent gradually falls from the top screen to the bottom screen, thus completing multi-stage screening.

[0003] Although the above equipment can screen microcapsule repair agents, during the screening process, the microcapsule repair agents gradually fall into the holes of the screen due to the action of the vibration motor and vibration spring on the vibration component. If too much microcapsule repair agent is added by personnel during this process, excessive microcapsule repair agent will accumulate on the screen, making it difficult for the material to pass through the screen holes quickly. Some microcapsule repair agents will remain on the screen surface for a long time, hindering the subsequent material from falling, resulting in a prolonged screening time and a significant decrease in screening efficiency. Utility Model Content

[0004] In view of this, the present invention provides a microcapsule repair agent particle size screening device. The present invention can make the arc-shaped flow plate push the microcapsules to flow, thereby accelerating the falling speed of the microcapsules and improving the screening efficiency.

[0005] To solve the above-mentioned technical problems, this utility model provides a microcapsule repair agent particle size sieving device, including a screen cylinder disk one, a screen cylinder disk two disposed on the upper surface of the screen cylinder disk one, a screen cylinder disk three disposed on the upper surface of the screen cylinder disk two, a vibration component disposed at the bottom of the screen cylinder disk one, the vibration component being used to provide vibration and shaking effect to the screen cylinder disk one, and connecting parts disposed on the screen cylinder disk one, screen cylinder disk two, and screen cylinder disk three, the connecting parts being used to fix and install the screen cylinder disk one, screen cylinder disk two, and screen cylinder disk three, and a flow component disposed on the screen cylinder disk one, screen cylinder disk two, and screen cylinder disk three, the flow component further including arc-shaped flow plates disposed on the upper surfaces of the screen cylinder disk one, screen cylinder disk two, and screen cylinder disk three; that is, firstly, the vibration component is activated, causing the screen cylinder disk one and related components to vibrate. The vibration provides the power for the subsequent screening process. Personnel add the microcapsules to be screened through screen cylinder disc three. Under the action of vibration, particles smaller than the aperture of screen cylinder disc three pass through the screen and enter screen cylinder disc two. In screen cylinder disc two, microcapsules smaller than the aperture of this disc continue to pass through the screen and enter screen cylinder disc one. Finally, the smallest microcapsule particles fall into screen cylinder disc one, completing the three-stage screening. The microcapsules on screen cylinder disc three, screen cylinder disc two, and screen cylinder disc one fall slowly when relying solely on the vibration component. To improve screening efficiency, a flow component is activated. The flow component drives an arc-shaped flow plate to rotate on screen cylinder disc three, screen cylinder disc two, and screen cylinder disc one. The rotation of the arc-shaped flow plate propels the microcapsules, thereby accelerating the fall speed of the microcapsules and improving the overall screening efficiency.

[0006] The flow assembly also includes a rotating column 1 disposed on the upper surface of the screen cylinder disk 1, with a limiting block 1 at the top of the rotating column. A rotating column 2 is disposed on the screen cylinder disk 2, with a limiting groove 1 at the bottom of the rotating column 2, and the limiting block 1 located in the limiting groove 1. A limiting block 2 is disposed at the top of the rotating column 2. A rotating column 3 is disposed on the screen cylinder disk 3, with a limiting groove 2 at the bottom of the rotating column 3, and the limiting block 2 located in the limiting groove 2. This allows the rotating column 1 to drive the rotating columns 2 and 3 to rotate, indirectly providing a transmission function for the rotating columns 2 and 3.

[0007] The flow assembly also includes arc-shaped flow vanes that are disposed on both sides of rotating column one, rotating column two, and rotating column three; that is, rotating column one, rotating column two, and rotating column three can drive the arc-shaped flow vanes to rotate.

[0008] The flow assembly also includes a motor located at the bottom of the screen cylinder, with the motor's output shaft connected to the rotating column; that is, the motor provides drive for the rotating column.

[0009] The connector also includes support blocks 1 on the upper and lower sides of the screen cylinder disc 2. Support blocks 2 are provided on both sides of the upper surface of the screen cylinder disc 1. Support blocks 1 and support blocks 2 are connected vertically by bolts. Support blocks 3 are provided at the bottom of the screen cylinder disc 3. Support blocks 3 are connected vertically by bolts to support blocks 1. This facilitates the disassembly or replacement of the screen cylinder disc 2 and the screen cylinder disc 3.

[0010] The vibration assembly also includes a support ring 1 set on the bottom of the screen cylinder disk 1, a support ring 2 set at the bottom of the support ring 1, and multiple springs set between the support ring 1 and the support ring 2; that is, the springs provide support for the components above the screen cylinder disk 1.

[0011] The vibration assembly also includes two guide sleeves disposed on the bottom of the first support ring and two guide posts disposed on the upper surface of the second support ring, with the two guide posts located inside the two guide sleeves; thereby assisting the spring in swaying.

[0012] The vibration assembly also includes a vibration motor disposed on the outer arc surface of the screen cylinder disk; that is, the vibration motor provides vibration for the screen cylinder disk and above.

[0013] Screen cylinder disc one, screen cylinder disc two, and screen cylinder disc three are all equipped with discharge channels; that is, discharge channels are used to discharge microcapsules.

[0014] In summary, compared with the prior art, this application includes at least one of the following beneficial technical effects:

[0015] 1. First, the operation of the motor drives the rotating column one, rotating column two, and rotating column three to rotate, which indirectly drives the arc-shaped flow plate on the screen cylinder plate one, screen cylinder plate two, and screen cylinder plate three, thereby increasing the flow speed of the microcapsules and accelerating the screening efficiency.

[0016] 2. First, the limiting groove 1 on the rotating column 2 on the screen cylinder disk 2 is inserted into the limiting block 1 on the top of the rotating column 1 on the screen cylinder disk 2. Then, the limiting groove 2 on the rotating column 3 on the screen cylinder disk 3 is inserted into the limiting block 2 on the rotating column 2, so that the rotating column 1 provides transmission for the rotating column 2 and the rotating column 3. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the structure of a microcapsule repair agent particle size sieving device according to the present invention;

[0018] Figure 2 This is a structural schematic diagram of a cross-sectional view of a microcapsule repair agent particle size sieving device according to the present invention;

[0019] Explanation of reference numerals in the attached figures:

[0020] 100. Screen cylinder disc three; 101. Screen cylinder disc two; 102. Screen cylinder disc one; 103. Vibrating motor; 104. Guide sleeve; 105. Guide column; 106. Spring; 107. Support ring two; 108. Support ring one; 109. Discharge channel;

[0021] 200. Rotating column three; 201. Arc-shaped flow plate; 202. Rotating column one; 203. Limiting block one; 204. Limiting groove one; 205. Rotating column two; 206. Limiting block two; 207. Limiting groove two; 208. Motor;

[0022] 300. Support block two; 301. Support block one; 302. Support block three; Detailed Implementation

[0023] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the following will be described in conjunction with the accompanying drawings of the embodiments of this utility model. Figure 1-2 The technical solutions of the embodiments of this utility model are clearly and completely described herein. Obviously, the described embodiments are only some, not all, of the embodiments of this utility model. All other embodiments obtained by those skilled in the art based on the described embodiments of this utility model are within the protection scope of this utility model.

[0024] like Figure 1-2As shown: This embodiment provides a microcapsule repair agent particle size sieving device, including a screen cylinder disk one 102, a screen cylinder disk two 101 disposed on the upper surface of the screen cylinder disk one 102, and a screen cylinder disk three 100 disposed on the upper surface of the screen cylinder disk two 101. The screen apertures on the screen cylinder disk one 102, screen cylinder disk two 101, and screen cylinder disk three 100 gradually increase from bottom to top, forming a three-level grading channel. A vibrating device is disposed at the bottom of the screen cylinder disk one 102. The vibration assembly is used to provide vibration to the screen cylinder disk 102. Connectors are provided on the screen cylinder disk 102, screen cylinder disk 201, and screen cylinder disk 300 to fix them in place. This allows microcapsules to be added from the screen cylinder disk 300, thereby activating the vibration assembly and causing it to vibrate the screen cylinder disk 102 and its surrounding components. The components provide a vibrating and shaking effect, thereby causing the microcapsules to fall from the third screen cylinder 100 onto the second screen cylinder 101, and then continue to be screened, causing the microcapsules to continue falling from the second screen cylinder 101 onto the first screen cylinder 102, thus completing the multi-stage screening process of microcapsules. Flow components are provided on the first screen cylinder 102, the second screen cylinder 101, and the third screen cylinder 100. The flow components also include components uniformly arranged on the first screen cylinder 102, the second screen cylinder 101, and the third screen cylinder 100. The arc-shaped flow plates 201 on the upper surface of the screen cylinder disk 2 101 and the screen cylinder disk 3 100 rotate, thereby pushing the microcapsules on the screen cylinder disk 1 102, the screen cylinder disk 2 101 and the screen cylinder disk 3 100, indirectly increasing the fluidity of the microcapsules, thereby accelerating the falling speed of the microcapsules and improving the screening efficiency.

[0025] First, the vibration assembly is started, causing the components above screen cylinder disc 102 to vibrate. Then, microcapsules are added from screen cylinder disc 300. Microcapsules with a particle size smaller than the aperture of screen cylinder disc 300 pass through the screen and enter screen cylinder disc 201, thus making the microcapsules smaller than the aperture of screen cylinder disc 201. Finally, the smallest particles fall into disc 1, completing the three-stage sieving. Then, the screen cylinder disc 300, screen cylinder disc 201, and screen cylinder disc 102... The microcapsules on the first screen 102 are caused to fall slowly onto the third screen 100, the second screen 101, and the first screen 102 via a vibration component. Then, by activating the flow component, the arc-shaped flow plate 201 rotates on the third screen 100, the second screen 101, and the first screen 102, thereby pushing the microcapsules to flow, which accelerates the falling speed of the microcapsules and improves the screening efficiency.

[0026] Screen cylinder disc 102 Figure 2 As shown,

[0027] The flow assembly also includes a rotating column 202 disposed on the upper surface of the screen cylinder disk 102. The rotating column 202 is mounted on the screen cylinder disk 102 via bearings. A limiting block 203 is disposed at the top of the rotating column 202. A rotating column 205 is disposed on the screen cylinder disk 101. A limiting groove 204 is disposed at the bottom of the rotating column 205. The limiting block 203 is located in the limiting groove 204. A limiting block 206 is disposed at the top of the rotating column 205. A rotating column 200 is disposed on the screen cylinder disk 100. A limiting groove 207 is disposed at the bottom of the rotating column 200. The limiting block 206 is located in the limiting groove 207. The rotating column 202 and the rotating column 205 are fixed to the rotating column 202 and the rotating column 205 respectively by welding.

[0028] The flow assembly also includes arc-shaped flow plates 201 that are disposed on both sides of the rotating column 1 202, rotating column 205 and rotating column 3 200. The arc-shaped flow plates 201 are fixed to the rotating column 1 202, rotating column 205 and rotating column 3 200 by welding.

[0029] The flow assembly also includes a motor 208 disposed at the bottom of the screen cylinder disk 102, and the output shaft of the motor 208 is connected to the rotating column 202;

[0030] The limiting groove 204 on the rotating column 205 on the screen cylinder disk 2 101 is placed on the screen cylinder disk 1 102, so that the limiting block 203 enters the limiting groove 204. Then, the screen cylinder disk 3 100 is placed on the screen cylinder disk 2 101, so that the limiting groove 207 enters the limiting block 206. This makes it easy for the rotating column 202 to drive the rotating column 205 and the rotating column 3 200 to rotate, which can indirectly drive the arc-shaped flow plate 201 to rotate.

[0031] Screen cylinder disc 2101 Figure 1 As shown,

[0032] The connector also includes support blocks 301 on the upper and lower sides of the screen cylinder disc 101, support blocks 300 on both sides of the upper surface of the screen cylinder disc 102, support blocks 301 and support blocks 300 are connected vertically by bolts, and support blocks 302 are provided at the bottom of the screen cylinder disc 100, support blocks 302 are connected vertically by bolts to support blocks 301, thereby facilitating personnel to disassemble or replace the screen cylinder disc 101 and the screen cylinder disc 100;

[0033] Screen cylinder disc 102 Figure 1 As shown,

[0034] The vibration assembly also includes a support ring 108 set on the bottom of the screen cylinder disk 102. The support ring 108 is fixedly installed on the screen cylinder disk 102 by welding. A support ring 2 107 is set at the bottom of the support ring 108. Multiple springs 106 are set between the support ring 108 and the support ring 2 107, and the multiple springs 106 provide elastic support for the support ring.

[0035] Support ring 108 Figure 1 As shown,

[0036] The vibration assembly also includes two guide posts 105 disposed on the bottom of the first support ring 108. The two guide posts 105 are fixedly installed on the first support ring 108 by welding. Two guide sleeves 104 are disposed on the upper surface of the second support ring 107. The two guide sleeves 104 are fixedly installed on the second support ring 107 by welding. The two guide posts 105 are located inside the two guide sleeves 104, thereby providing guidance for the spring 106, so that the spring 106 can extend or contract vertically.

[0037] The vibration assembly also includes a vibration motor 103 disposed on the outer arc surface of the screen cylinder disk 102. The vibration motor 103 is installed on the screen cylinder disk 102, thereby providing vibration to the screen cylinder disk 102.

[0038] The screen cylinder disc 102, screen cylinder disc 201 and screen cylinder disc 300 are all provided with discharge channels 109, which are used to discharge the microcapsules on the screen cylinder disc 102, screen cylinder disc 201 and screen cylinder disc 300.

[0039] Furthermore, it should be noted that, in the description of this utility model, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "joining" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection of two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model according to the specific circumstances.

[0040] The above description is the preferred embodiment of this utility model. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the principle of this utility model, and these improvements and modifications should also be considered within the protection scope of this utility model.

Claims

1. A microcapsule repair agent particle size sieving device, comprising a first screen cylinder disk (102), a second screen cylinder disk (101) disposed on the upper surface of the first screen cylinder disk (102), and a third screen cylinder disk (100) disposed on the upper surface of the second screen cylinder disk (101), characterized in that: A vibration component is provided at the bottom of the first screen cylinder disk (102), which is used to provide vibration and shaking to the first screen cylinder disk (102). Connectors are provided on the first screen cylinder disk (102), the second screen cylinder disk (101), and the third screen cylinder disk (100), which are used to fix the first screen cylinder disk (102), the second screen cylinder disk (101), and the third screen cylinder disk (100). A flow component is provided on the first screen cylinder disk (102), the second screen cylinder disk (101), and the third screen cylinder disk (100), and the flow component also includes arc-shaped flow plates (201) that are all provided on the upper surface of the first screen cylinder disk (102), the second screen cylinder disk (101), and the third screen cylinder disk (100).

2. The microcapsule repair agent particle size sieving device as described in claim 1, characterized in that: The flow assembly also includes a rotating column 1 (202) disposed on the upper surface of the screen cylinder disk 1 (102), a limiting block 1 (203) disposed at the top of the rotating column, a rotating column 2 (205) disposed on the screen cylinder disk 2 (101), a limiting groove 1 (204) disposed at the bottom of the rotating column 2 (205), the limiting block 1 (203) being located in the limiting groove 1 (204), a limiting block 2 (206) disposed at the top of the rotating column 2 (205), a rotating column 3 (200) disposed on the screen cylinder disk 3 (100), a limiting groove 2 (207) disposed at the bottom of the rotating column 3 (200), the limiting block 2 (206) being located in the limiting groove 2 (207).

3. The microcapsule repair agent particle size sieving device as described in claim 2, characterized in that: The flow assembly also includes arc-shaped flow plates (201) that are disposed on both sides of the rotating column one (202), rotating column two (205), and rotating column three (200).

4. The microcapsule repair agent particle size sieving device as described in claim 3, characterized in that: The flow assembly also includes a motor (208) disposed at the bottom of the screen cylinder disk (102), and the output shaft of the motor (208) is connected to the rotating column (202).

5. The microcapsule repair agent particle size sieving device as described in claim 1, characterized in that: The connector also includes a support block 1 (301) disposed on the upper and lower sides of the screen cylinder disk 2 (101), a support block 2 (300) disposed on both sides of the upper surface of the screen cylinder disk 1 (102), the support block 1 (301) and the support block 2 (300) are connected vertically by bolts, and a support block 3 (302) is disposed at the bottom of the screen cylinder disk 3 (100), the support block 3 (302) and the support block 1 (301) are connected vertically by bolts.

6. The microcapsule repair agent particle size sieving device as described in claim 1, characterized in that: The vibration assembly also includes a support ring 1 (108) disposed on the bottom of the screen cylinder disk 1 (102), a support ring 2 (107) disposed at the bottom of the support ring 1 (108), and a plurality of springs (106) disposed between the support ring 1 (108) and the support ring 2 (107).

7. The microcapsule repair agent particle size sieving device as described in claim 6, characterized in that: The vibration assembly also includes two guide sleeves (104) disposed on the bottom of the first support ring (108) of the vibration assembly, and two guide posts (105) disposed on the upper surface of the second support ring (107), with the two guide posts (105) located inside the two guide sleeves (104).

8. The microcapsule repair agent particle size sieving device as described in claim 1, characterized in that: The vibration assembly also includes a vibration motor (103) disposed on the outer arc surface of the screen cylinder disk (102).

9. The microcapsule repair agent particle size sieving device as described in claim 1, characterized in that: The screen cylinder disc one (102), screen cylinder disc two (101) and screen cylinder disc three (100) are all provided with discharge channels (109).

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