Particle dispersing device for particle screening

Abstract

The utility model relates to a particle dispersing device for particle screening, which comprises a first vibrating motor, a vibrating screen support frame, an upper-layer screen plate, screen holes, a special-shaped particle collecting hopper, a special-shaped particle outlet pipe, a particle inlet pipe, a particle inlet box body, a particle dispersing plate, a second vibrating motor, a lower-layer screen plate, a superfine particle outlet, a qualified material outlet and a flexible connector, the particle dispersing plate is arranged on the upper-layer sieve plate and comprises a left wing plate and a right wing plate which are symmetrical, an obtuse angle is formed at the joint of the two wing plates, the heights of the wing plates are gradually reduced from the center to the two sides to form arc-shaped edges, and the arc-shaped edges are used for gradually dispersing particles accumulated below the particle inlet box body. The particle inlet pipe box body is reasonable in structure and ingenious in design, particles are stably dispersed in the slicing and screening process, the particles are prevented from being accumulated at the particle inlet pipe box body when the particle cutting speed is high, the continuity of the particle cutting process is guaranteed, the cost is effectively reduced, and compared with the prior art, the particle inlet pipe box body has good market prospects and development space.

Description

Technical Field

[0001] This utility model relates to the technical field of particle vibration screening equipment in the chemical production of nylon chips, and specifically to a particle dispersion device for particle screening. Background Technology

[0002] In the chemical production of nylon chips, particle vibrating screens are commonly used. After the material strips are granulated by a pelletizer, they are dehydrated in a pre-dryer and then enter the upper screen plate of the vibrating screen through a pipeline into the inlet box. The particles are screened on the upper screen plate; particles that meet the size requirements fall through the upper screen holes onto the lower screen plate and enter the buffer hopper; irregularly shaped particles that do not meet the size requirements cannot enter the screen holes and enter the irregular particle collection hopper at the end of the upper screen plate. Previously granulated particles, after passing through the pre-dryer, enter the vibrating screen inlet box through a pipeline. Because the pipeline from the pre-dryer to the inlet box is circular, the particles concentrate at the bottom of the pipeline when falling onto the screen plate. At high pelletizing speeds, this can cause material buildup at the inlet box, leading to interruptions in the pelletizing process. Furthermore, not all the qualified particles that are concentrated together fall through the screen holes onto the lower screen plate; some qualified particles enter the irregular particle pipeline along with the irregular particles, increasing the total amount of irregular particles and increasing costs.

[0003] The current problem to be solved is how to design a particle dispersion device for particle screening that has a reasonable and ingenious structure, can stably disperse particles during the slicing and screening process, avoid particle accumulation at the particle inlet tube box when the granulation speed is high, ensure the continuity of the granulation process, effectively reduce costs, increase the qualified product quantity, and improve enterprise efficiency. Utility Model Content

[0004] To address the technical problems of existing vibrating screens during particle screening, such as particle accumulation at the particle inlet box and particle concentration on the upper screen plate, leading to interrupted pelleting and the mixing of qualified particles with irregularly shaped particles, increasing costs and severely impacting production efficiency, this utility model provides a particle dispersion device for particle screening. This device features a reasonable structure and ingenious design, stably dispersing particles during the slicing and screening process. It prevents particle accumulation at the particle inlet box during high-speed pelleting, ensuring the continuity of the pelleting process, effectively reducing costs, increasing the quantity of qualified products, and improving enterprise efficiency.

[0005] The technical solution adopted by this utility model to solve the above-mentioned technical problems is as follows: a particle dispersion device for particle screening, comprising a first vibrating motor, a vibrating screen support frame, an upper screen plate, screen holes, a shaped particle collection hopper, a shaped particle outlet pipe, a particle inlet pipe, a particle inlet box, a particle dispersion plate, a second vibrating motor, a lower screen plate, an ultrafine particle outlet, a qualified material outlet, and a flexible connection. The particle inlet box is located above the front end of the vibrating screen support frame, and the upper and lower screen plates are arranged inside the vibrating screen support frame. The shaped particle collection hopper is located at the rear end of the vibrating screen support frame. The irregular particle outlet pipe is located at the lower end of the irregular particle collection hopper, and the upper end of the irregular particle collection hopper is connected to the tail end of the upper sieve plate; the qualified material outlet is located at the tail end of the lower sieve plate to receive qualified particles; the ultrafine particle outlet is located below the lower sieve plate to receive ultrafine particles; the particle dispersion plate is located on the upper sieve plate, and the particle dispersion plate includes two symmetrical wing plates on the left and right, the connection between the two wing plates forms an obtuse angle, the height of the wing plates gradually decreases from the center to both sides, forming an arc-shaped edge, and the arc-shaped edge is used to gradually disperse the particles accumulated below the particle inlet box.

[0006] The above is the basic implementation of this utility model. Further improvements, refinements and limitations can be made on the basis of the above: for example, the first vibration motor and the second vibration motor are respectively arranged on the left and right sides of the vibrating screen support frame.

[0007] The above is the basic implementation of this utility model. Further improvements, refinements and limitations can be made on the basis of the above: as described, the particle inlet pipe is set above the particle inlet box, and the particle inlet pipe and the top of the particle inlet box are connected by a soft connection.

[0008] Compared with the prior art, the beneficial effects of this utility model are:

[0009] This utility model includes a first vibrating motor, a vibrating screen support frame, an upper screen plate, screen holes, a shaped particle collection hopper, a shaped particle outlet pipe, a particle inlet pipe, a particle inlet box, a particle dispersion plate, a second vibrating motor, a lower screen plate, an ultrafine particle outlet, a qualified material outlet, and a flexible connection. This utility model creatively designs a particle dispersion plate, which includes two symmetrical wing plates on the left and right sides. The connection between the two wing plates forms an obtuse angle, and the height of the wing plates gradually decreases from the center to both sides, forming an arc-shaped edge. The arc-shaped edge is used to gradually disperse the particles accumulated below the particle inlet box.

[0010] This invention has a reasonable structure that can effectively disperse concentrated particles, avoiding material accumulation at the particle inlet box and ensuring a continuous pelletizing process. The dispersed particles can be better screened, preventing qualified particles from entering the irregular particle pipeline, thus stabilizing product quality, reducing the total amount of irregular particles, and saving costs. Attached Figure Description

[0011] Figure 1 This is a schematic diagram of the main structure of this utility model;

[0012] Figure 2 This is a top view of the structure of this utility model;

[0013] Figure 3 This is a side sectional view of the present invention;

[0014] Figure 4 This is a schematic diagram of the main structure of the particle dispersion plate;

[0015] Figure 5 This is a top view of the particle dispersion plate structure;

[0016] Figure 6 This is a side view of the particle dispersion plate structure.

[0017] The markings in the diagram are: 1. First vibrating motor, 2. Vibrating screen support frame, 3. Upper screen plate, 4. Screen hole, 5. Irregular particle collection hopper, 6. Irregular particle outlet pipe, 7. Particle inlet pipe, 8. Particle inlet box, 9. Particle dispersion plate, 10. Second vibrating motor, 11. Lower screen plate, 12. Ultrafine particle outlet, 13. Qualified material outlet, 14. Flexible connection. Detailed Implementation

[0018] The specific embodiments of this utility model will be further described in detail below with reference to the accompanying drawings.

[0019] As shown in the figure, a particle dispersion device for particle screening includes a first vibrating motor 1, a vibrating screen support frame 2, an upper screen plate 3, screen holes 4, a shaped particle collection hopper 5, a shaped particle outlet pipe 6, a particle inlet pipe 7, a particle inlet box 8, a particle dispersion plate 9, a second vibrating motor 10, a lower screen plate 11, an ultrafine particle outlet 12, a qualified material outlet 13, and a flexible connection 14. The particle inlet box 8 is located above the front end of the vibrating screen support frame 2, and the upper screen plate 3 and the lower screen plate 11 are arranged inside the vibrating screen support frame 2. The shaped particle collection hopper 5 is located at the rear end of the vibrating screen support frame 2, and the shaped particle outlet... The inlet pipe 6 is located at the lower end of the irregular particle collection hopper 5, and the upper end of the irregular particle collection hopper 5 is connected to the tail end of the upper sieve plate 3; the qualified material outlet 13 is located at the tail end of the lower sieve plate 11 to receive qualified particles; the ultrafine particle outlet 12 is located below the lower sieve plate 11 to receive ultrafine particles; the particle dispersion plate 9 is located on the upper sieve plate 3, and the particle dispersion plate 9 includes two symmetrical wing plates on the left and right, the connection between the two wing plates forms an obtuse angle, the height of the wing plates gradually decreases from the center to both sides, forming an arc-shaped edge, and the arc-shaped edge is used to gradually disperse the particles accumulated below the particle inlet box 8.

[0020] The above is the basic implementation of this utility model. Further improvements, refinements and limitations can be made on the basis of the above: for example, the first vibration motor 1 and the second vibration motor 10 are respectively arranged on the left and right sides of the vibrating screen support frame 2.

[0021] The above is the basic implementation of this utility model. Further improvements, refinements and limitations can be made on the basis of the above: as described, the particle inlet pipe 7 is set above the particle inlet box 8, and the particle inlet pipe 7 and the top of the particle inlet box 8 are connected by a flexible connection 14.

[0022] As shown in the figure, the working process of this utility model is as follows: Particles fall from the particle inlet pipe 7 through the particle inlet box 8 onto the upper sieve plate 3. The particles falling onto the upper sieve plate 3 are concentrated directly below the particle inlet pipe 7. The vibrating screen support frame 2 vibrates up, down, forward, and backward under the action of the first vibrating motor 1 and the second vibrating motor 10. The upper sieve plate 3 and the lower sieve plate 11 vibrate together with the vibrating screen support frame 2. The particles concentrated directly below the particle inlet pipe 7 move towards the shaped particle outlet pipe 6 with the vibration of the upper sieve plate 3. The concentrated particles pass through the particle dispersion plate 9, which includes two symmetrical left and right sides. The wing plates have an obtuse angle at the connection between the two wing plates. The height of the wing plates gradually decreases from the center to both sides, forming an arc-shaped edge. The arc-shaped edge is used to gradually disperse the particles accumulated below the particle inlet box 8 and spread them on the upper screen plate 3. During the process of the particles moving on the upper screen plate 3, qualified ions and ultrafine particles fall through the screen holes 4 to the lower screen plate 11. Ultrafine particles fall through the screen holes 4 on the lower screen plate 11 and finally enter the ultrafine particle outlet 12. Qualified particles move on the lower screen plate 11 and finally enter the qualified material outlet 13. Irregular particles continue to move on the upper screen plate 3 and enter the irregular particle outlet pipe 6 through the irregular particle collection hopper 5.

[0023] This utility model has a reasonable structure and ingenious design. It stably disperses particles during the slicing and screening process, preventing particle accumulation at the particle inlet box when the granulation speed is high. This ensures the continuity of the granulation process, effectively reduces costs, increases the quantity of qualified products, and improves enterprise efficiency. It solves the technical problems of existing vibrating screens, such as particle accumulation at the particle inlet box and particle concentration on the upper screen plate, which leads to granulation interruption and the mixing of qualified particles with irregularly shaped particles, increasing costs and seriously affecting production efficiency. Compared with existing technologies, it has a very good market prospect and development space.

[0024] The preferred embodiments and examples of the present invention have been described in detail above with reference to the accompanying drawings. However, the present invention is not limited to the above embodiments and examples. Within the scope of knowledge possessed by those skilled in the art, various changes can be made without departing from the concept of the present invention.

Claims

1. A particle dispersion device for particle sieving, characterized in that: The system includes a first vibrating motor (1), a vibrating screen support frame (2), an upper screen plate (3), screen holes (4), a shaped particle collection hopper (5), a shaped particle outlet pipe (6), a particle inlet pipe (7), a particle inlet box (8), a particle dispersion plate (9), a second vibrating motor (10), a lower screen plate (11), an ultrafine particle outlet (12), a qualified material outlet (13), and a flexible connection (14). The particle inlet box (8) is located above the head end of the vibrating screen support frame (2), and the vibrating screen support frame (2) contains an upper screen plate (3) and a lower screen plate (11). The shaped particle collection hopper (5) is located at the tail end of the vibrating screen support frame (2), and the shaped particle outlet pipe... (6) The shaped particle collection hopper (5) is located at the lower end of the shaped particle collection hopper (5), and the upper end of the shaped particle collection hopper (5) is connected to the tail end of the upper sieve plate (3); the qualified material outlet (13) is located at the tail end of the lower sieve plate (11) to receive qualified particles; the ultrafine particle outlet (12) is located below the lower sieve plate (11) to receive ultrafine particles; the particle dispersion plate (9) is located on the upper sieve plate (3), and the particle dispersion plate (9) includes two symmetrical wing plates on the left and right, the connection of the two wing plates forms an obtuse angle, the height of the wing plates gradually decreases from the center to both sides, forming an arc edge, and the arc edge is used to gradually disperse the particles accumulated below the particle inlet box (8).

2. The particle dispersion device for particle sieving as described in claim 1, characterized in that: The first vibration motor (1) and the second vibration motor (10) are respectively installed on the left and right sides of the vibrating screen support frame (2).

3. The particle dispersion device for particle sieving as described in claim 1, characterized in that: The particle inlet pipe (7) is located above the particle inlet box (8), and the particle inlet pipe (7) and the top of the particle inlet box (8) are connected by a flexible connection (14).

Images