Secondary depolymerization grader equipment for ceramic powder accumulation

Abstract

The utility model discloses secondary depolymerization grader equipment aiming at ceramic powder accumulation, which comprises a collecting cavity, the lower port of the collecting cavity is connected with a discharge port, the joint of the collecting cavity and the discharge port is connected with a side air inlet, the upper port of the collecting cavity is fixedly connected with a depolymerization cavity, and the lower port of the collecting cavity is fixedly connected with a side air outlet. A depolymerization structure is fixedly installed on the surface of the depolymerization cavity, a side feeding hopper is fixedly connected to the position, located above the depolymerization structure, of the surface of the depolymerization cavity, a grading structure is fixedly connected to an upper end opening of the depolymerization cavity, and the depolymerization structure comprises a nozzle seat, a Laval nozzle, an adjusting bolt, an air inlet ring pipe and a connecting flange; the number of the nozzle seats is four. According to the secondary depolymerization grader equipment for ceramic powder accumulation, secondary blowing-away depolymerization and grading can be conducted on ceramic powder accumulation, the purity of materials can be greatly improved through grading, and therefore the product quality is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of ceramic material processing devices, in particular to a secondary deagglomeration and classification machine for ceramic powder accumulation. Background Art

[0002] After sintering, ceramic materials tend to retain impurities, forming larger particles that are difficult to remove during the classification process. These impurity-laden particles can affect the purity of the material during subsequent processing steps, ultimately impacting the quality of the finished product. Therefore, we propose a secondary deagglomeration and classification machine designed to address this problem. Utility Model Content

[0003] The main purpose of the utility model is to provide a secondary deagglomeration classifier device for ceramic powder accumulation, which can effectively solve the problems in the background technology.

[0004] In order to achieve the above purpose, the technical solution adopted by the utility model is:

[0005] A secondary deagglomeration and classifying machine device for ceramic powder accumulation includes a collecting chamber, the lower port of the collecting chamber is connected to a discharge port, the connection between the collecting chamber and the discharge port is connected to a side air inlet, the upper port of the collecting chamber is fixedly connected to a deagglomeration chamber, a deagglomeration structure is fixedly installed on the surface of the deagglomeration chamber, a side inlet hopper is fixedly connected to the surface of the deagglomeration chamber at a position above the deagglomeration structure, and the upper port of the deagglomeration chamber is fixedly connected to a grading structure.

[0006] Furthermore, the depolymerization structure includes a nozzle seat, a Laval nozzle, an adjusting bolt, an air inlet ring pipe and a connecting flange. There are four nozzle seats in total, which are evenly arranged and installed on the surface of the depolymerization chamber. One end of the nozzle seat is located inside the depolymerization chamber and is fixedly installed with a Laval nozzle. The other end of the nozzle seat is connected to the same air inlet ring pipe. The surface of the air inlet ring pipe is fixedly connected with a connecting flange, and the rear end of the nozzle seat is spirally installed with an adjusting bolt.

[0007] Furthermore, an entry hole is provided on the surface of the depolymerization chamber, and a sealing hole cover is provided on the edge of the entry hole.

[0008] Furthermore, the grading structure includes a grading cavity, a motor, a discharge pipe, a ceramic blade metal grading wheel and a recoil air sleeve. The motor is fixedly installed on the outer surface of the grading cavity. The output end of the motor is located inside the grading cavity and is fixedly installed with a ceramic blade metal grading wheel. The surface of the grading cavity is interspersed with a discharge pipe, and the outer surface of the discharge pipe is fixedly sleeved with a recoil air sleeve.

[0009] Furthermore, the recoil air sleeve is connected to the ceramic blade metal classifying wheel.

[0010] Compared with the prior art, the present invention has the following beneficial effects:

[0011] In the utility model, when the secondary deagglomeration and classifying machine is in use, it can blow away and deagglomerate the accumulated ceramic powder. Due to the action of gravity, the large particles are directly settled into the collection chamber, and the small particles and the deagglomerated small particles are sucked into the classification chamber and screened by the ceramic blade metal classification wheel. The materials with appropriate particle size enter the ceramic blade metal classification wheel and are discharged from the discharge pipe port. The unsuitable materials fall back into the classification chamber and continue to deagglomerate or fall into the collection section. Therefore, such classification can greatly improve the purity of the material, thereby improving the quality of the product. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 This is a schematic diagram of the overall structure of a secondary deagglomeration and classification machine for ceramic powder accumulation in the present invention;

[0013] Figure 2 This is a partial illustration of the deagglomeration chamber of a secondary deagglomeration classifier for ceramic powder accumulation according to the present invention;

[0014] Figure 3 This is a cross-sectional view of the grading chamber of a secondary deagglomeration classifier for ceramic powder accumulation according to the present invention;

[0015] Figure 4 This is a partial cross-sectional view of the deagglomeration structure of a secondary deagglomeration and classifying machine for ceramic powder accumulation in the utility model.

[0016] In the figure: 1. Collection chamber; 2. Discharge port; 3. Side air inlet; 4. Deagglomeration chamber; 5. Deagglomeration structure; 501. Nozzle seat; 502. Laval nozzle; 503. Adjusting bolt; 504. Air inlet ring pipe; 505. Connecting flange; 6. Side entry hopper; 7. Grading structure; 701. Grading chamber; 702. Motor; 703. Discharge pipe; 704. Ceramic blade metal grading wheel; 705. Recoil air sleeve. DETAILED DESCRIPTION

[0017] In order to make the technical means, creative features, objectives and effects achieved by the present invention easier to understand, the present invention is further described below in conjunction with specific implementation methods.

[0018] like Figure 1-4As shown, a secondary deagglomeration and classifying device for ceramic powder accumulation includes a collecting chamber 1, the lower end of the collecting chamber 1 is connected to a discharge port 2, the connection between the collecting chamber 1 and the discharge port 2 is connected to a side air inlet 3, the upper end of the collecting chamber 1 is fixedly connected to a deagglomeration chamber 4, a deagglomeration structure 5 is fixedly installed on the surface of the deagglomeration chamber 4, a side inlet hopper 6 is fixedly connected to the surface of the deagglomeration chamber 4 above the deagglomeration structure 5, and the upper end of the deagglomeration chamber 4 is fixedly connected to a grading structure 7;

[0019] The depolymerization structure 5 includes a nozzle holder 501, a Laval nozzle 502, an adjusting bolt 503, an air inlet ring pipe 504 and a connecting flange 505. There are four nozzle holders 501 in total, and they are evenly arranged and installed on the surface of the depolymerization chamber 4. One end of the nozzle holder 501 is located inside the depolymerization chamber 4 and is fixedly installed with a Laval nozzle 502. The other end of the nozzle holder 501 is connected to the same air inlet ring pipe 504. The surface of the air inlet ring pipe 504 is fixedly connected with a connecting flange 505. The rear end of the nozzle holder 501 is spirally installed with an adjusting bolt 503. The air inlet ring pipe 504 is connected to the external air supply equipment through the connecting flange 505, and then the air inlet ring pipe 504 will grind Compressed air is evenly supplied to the nozzle seat 501 and ejected through the Laval nozzle 502. The ejected supersonic airflow realizes the deagglomeration of the material. An adjusting bolt 503 is provided at the rear end of the nozzle seat 501. By screwing the adjusting bolt 503, the insertion length of the Laval nozzle 502 can be adjusted, thereby controlling the spraying distance of the Laval nozzle 502 and adjusting the deagglomeration intensity so that the impurities in the material can be fully deagglomerated and separated. In this way, the problem of material accumulation during the classification process, which affects the yield and purity of the material, can be solved. An inlet hole is provided on the surface of the deagglomeration chamber 4, and a sealing hole cover is provided at the edge of the inlet hole. The grading structure 7 includes a grading chamber 701, a motor 702, an outlet The material pipe port 703, the ceramic blade metal classifying wheel 704 and the recoil air sleeve 705, the outer surface of the classification chamber 701 is fixedly installed with a motor 702, the output end of the motor 702 is located inside the classification chamber 701 and is fixedly installed with a ceramic blade metal classifying wheel 704, the surface of the classification chamber 701 is interspersed with a discharge pipe port 703, and the outer surface of the discharge pipe port 703 is fixedly sleeved with a recoil air sleeve 705. When the equipment is working, the equipment works under negative pressure. After the material enters the depolymerization chamber 4, it will be subjected to an upward negative pressure suction force. The large particles are directly settled to the collection chamber 1 due to the action of gravity, while the smaller particles and the small particles after depolymerization are sucked into the separation chamber 1. The grade chamber 701 is screened by the ceramic blade metal classifying wheel 704. The material with appropriate particle size enters the ceramic blade metal classifying wheel 704 and is discharged from the discharge pipe 703. The unsuitable material falls back to the depolymerization chamber 4 to continue depolymerization or falls into the collection chamber 1. The number of revolutions of the ceramic blade metal classifying wheel 704 can be adjusted by the motor 702. The materials of different particle sizes can be screened by controlling the speed of the ceramic blade metal classifying wheel 704. The recoil gas sleeve 705 is docked with the ceramic blade metal classifying wheel 704, and gas is filled into the recoil gas sleeve 705 so that the recoil gas sleeve 705 will continuously spray gas to the gap where it docks with the classifying wheel to prevent the material from leaking from the gap.

[0020] It should be noted that the utility model is a secondary deagglomeration and classifying equipment for ceramic powder accumulation. The equipment adds a crushing process before the classification process. By crushing large impurity particles in advance, the accumulation problem of the classification process is solved. After the crushed material enters from the side entry hopper 6 entrance, the large particles accumulated with impurities will settle downward and fall into the deagglomeration chamber 4. The Laval nozzle 502 inside the side entry hopper 6 will spray out a supersonic airflow to blow away the large particles and deagglomerate them. Materials of appropriate particle size fall directly into the collecting chamber 1 and are taken away by the discharge port 2. Small particles and deagglomerated small particles are sucked into the classification chamber 701 and screened by the ceramic blade metal classification wheel 704. Materials of appropriate particle size enter the ceramic blade metal classification wheel 704 and are discharged from the discharge pipe 703. Unsuitable materials fall back into the classification chamber 701 and continue to deagglomerate or fall into the collection section.

[0021] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are merely illustrative of the principles of the present invention. Various changes and improvements may be made to the present invention without departing from the spirit and scope of the present invention. Such changes and improvements are intended to fall within the scope of the present invention. The scope of protection claimed in this invention is defined by the appended claims and their equivalents.

Claims

1. A secondary deagglomeration classifier for ceramic powder accumulation, characterized by: The invention comprises a collecting chamber (1), wherein the lower port of the collecting chamber (1) is connected to a discharge port (2), the connection between the collecting chamber (1) and the discharge port (2) is connected to a side air inlet (3), the upper port of the collecting chamber (1) is fixedly connected to a depolymerization chamber (4), a depolymerization structure (5) is fixedly installed on the surface of the depolymerization chamber (4), a side feed hopper (6) is fixedly connected to the surface of the depolymerization chamber (4) located above the depolymerization structure (5), and the upper port of the depolymerization chamber (4) is fixedly connected to a graded structure (7).

2. The secondary deagglomeration classifier for ceramic powder accumulation according to claim 1, characterized in that: The depolymerization structure (5) includes a nozzle seat (501), a Laval nozzle (502), an adjusting bolt (503), an air inlet ring tube (504) and a connecting flange (505). There are four nozzle seats (501) in total, which are evenly arranged and installed on the surface of the depolymerization chamber (4). One end of the nozzle seat (501) is located inside the depolymerization chamber (4) and is fixedly installed with a Laval nozzle (502). The other end of the nozzle seat (501) is connected to the same air inlet ring tube (504). The surface of the air inlet ring tube (504) is fixedly connected with a connecting flange (505). The rear end of the nozzle seat (501) is spirally installed with an adjusting bolt (503).

3. The secondary deagglomeration classifier for ceramic powder accumulation according to claim 2, characterized in that: An entry hole is provided on the surface of the depolymerization chamber (4), and a sealing hole cover is provided on the edge of the entry hole.

4. The secondary deagglomeration classifier for ceramic powder accumulation according to claim 3, characterized in that: The grading structure (7) comprises a grading chamber (701), a motor (702), a discharge pipe (703), a ceramic blade metal grading wheel (704) and a recoil air sleeve (705); the motor (702) is fixedly mounted on the outer surface of the grading chamber (701); the output end of the motor (702) is located inside the grading chamber (701) and is fixedly mounted with a ceramic blade metal grading wheel (704); the discharge pipe (703) is fixedly mounted on the surface of the grading chamber (701); and the recoil air sleeve (705) is fixedly mounted on the outer surface of the discharge pipe (703).

5. The secondary deagglomeration classifier for ceramic powder accumulation according to claim 4, characterized in that: The recoil air sleeve (705) is connected to the ceramic blade metal classifying wheel (704).

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