A special ceramic stirring and processing device and processing method

Abstract

This invention relates to the technical field of ceramic processing, and particularly to a special ceramic mixing and processing device and method, comprising an arc-shaped plate, a cutter, a pipe, a mixing assembly, and a buffer assembly; a connecting block one is connected to a cylinder; a connecting block two is rotatably connected to the connecting block one via a torsion spring shaft; the connecting block two, the arc-shaped plate, and the cutter cooperate to put cylindrical clay into the slurry in the cylinder. Compared with the prior art, this avoids the problem of the cylinder edge shearing the clay, thus avoiding the problem of manually picking up clay blocks and putting them back into the cylinder, which is beneficial to improving efficiency. At the same time, after the cylindrical clay is inserted into the cutter, there is no need to manually control its slide down into the slurry in the cylinder. The operator can immediately go to the raw material stacking area to move new cylindrical clay, further improving efficiency. In addition, the cutter can pre-cut the cylindrical clay, making it easier to mix with the slurry in the cylinder.

Description

Technical Field

[0001] This invention relates to the technical field of ceramic processing. More specifically, this invention relates to a special ceramic stirring and processing apparatus and method. Background Technology

[0002] In the ceramic production process, clay needs to be mixed into a slurry. The current operating procedure is as follows: A cylindrical piece of clay is manually moved horizontally to the side of the mixing tank, first placed flat on the edge of the tank, then slowly straightened to a vertical position, and gently slid into the tank along the side. Once the bottom of the clay touches the slurry, it is released to allow it to fall naturally, thus preventing the slurry from splashing out.

[0003] However, during the process of placing the cylindrical clay cylinder at the edge of the mixing bucket, the rim of the bucket easily penetrates into the clay. When the clay is straightened and slides down, the edge of the bucket shears against it, causing some clay to peel off. These fragments need to be picked up manually and put back into the mixing bucket, increasing the number of steps, reducing efficiency, and making the overall process cumbersome.

[0004] In summary, this application proposes a special ceramic stirring and processing device and processing method to improve the technical problems mentioned above. Summary of the Invention

[0005] To overcome the shearing effect of the mixing drum edge on the clay, which causes some clay to be peeled off, these sheared clay fragments need to be picked up manually and put back into the mixing drum, which not only increases the number of operation steps but also reduces work efficiency, this invention provides a special ceramic mixing and processing device and processing method.

[0006] The technical implementation of this invention is as follows: A special ceramic stirring and processing device includes a cylinder and a base; the base is fixedly connected to the lower side of the cylinder; it also includes a first connecting block, a second connecting block, an arc-shaped plate, a cutter, a pipe, a stirring assembly, and a buffer assembly; the first connecting block is connected to the cylinder; the second connecting block is rotatably connected to the first connecting block via a torsion spring shaft; the arc-shaped plate is fixedly connected to the second connecting block; several hollow cutters are fixedly connected to the arc-shaped plate; each cutter has several grooves; each cutter has several vent holes; each groove communicates with the interior of the corresponding cutter through a corresponding vent hole; each cutter has a pipe fixedly connected to its interior; the stirring assembly is connected to the cylinder, and the stirring assembly is used to stir the slurry inside the cylinder; the buffer assembly is connected to the first connecting block, and the buffer assembly is used to buffer the rotating second connecting block.

[0007] Furthermore, in the above-mentioned special ceramic stirring and processing device, the stirring assembly includes a connecting block three, a motor, a round rod one, and stirring blades; the connecting block three is fixedly connected to the cylinder; the motor is fixedly connected to the connecting block three; the output end of the motor is fixedly connected to the round rod one, which is rotatably connected to the connecting block three; and several stirring blades are fixedly connected to the round rod one.

[0008] Furthermore, in the aforementioned special ceramic mixing and processing device, the cylinder, the rod, and the mixing blades are all made of rust-proof materials.

[0009] Furthermore, in the above-mentioned special ceramic stirring and processing device, the buffer component includes friction strips and friction blocks; several friction strips are fixedly connected to connecting block one; several friction blocks are connected to connecting block two; a friction surface is provided on the lower side of the friction block near the friction strip, and an avoidance groove is provided on the lower side of the friction block away from the friction strip.

[0010] Furthermore, the aforementioned special ceramic stirring and processing device also includes friction plates; each friction strip has a friction plate fixedly attached to its upper part, and the friction coefficient of the friction plate is greater than that of the friction strip.

[0011] Furthermore, the aforementioned special ceramic stirring and processing device also includes auxiliary components, which include a second round rod, a first limiting block, and a second limiting block; each friction block is damped and slidably connected to the second connecting block; a second round rod is fixedly attached to each friction block; several first limiting blocks are fixedly attached to the first connecting block, and the first limiting blocks are provided with inclined surfaces; second limiting blocks are fixedly attached to the first connecting block, and the second limiting blocks are provided with inclined surfaces.

[0012] Furthermore, the aforementioned special ceramic stirring and processing device also includes an adjustment component, which includes a connecting block four and a round rod three; the connecting block four is fixedly connected to the cylinder, and the connecting block four is slidably connected to the connecting block one; a round rod three is inserted into each connecting block one; the connecting block four has several fixing holes; the round rod three is inserted into the corresponding fixing holes.

[0013] Furthermore, in the aforementioned special ceramic stirring and processing device, flanges are provided at the three ends of the round rod.

[0014] Furthermore, in the aforementioned special ceramic stirring and processing device, the second round rod, the first limiting block, and the second limiting block are all made of wear-resistant material.

[0015] A special ceramic stirring processing method includes the following steps:

[0016] Step 1: Moving the clay cylinders to the top of the curved slab.

[0017] Step 2, Insertion: Manually insert the cylindrical clay cylinder to the outside of the cutter and place it on the curved plate;

[0018] Step 3: Flip over. Under the action of gravity, the curved plate, the cutter, and the cylindrical clay are flipped to a vertical position. At this time, the lower end of the cylindrical clay is immersed in the slurry of the cylinder.

[0019] Step four, release: the cylindrical clay detaches from the cutter and falls completely into the slurry;

[0020] Step 5: Stirring. Use the stirring blades to thoroughly stir the cylindrical clay and slurry.

[0021] The present invention has the following advantages: First, the connecting block, second, the arc plate and the cutter work together to put the cylindrical clay into the slurry in the cylinder. Compared with the prior art, this avoids the problem of the cylinder edge shearing the clay, thus avoiding the problem of manually picking up clay blocks and putting them back into the cylinder, which helps to improve efficiency. At the same time, after the cylindrical clay is inserted into the cutter, there is no need to manually control its slide into the slurry in the cylinder. The operator can immediately go to the raw material stacking area to move new cylindrical clay, which further improves efficiency. At the same time, the cutter can pre-cut the cylindrical clay, making it easier to mix with the slurry in the cylinder.

[0022] Second, the grooves on the cutter enhance the fixation of the clay, reducing the risk of detachment. Simultaneously, the friction strips and friction blocks work together to slowly rotate the cylindrical clay to a vertical position, improving stability during the rotation process and further reducing the risk of detachment. This prevents the cylindrical clay from falling directly into the slurry in the cylinder and causing splashing. Furthermore, the friction blocks and friction plates work together to provide support when the cylindrical clay is inserted into the cutter, significantly reducing insertion difficulty. Additionally, the combination of the second round rod, the first limiting block, and the second limiting block ensures that the resetting process of the connecting block and its components is not interfered with by the friction between the friction strips and friction blocks, allowing for rapid resetting and improved efficiency.

[0023] Third, by connecting block four and round rod three-phase cooperation, the height of the arc plate and cutter can be adjusted, avoiding the problem that the ends of the arc plate and cutter are immersed in the slurry and the cylindrical clay cannot be immersed in the slurry. Attached Figure Description

[0024] Figure 1 A schematic diagram of the structure of the special ceramic stirring and processing device of the present invention is shown;

[0025] Figure 2 A schematic diagram of the internal structure of the cylinder of the present invention is shown;

[0026] Figure 3 A schematic diagram of the structure of the adjustment component of the present invention is shown;

[0027] Figure 4 A schematic diagram of the structure of the cutter of the present invention is shown;

[0028] Figure 5 A schematic diagram of the structure of the buffer component of the present invention is shown;

[0029] Figure 6 A schematic diagram of the structure of the auxiliary component of the present invention is shown;

[0030] Figure 7A schematic diagram of the friction block of the present invention is shown;

[0031] Figure 8 A schematic diagram of the clearance groove of the present invention is shown.

[0032] The components in the attached diagram are labeled as follows: 1-Cylinder, 2-Base, 3-Connecting Block 1, 4-Connecting Block 2, 5-Arc Plate, 6-Cutter, 7-Pipe, 201-Connecting Block 3, 202-Motor, 203-Round Rod 1, 204-Stirring Blade, 205-Friction Strip, 206-Friction Block, 207-Friction Plate, 208-Round Rod 2, 209-Limiting Block 1, 2010-Limiting Block 2, 2011-Connecting Block 4, 2012-Round Rod 3, 91-Groove, 92-Ventilation Hole, 93-Fixing Hole, 94-Allowing Groove. Detailed Implementation

[0033] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings. It is hereby declared that the directional terms such as up, down, left, right, front, back, inside, and outside used in this text are based solely on the accompanying drawings and are not intended to specifically limit the invention.

[0034] Example 1: A special ceramic stirring and processing device, such as... Figures 1-8 As shown, the assembly includes a cylinder 1 and a base 2; the base 2 is welded to the lower side of the cylinder 1; it also includes a connecting block 1 3, a connecting block 2 4, an arc plate 5, a cutter 6, a pipe 7, a stirring assembly, and a buffer assembly; the connecting block 1 3 is connected to the cylinder 1; the connecting block 2 4 is rotatably connected to the connecting block 1 3 via a torsion spring shaft; the arc plate 5 is welded to the connecting block 2 4; two hollow cutters 6 are bolted to the arc plate 5; each cutter 6 has a groove 91; each cutter 6 has a vent hole 92; each groove 91 communicates with the interior of the corresponding cutter 6 through the corresponding vent hole 92; each cutter 6 has a pipe 7 welded to it, communicating with its interior; the stirring assembly is connected to the cylinder 1; the buffer assembly is connected to the connecting block 1 3.

[0035] The stirring assembly includes a connecting block 3 201, a motor 202, a round rod 1 203, and stirring blades 204. The connecting block 3 201 is bolted to the cylinder 1 and is made of metal. The motor 202 is bolted to the connecting block 3 201. The output end of the motor 202 is fixedly connected to the round rod 1 203, which is rotatably connected to the connecting block 3 201. Four stirring blades 204 are welded onto the round rod 1 203. The motor 202 drives the round rod 1 203 to rotate, and the round rod 1 203 drives the stirring blades 204 to rotate.

[0036] The cylinder 1, the rod 203, and the stirring blade 204 are all made of rust-proof material.

[0037] The buffer assembly includes friction strips 205 and friction blocks 206; two friction strips 205 are fixedly connected to connecting block 1 3; two friction blocks 206 are connected to connecting block 2 4. When the friction blocks 206 slide on the surface of the friction strips 205, they will generate high friction force to achieve buffering; a friction surface is provided on the lower side of the friction blocks 206 near the friction strips 205, and a clearance groove 94 is provided on the lower side of the friction blocks 206 away from the friction strips 205.

[0038] It also includes a friction plate 207; a friction plate 207 is fixedly attached to the upper part of each friction strip 205, and the friction coefficient of the friction plate 207 is greater than that of the friction strip 205.

[0039] It also includes auxiliary components, including a second round rod 208, a first limiting block 209, and a second limiting block 2010; each friction block 206 is damped and slidably connected to the second connecting block 4; a second round rod 208 is welded onto each friction block 206; two first limiting blocks 209 are bolted to the first connecting block 3, and the first limiting blocks 209 are provided with inclined surfaces; the second limiting block 2010 is bolted to the first connecting block 3, and the second limiting block 2010 is provided with inclined surfaces.

[0040] Round rod 208, limit block 1 209 and limit block 2 2010 are all made of wear-resistant material to reduce wear and improve service life.

[0041] First, an external air pump is connected to pipe 7 via a hose. Slurry is placed inside cylinder 1. Motor 202 is started, driving the first round rod 203 to rotate. The first round rod 203 then drives the stirring blade 204 to rotate, stirring the slurry in cylinder 1. Next, the cylindrical clay is manually moved horizontally above the arc-shaped plate 5, with the right end of the cylindrical clay extending beyond the right end of the arc-shaped plate 5. The cylindrical clay is then moved downwards until its lower part contacts the arc-shaped plate 5. At this point, the cylindrical clay rests on the arc-shaped plate 5, and the cutter 6 is inserted into the cylindrical clay. The blade of the cutter 6 remains inside the cylindrical clay, preventing complete cutting. The insertion of the cutter 6 creates pressure, causing the cylindrical clay to adhere tightly to the surface of the cutter 6. Due to the adhesive nature of the cylindrical clay, it adheres to the cutter 6. Figure 3As shown, with the pivot of connecting block 2 4 as the center, the torque on the right side of the arc plate 5, cutter 6, and cylindrical clay assembly is much greater than the torque on the left side. This causes connecting block 2 4, arc plate 5, cutter 6, and cylindrical clay assembly to rotate downwards and to the right around the torsional pivot on connecting block 1 3, causing the cylindrical clay to slowly flip to a vertical position. At this point, the lower part of the cylindrical clay is immersed in the slurry inside cylinder 1, and the weight of the cylindrical clay no longer acts on arc plate 5. Since the weight of the cylindrical clay is much greater than the adhesive force between the cylindrical clay and cutter 6, the cylindrical clay slides into the slurry inside cylinder 1, avoiding the problem of the clay being sheared and improving efficiency. After the cylindrical clay moves away from arc plate 5 and cutter 6, the torsional spring pivot on connecting block 1 3 drives connecting block 2 4 and its components to flip back to their original positions. After the reset operation is completed, the cylindrical clay is inserted into the cutter 6 manually, and then it slides down into the slurry in the cylinder 1 without manual control. In use, the cylindrical clay is put into the slurry in the cylinder 1 through the cooperation of the connecting block 4, the arc plate 5 and the cutter 6. Compared with the existing technology, there is no problem of the cylindrical clay being cut by the edge of the cylinder 1, thus avoiding the problem of manually picking up clay blocks and putting them back into the cylinder 1, which helps to improve efficiency. At the same time, after the cylindrical clay is inserted into the cutter 6 manually, there is no need to manually control it to slide down into the slurry in the cylinder 1. The operator can immediately go to the raw material stacking area to move new cylindrical clay, which further improves efficiency. At the same time, the cutter 6 can pre-cut the cylindrical clay, making it easier to mix into the slurry in the cylinder 1.

[0042] As the connecting block 4, arc plate 5, cutter 6, and cylindrical clay rotate around the connecting block 3, relying solely on adhesive force to fix the cylindrical clay may cause it to detach, resulting in the cylindrical clay falling directly from a height into the slurry in cylinder 1, causing splashing. Therefore, after manually inserting the cylindrical clay into the cutter 6, the cylindrical clay makes close contact with the surface of the cutter 6. Then, an external air pump evacuates air from pipe 7, causing some air in groove 91 to flow into the cutter 6 through vent 92, then into pipe 7, and finally into the external air pump. This creates a negative pressure in groove 91, providing suction to the cylindrical clay, enhancing the fixing effect and reducing the risk of detachment. When the cylindrical clay rotates to a vertical position, the external air pump supplies air to groove 91, stopping the suction from groove 91 and allowing the cylindrical clay to slide into the slurry in cylinder 1. During the rotation of the connecting block 4, arc plate 5, cutter 6, and cylindrical clay around the connecting block 3, the connecting block 4 drives the friction block 206 to move, causing the friction block 206 to slide on the surface of the friction strip 205. During this process, frictional resistance is generated between the friction strip 205 and the friction block 206, causing the connecting block 4, arc plate 5, cutter 6, and cylindrical clay to rotate slowly, thus slowly turning the cylindrical clay to a vertical position. This helps improve the stability of the turning process and further reduces the risk of falling off. In use, the groove 91 on the cutter 6 is opened to improve the fixing effect on the cylindrical clay and reduce the risk of falling off. At the same time, the friction strip 205 and the friction block 206 cooperate to slowly turn the cylindrical clay to a vertical position, which helps improve the stability of the turning process and further reduces the risk of falling off, thus preventing the cylindrical clay from falling directly from a height into the slurry in the cylinder 1 and causing splashing problems.

[0043] During the insertion of the cylindrical clay into the cutter 6, the arc plate 5 is in a free-moving state, providing limited support, which increases the difficulty of inserting the cylindrical clay. Therefore, a friction plate 207 is set on the friction strip 205. The friction coefficient of the friction plate 207 is much greater than that of the friction strip 205. In the initial stage of the cylindrical clay insertion into the cutter 6, the downward pressure drives the connecting block 2 4, the arc plate 5, and the cutter 6 to rotate. The connecting block 2 4 drives the friction block 206 to contact the friction plate 207, generating a large frictional resistance between the friction block 206 and the friction plate 207 to counteract the downward pressure and significantly reduce the difficulty of inserting the cylindrical clay. After insertion, the friction block 206 is just away from the friction plate 207 and contacts the friction strip 205. A small frictional force is generated between the friction strip 205 and the friction block 206 to buffer and decelerate. In use, the friction block 206 and the friction plate 207 cooperate to provide support during the insertion of the cylindrical clay into the cutter 6, significantly reducing the difficulty of inserting the cylindrical clay.

[0044] During the resetting process of connecting block 24 and its components, the friction between friction strip 205 and friction block 206 slows down the resetting speed. This can lead to a situation where the cylindrical clay has been manually moved to the edge of cylinder 1, but the arc plate 5 has not yet been fully reset, resulting in decreased efficiency. Therefore, an auxiliary component is added to connecting block 3. When the cylindrical clay rotates to a vertical position, connecting block 24 drives friction block 206 and round rod 208 to rotate to a horizontal position. During this process, round rod 208 contacts the inclined surface of limiting block 2010, and the limiting block 2010 forces the two round rods 208 to move in opposite directions. The round rods 208 drive the two friction blocks 206 to move in opposite directions, causing the friction surface of friction block 206 to move away from friction strip 205, and the clearance groove 94 to align with the position of friction strip 205. Then, the torque shaft on connecting block 3 drives connecting block 24 and its components to reset, and connecting block 24 drives friction block 206 to rotate. Since the clearance groove 94 is aligned with the friction strip 205, the friction surface of the friction block 206 will not contact the friction strip 205 during this process, meaning there will be no frictional force interfering with the reset operation, allowing the reset operation to be completed quickly. When the connecting block 24 drives the friction block 206 and the round rod 208 to rotate back to the vertical position, the round rod 208 contacts the inclined surface of the limiting block 1 209. The limiting block 1 209 forces the round rod 208 to move, causing the two round rods 208 to move towards each other. The round rods 208 drive the two friction blocks 206 to move towards each other, causing the friction surface of the friction block 206 to realign with the friction strip 205, thus restoring its buffering function. In use, through the cooperation of the round rod 208, the limiting block 1 209, and the limiting block 2010, the connecting block 24 and its parts will not be interfered with by the frictional force between the friction strip 205 and the friction block 206 during the reset process, thereby allowing the reset operation to be completed quickly and improving efficiency.

[0045] Example 2, based on Example 1, such as Figure 3 As shown, it also includes an adjustment assembly, which includes a connecting block 4 2011 and a round rod 3 2012; the connecting block 4 2011 is bolted to the cylinder 1, and the connecting block 4 2011 is slidably connected to the connecting block 1 3. The connecting block 4 2011 is made of metal; each connecting block 1 3 is inserted with a round rod 3 2012; the connecting block 4 2011 has three fixing holes 93; the round rod 3 2012 is inserted into the corresponding fixing hole 93.

[0046] The end of the round rod 32012 is provided with a flange, which makes it easy to pull out manually.

[0047] A special ceramic stirring processing method includes the following steps:

[0048] Step 1: Moving the clay cylinders is manually moved to the top of the curved plate 5.

[0049] Step 2, Insertion: Manually insert the cylindrical clay into the outside of the cutter 6, and let the cylindrical clay rest on the curved plate 5;

[0050] Step 3: Flip over. Under the action of gravity, the arc plate 5, the cutter 6, and the cylindrical clay are flipped to a vertical position. At this time, the lower end of the cylindrical clay is immersed in the slurry of the cylinder 1.

[0051] Step four, release: the cylindrical clay detaches from cutter 6 and falls completely into the slurry;

[0052] Step 5: Stirring. Use the stirring blade 204 to thoroughly stir the cylindrical clay and slurry.

[0053] During each processing cycle, the slurry level inside cylinder 1 varies. If the slurry level is too high, the ends of the arc plate 5 and cutter 6 will be submerged in the slurry after they are flipped to a vertical position, making cleaning difficult. If the slurry level is too low, the lower ends of the cylindrical clay on the arc plate 5 and cutter 6 will not be able to be submerged in the slurry after they are flipped to a vertical position, causing the cylindrical clay to fall freely into the slurry and splash. Therefore, before stirring, the cylindrical rod 3 2012 is manually pulled out, and then the connecting block 1 3 is moved to the connecting block 4 20. Slide the 11-axis to adjust the height of the connecting block 3, then insert the round rod 3 2012 into the corresponding fixing hole 93, and re-fix the connecting block 3 onto the connecting block 4 2011 to complete the height adjustment operation of the arc plate 5 and the cutter 6. In use, the connecting block 4 2011 and the round rod 3 2012 can be used to adjust the height of the arc plate 5 and the cutter 6, avoiding the problem that the ends of the arc plate 5 and the cutter 6 are submerged in the slurry and that the cylindrical clay cannot be submerged in the slurry.

[0054] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A special ceramic stirring and processing device, comprising a cylinder (1) and a base (2); the base (2) is fixedly connected to the lower side of the cylinder (1); characterized in that: It also includes a connecting block 1 (3), a connecting block 2 (4), an arc plate (5), a cutter (6), a pipe (7), a stirring assembly, and a buffer assembly; the connecting block 1 (3) is connected to the cylinder (1); the connecting block 2 (4) is rotatably connected to the connecting block 1 (3) via a torsion spring shaft; the arc plate (5) is fixed to the connecting block 2 (4); several hollow cutters (6) are fixed to the arc plate (5); several grooves (91) are provided on each cutter (6); several vent holes (92) are provided on each cutter (6); each groove (91) is connected to the interior of the corresponding cutter (6) through the corresponding vent hole (92); a pipe (7) is fixed to each cutter (6) and connected to its interior; the stirring assembly is connected to the cylinder (1) and is used to stir the slurry in the cylinder (1); the buffer assembly is connected to the connecting block 1 (3) and is used to buffer the rotating connecting block 2 (4).

2. The special ceramic stirring and processing device according to claim 1, characterized in that: The stirring assembly includes a connecting block three (201), a motor (202), a round rod one (203), and stirring blades (204); the connecting block three (201) is fixedly connected to the cylinder (1); the motor (202) is fixedly connected to the connecting block three (201); the round rod one (203) is fixedly connected to the output end of the motor (202), and the round rod one (203) is rotatably connected to the connecting block three (201); a number of stirring blades (204) are fixedly connected to the round rod one (203).

3. A special ceramic stirring and processing device according to claim 2, characterized in that: The cylinder (1), the rod (203), and the stirring blade (204) are all made of rust-proof material.

4. A special ceramic stirring and processing device according to claim 2, characterized in that: The buffer assembly includes friction strips (205) and friction blocks (206); several friction strips (205) are fixedly connected to connecting block one (3); several friction blocks (206) are connected to connecting block two (4); a friction surface is provided on the lower side of the friction block (206) near the friction strip (205), and a clearance groove (94) is provided on the lower side of the friction block (206) away from the friction strip (205).

5. A special ceramic stirring and processing device according to claim 4, characterized in that: It also includes a friction plate (207); a friction plate (207) is fixedly attached to the upper part of each friction strip (205), and the friction coefficient of the friction plate (207) is greater than that of the friction strip (205).

6. A special ceramic stirring and processing device according to claim 5, characterized in that: It also includes auxiliary components, including a second round rod (208), a first limiting block (209) and a second limiting block (2010); each friction block (206) is damped and slidably connected to the second connecting block (4); a second round rod (208) is fixedly attached to each friction block (206); several first limiting blocks (209) are fixedly attached to the first connecting block (3), and the first limiting block (209) is provided with an inclined surface; the second limiting block (2010) is fixedly attached to the first connecting block (3), and the second limiting block (2010) is provided with an inclined surface.

7. A special ceramic stirring and processing device according to claim 6, characterized in that: It also includes an adjustment component, which includes a connecting block four (2011) and a round rod three (2012); the connecting block four (2011) is fixedly connected to the cylinder (1), and the connecting block four (2011) is slidably connected to the connecting block one (3); a round rod three (2012) is inserted into each connecting block one (3); several fixing holes (93) are opened on the connecting block four (2011); the round rod three (2012) is inserted into the corresponding fixing hole (93).

8. A special ceramic stirring and processing device according to claim 7, characterized in that: A flange is provided at the end of the round rod three (2012).

9. A special ceramic stirring and processing device according to claim 8, characterized in that: The second round rod (208), the first limiting block (209), and the second limiting block (2010) are all made of wear-resistant material.

10. A special ceramic stirring and processing method, characterized in that, This method uses a special ceramic stirring and processing device as described in claim 9, and includes the following working steps: Step 1, transportation: The cylindrical clay is manually transported to the top of the curved plate (5); Step 2, Insertion: Manually insert the cylindrical clay into the outside of the cutter (6) and place the cylindrical clay on the arc plate (5); Step 3, flipping. Under the action of gravity, the arc plate (5), the cutter (6) and the cylindrical clay are flipped to a vertical position. At this time, the lower end of the cylindrical clay is immersed in the slurry of the cylinder (1). Step four, release, the cylindrical clay detaches from the cutter (6) and falls completely into the slurry; Step 5, stirring: The cylindrical clay and slurry are thoroughly stirred by the stirring blade (204).

Images