Powder material cooling crystallization device

Abstract

The utility model relates to the technical field of cooling crystallization, in particular to a powder material cooling crystallization device. Comprising a reaction kettle, a reaction kettle feeding port is formed in the top of the reaction kettle, a feeding pipeline is arranged at the bottom of the reaction kettle, a discharging valve and a metering pump are arranged on the feeding pipeline, the tail end of the feeding pipeline is communicated with the feeding end of a curved cooling groove formed in a cooling disc, and the discharging end of the curved cooling groove is communicated with a cooling disc discharging port formed in the tail end of the cooling disc. A cooling disc base is arranged at the bottom of the cooling disc; liquid materials can be rapidly cooled and crystallized to generate powdery materials, continuous production can be achieved, the production efficiency is high, and the cost is low.

Description

Technical Field

[0001] The utility model relates to the technical field of cooling crystallization, and more specifically, to a cooling crystallization device for powder materials. Background Art

[0002] In the process of powder material processing, for the convenience of transportation and storage, it is necessary to evaporate and concentrate and then cool and crystallize. The existing cooling methods are all to naturally cool and crystallize the saturated solution. This cooling method requires at least 24 hours or more, and the cooling time consumption is long, resulting in low production efficiency. At the same time, this cooling method has poor cooling effect, resulting in unsatisfactory product quality.

[0003] Therefore, this application provides a cooling crystallization device for powder materials. Summary of the Utility Model

[0004] The purpose of the utility model is to design a cooling crystallization device for powder materials, which can quickly cool and crystallize liquid materials to generate powdery materials, and can be continuously produced, with high production efficiency and low cost.

[0005] To solve the above technical problems, the utility model adopts the following technical solutions:

[0006] A cooling crystallization device for powder materials includes a reaction kettle. A reaction kettle feed inlet is provided at the top of the reaction kettle, and a feeding pipeline is arranged at the bottom. An outlet valve and a metering pump are arranged on the feeding pipeline. The end of the feeding pipeline is communicated with the feeding end of a curved cooling groove arranged in a cooling disk. The discharging end of the curved cooling groove is communicated with a cooling disk discharge port arranged at the end of the cooling disk. A cooling disk base is arranged at the bottom of the cooling disk.

[0007] Further, the curved cooling groove includes an upper cooling groove wall and a lower semi-circular pipeline. The feeding pipeline and the cooling disk discharge port are communicated with the upper cooling groove wall. A water inlet and a water outlet are arranged on the lower semi-circular pipeline.

[0008] Further, the bottom of the cooling disk base is connected with a blower. A blower blade is arranged inside the blower, and a blower switch is arranged on the blower. A universal wheel base is arranged at the bottom of the blower.

[0009] Further, the blower is a blower for adjusting the wind speed.

[0010] Further, the cooling disk is fixed by a cooling disk fixing frame one and a cooling disk fixing frame two arranged.

[0011] Further, the outlet valve, the metering pump and the blower are all purchased on the existing market, and their internal structures and circuit connection relationships are well known in the art.

[0012] The utility model has at least one of the following beneficial effects:

[0013] The utility model can quickly cool and crystallize liquid materials to generate powdery materials, enabling continuous production, high production efficiency, and low cost. Additionally, a pipeline is attached under the cooling disk, and the cooling water conveyed inside the pipeline plays a role in directly cooling and crystallizing. A blower is provided below the cooling disk for heat dissipation and cooling, with the wind force and cooling efficiency controllable. The curved cooling tank is designed to include an upper cooling tank wall and a lower semi-circular pipeline, and the curved cooling tank design increases the cooling area and improves the cooling efficiency. Moreover, a universal wheel base is provided at the bottom for convenient movement. Description of the Drawings

[0014] Figure 1 is a front view structural schematic diagram of the utility model;

[0015] Figure 2 is a top view structural schematic diagram of the utility model;

[0016] Figure 3 is a partial structural schematic diagram of the cooling disk of the utility model.

[0017] In the figure, 1 is the charging port of the reaction kettle; 2 is the reaction kettle; 21 is the curved cooling tank; 21-1 is the cooling tank wall; 21-2 is the semi-circular pipeline; 3 is the discharge valve; 4 is the feeding pipeline; 5 is the metering pump; 6 is the cooling disk; 6-1 is the first cooling disk fixing bracket; 6-2 is the second cooling disk fixing bracket; 7 is the cooling disk discharge port; 8 is the water inlet; 9 is the water outlet; 10 is the cooling disk base; 11 is the blower; 11-1 is the fan blade; 12 is the universal wheel base; 13 is the fan switch. Detailed Embodiments

[0018] As Figures 1-3 shown, for the purpose of making the objectives, technical solutions, and advantages of the utility model clearer, the following further details the utility model in conjunction with the drawings and embodiments. It should be understood that the specific embodiments described herein are merely for explaining the utility model and are not intended to limit the utility model. Embodiment

[0019] A powder material cooling and crystallization device includes a reaction kettle 2. The top of the reaction kettle 2 is provided with a charging port 1 of the reaction kettle, and the bottom is provided with a feeding pipeline 4. An outlet valve 3 and a metering pump 5 are arranged on the feeding pipeline 4. The end of the feeding pipeline 4 is communicated with the feeding end of a curved cooling tank 21 arranged inside the cooling disk 6. The discharging end of the curved cooling tank 21 is communicated with a cooling disk discharge port 7 arranged at the end of the cooling disk 6. A cooling disk base 10 is arranged at the bottom of the cooling disk 6. The utility model can quickly cool and crystallize liquid materials to generate powdery materials, enabling continuous production, high production efficiency, and low cost.

[0020] Among them, the curved cooling tank 21 includes an upper cooling tank wall 21-1 and a lower semi-circular pipe 21-2. The feeding pipe 4 and the cooling plate discharge port 7 are connected to the upper cooling tank wall 21-1. The curved cooling tank is set to include an upper cooling tank wall and a lower semi-circular pipe. The curved cooling tank design increases the cooling area and improves the cooling efficiency. The lower semi-circular pipe 21-2 is provided with a water inlet 8 and a water outlet 9 for conveying cooling water.

[0021] Among them, the bottom of the cooling plate base 10 is connected to the blower 11. The blower 11 is provided with blower blades 11-1, and a blower switch 13 is provided on the blower 11. A pipe is attached under the cooling plate, and cooling water is conveyed in the pipe to play a direct cooling and crystallization role; a blower is provided under the cooling plate for heat dissipation and cooling. The wind force is controllable, and the cooling efficiency is controllable. The blower 11 is a blower for adjusting the wind speed. The bottom of the blower 11 is provided with a universal wheel base 12 for convenient movement.

[0022] Among them, the cooling plate 6 is fixed by a set cooling plate fixing frame one 6-1 and a cooling plate fixing frame two 6-2, which plays a stabilizing role for the cooling plate 6.

[0023] The working process of the present utility model:

[0024] Raw materials enter the reaction kettle 2 through the reaction kettle feed inlet 1, undergo stirring reaction, open the discharge valve 3, and the material is constantly conveyed to the cooling plate 6 through the feeding pipe 4 at a constant speed. The feeding pipe is equipped with a metering pump 5, which can effectively control the fluid flow rate and pressure, thereby ensuring stable transmission in the fluid production process. The curved cooling tank 21 includes an upper cooling tank wall 21-1 and a lower semi-circular pipe 21-2, which are hermetically connected to form an integral body. The feeding pipe 4 and the cooling plate discharge port 7 are connected to the upper cooling tank wall 21-1 for conveying liquid materials. The curved cooling tank design increases the cooling area and improves the cooling efficiency. The lower semi-circular pipe 21-2 is provided with a water inlet 8 and a water outlet 9 for conveying cooling water.

[0025] The cooling plate base 10 of the cooling plate 6 is fixed on the blower 11. The blower 11 is equipped with a blower switch 13 for adjusting the wind speed and a universal wheel base 12, and is movable;

[0026] Open the water inlet 8, and the cooling water flows out from the water outlet 9 through the semi-circular pipe 21-2. Open the discharge valve 3, and the material is constantly conveyed to the cooling tank wall 21-1 in the cooling plate 6 through the feeding pipe 4. The material and the cooling water flow in the reverse direction to achieve the effect of rapid temperature reduction. The heat of the material is carried out by the cooling water. Open the blower 11 to play a local cooling role for the second time; the rapidly cooled and crystallized powder will be discharged from the cooling plate discharge port 7.

[0027] Although the present utility model has been described herein with reference to a number of illustrative embodiments, it should be understood that those skilled in the art can devise many other modifications and embodiments that will fall within the scope and spirit of the principles disclosed in this application. More specifically, within the scope of the present disclosure, the accompanying drawings, and the claims, various variations and improvements can be made to the components and / or layout of the subject combination layout. In addition to the variations and improvements made to the components and / or layout, other uses will also be apparent to those skilled in the art.

Claims

1. A cooling crystallization device for powder materials, characterized in that: It includes a reactor (2). A reactor feed inlet (1) is provided at the top of the reactor (2), and a feeding pipeline (4) is arranged at the bottom. An outlet valve (3) and a metering pump (5) are provided on the feeding pipeline (4). The end of the feeding pipeline (4) is communicated with the feeding end of a curved cooling groove (21) arranged in a cooling tray (6). The discharging end of the curved cooling groove (21) is communicated with a cooling tray discharge port (7) arranged at the end of the cooling tray (6). A cooling tray base (10) is arranged at the bottom of the cooling tray (6).

2. The cooling crystallization device for powder materials according to claim 1, characterized in that: The curved cooling groove (21) includes an upper cooling groove wall (21-1) and a lower semi-circular pipeline (21-2). The feeding pipeline (4) and the cooling tray discharge port (7) are communicated with the upper cooling groove wall (21-1). A water inlet (8) and a water outlet (9) are arranged on the lower semi-circular pipeline (21-2).

3. The powder material cooling and crystallization device according to claim 1, wherein: The bottom of the cooling tray base (10) is connected to a blower (11). A blower blade (11-1) is arranged inside the blower (11), and a blower switch (13) is arranged on the blower (11). A universal wheel base (12) is arranged at the bottom of the blower (11).

4. A powder material cooling and crystallization device according to claim 1, characterized in that: The blower (11) is a blower for adjusting the wind speed.

5. The cooling crystallization device for powder materials according to claim 1, wherein: The cooling tray (6) is fixed by a cooling tray fixing bracket one (6-1) and a cooling tray fixing bracket two (6-2) arranged thereon.

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