Special ceramic stirring processing device and processing method

Abstract

The invention relates to the technical field of ceramic processing, in particular to a special ceramic stirring processing device and processing method.The special ceramic stirring processing device comprises an arc-shaped plate, a cutter, a pipeline, a stirring assembly and a buffering assembly; the cylinder is connected with a connecting block I; the first connecting block is rotationally connected with a second connecting block through a torsion spring rotating shaft. A second connecting block, an arc-shaped plate and a cutter are matched, cylindrical argil is put into slurry of a cylinder, and compared with the prior art, the problem that the edge of the cylinder shears the argil is solved, so that the problem that argil blocks are manually picked up and put into the cylinder again is solved, and efficiency is improved. The cylindrical argil can slide down into the slurry in the cylinder without manual control, an operator can immediately go to a raw material stacking area to carry new cylindrical argil, the efficiency is further improved, and meanwhile, the cylindrical argil can be pre-cut by the cutter so that the cylindrical argil can be mixed with the slurry in the cylinder more easily.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of ceramic processing. More particularly, the present application relates to a special ceramic stirring processing device and processing method. BACKGROUND

[0002] In the production and processing of ceramics, it is necessary to stir the clay into slurry. The current operation process is as follows: manually transport the cylindrical clay horizontally to the side of the stirring barrel, first place it horizontally on the edge of the barrel, then slowly right it to the vertical state, and gently slide it along the barrel wall. When the bottom of the clay touches the slurry, release it to allow it to fall naturally, thereby avoiding splashing of the slurry.

[0003] However, in the process of placing the cylindrical clay on the edge of the stirring barrel, the barrel edge is easily inserted into the interior of the clay. When the clay is righted and slides down, the barrel edge will exert a shearing action on the clay, causing some of the clay to be stripped off. These fragments need to be picked up manually and reinserted into the stirring barrel, increasing the operation steps and reducing efficiency, and the overall process is cumbersome.

[0004] In view of the above, the present application provides a special ceramic stirring processing device and processing method to improve the above-mentioned technical problems. SUMMARY

[0005] In order to overcome the shearing action of the barrel edge on the clay, causing some of the clay to be stripped off, these sheared clay fragments need to be picked up manually and reinserted into the stirring barrel, not only increasing the operation steps, but also reducing the work efficiency, the present application provides a special ceramic stirring processing device and processing method.

[0006] The technical implementation scheme of the present application is: a special ceramic stirring processing device, comprising a cylinder and a base; the lower side of the cylinder is fixedly connected with the base; further comprising a connecting block one, a connecting block two, an arc-shaped plate, a cutter, a pipeline, a stirring assembly and a buffer assembly; the cylinder is connected with the connecting block one; the connecting block one is rotatably connected with the connecting block two through a torsion spring shaft; the connecting block two is fixedly connected with the arc-shaped plate; the arc-shaped plate is fixedly connected with a plurality of hollow cutters; a plurality of grooves are formed in each cutter; a plurality of air holes are formed in each cutter; each groove is in communication with the corresponding cutter through the corresponding air hole; each cutter is fixedly connected with a pipeline in communication with its interior; the cylinder is connected with the stirring assembly, which is used for stirring the slurry in the cylinder; the connecting block one is connected with the buffer assembly, which is used for buffering the connecting block two in rotation.

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

[0008] Further, in the special ceramic stirring processing device, the cylinder, the first circular rod and the stirring blade are made of rust-proof material.

[0009] Further, in the special ceramic stirring processing device, the buffer assembly comprises friction strips and friction blocks; the first connecting block is fixed with a plurality of friction strips; the second connecting block is connected with a plurality of friction blocks; the lower side of each friction block is provided with a friction surface close to the friction strip, and the lower side of each friction block is provided with a avoiding groove away from the friction strip.

[0010] Further, in the special ceramic stirring processing device, the buffer assembly comprises friction strips and friction blocks; the first connecting block is fixed with a plurality of friction strips; the second connecting block is connected with a plurality of friction blocks; the lower side of each friction block is provided with a friction surface close to the friction strip, and the lower side of each friction block is provided with a avoiding groove away from the friction strip.

[0011] Further, in the special ceramic stirring processing device, the buffer assembly comprises friction strips and friction blocks; the first connecting block is fixed with a plurality of friction strips; the second connecting block is connected with a plurality of friction blocks; the lower side of each friction block is provided with a friction surface close to the friction strip, and the lower side of each friction block is provided with a avoiding groove away from the friction strip.

[0012] Further, in the special ceramic stirring processing device, the buffer assembly comprises friction strips and friction blocks; the first connecting block is fixed with a plurality of friction strips; the second connecting block is connected with a plurality of friction blocks; the lower side of each friction block is provided with a friction surface close to the friction strip, and the lower side of each friction block is provided with a avoiding groove away from the friction strip.

[0013] Further, in the special ceramic stirring processing device, the buffer assembly comprises friction strips and friction blocks; the first connecting block is fixed with a plurality of friction strips; the second connecting block is connected with a plurality of friction blocks; the lower side of each friction block is provided with a friction surface close to the friction strip, and the lower side of each friction block is provided with a avoiding groove away from the friction strip.

[0014] Further, in the special ceramic stirring processing device, the buffer assembly comprises friction strips and friction blocks; the first connecting block is fixed with a plurality of friction strips; the second connecting block is connected with a plurality of friction blocks; the lower side of each friction block is provided with a friction surface close to the friction strip, and the lower side of each friction block is provided with a avoiding groove away from the friction strip.

[0015] A special ceramic stirring processing method comprises the following working steps: Step one, carrying, manually carrying the cylindrical clay to the upper side of the arc-shaped plate; Step two, inserting, manually inserting the cylindrical clay into the outside of the cutter, and allowing the cylindrical clay to be supported on the arc-shaped plate; Step three, turning over, under the action of gravity, the arc-shaped plate, the cutter and the cylindrical clay are turned over to a vertical state, at this time the lower end of the cylindrical clay is immersed in the slurry in the cylinder; Step four, releasing, the cylindrical clay is separated from the cutter and completely falls into the slurry; Step five, stirring, the cylindrical clay and the slurry are fully stirred by the stirring blade.

[0016] The present application has the following advantages: 1. The connecting block, 2. The arc-shaped plate and the cutter cooperate, the cylindrical pottery clay is put into the slurry in the cylinder, compared with the prior art, the shearing problem of the pottery clay by the edge of the cylinder is avoided, thereby avoiding the problem of manually picking up the pottery clay block and re-feeding into the cylinder, which is beneficial to improve the efficiency, at the same time, after the cylindrical pottery clay is inserted into the cutter, manual control is not needed for the cylindrical pottery clay to slide down into the slurry in the cylinder, the operator can immediately go to the raw material stacking area to carry new cylindrical pottery clay, further improving the efficiency, at the same time, the cutter can pre-cut the cylindrical pottery clay, so that it is easier to mix with the slurry in the cylinder; 2. The recess on the cutter enhances the fixing effect of the pottery clay and reduces the risk of falling off, at the same time, the friction strip and the friction block cooperate to make the cylindrical pottery clay slowly turn to the vertical state, which is beneficial to improve the stability of the turning process and further reduce the risk of falling off, so as to prevent the cylindrical pottery clay from directly falling from a high place into the slurry in the cylinder and causing splashing problem, at the same time, the friction block and the friction sheet cooperate to provide support force for the cylindrical pottery clay when it is inserted into the cutter, greatly reducing the difficulty of insertion, at the same time, the circular rod two, the limiting block one and the limiting block two cooperate to make the connecting block two and the parts thereon not be interfered by the friction force between the friction strip and the friction block during the resetting process, so that the resetting operation can be quickly completed, which is beneficial to improve the efficiency; 3. The connecting block four and the circular rod three cooperate to adjust the height of the arc-shaped plate and the cutter, avoiding the problem that the end of the arc-shaped plate and the cutter is immersed into the slurry and the cylindrical pottery clay cannot be immersed into the slurry. BRIEF DESCRIPTION OF DRAWINGS

[0017] Figure 1 The structure schematic diagram of the special ceramic stirring processing device is shown; Figure 2 The structure schematic diagram of the inside of the cylinder is shown; Figure 3 The structure schematic diagram of the adjusting assembly is shown; Figure 4 The structure schematic diagram of the cutter is shown; Figure 5 The structure schematic diagram of the buffer assembly is shown; Figure 6 The structure schematic diagram of the auxiliary assembly is shown; Figure 7 The structure schematic diagram of the friction block is shown; Figure 8 The structure schematic diagram of the avoiding groove is shown.

[0018] The parts in the accompanying drawings are marked as follows: 1-cylinder, 2-base, 3-connecting block one, 4-connecting block two, 5-arc plate, 6-cutter, 7-pipeline, 201-connecting block three, 202-motor, 203-round rod one, 204-stirring blade, 205-friction strip, 206-friction block, 207-friction plate, 208-round rod two, 209-limiting block one, 2010-limiting block two, 2011-connecting block four, 2012-round rod three, 91-groove, 92-vent, 93-fixing hole, 94-avoidance groove. DETAILED DESCRIPTION

[0019] To make the objectives, technical solutions, and advantages of the present invention more apparent, the present invention will be further described in detail below with reference to the accompanying drawings. It is hereby stated that any directional terms such as "up," "down," "left," "right," "front," "back," "inside," and "outside" that appear or will appear herein are based solely on the accompanying drawings and are not intended to limit the present invention.

[0020] Example 1, a special ceramic stirring processing device, such as Figures 1-8 As shown, it 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 3, a connecting block 4, an arc plate 5, a cutter 6, a pipe 7, a stirring assembly and a buffer assembly; the cylinder 1 is connected to the connecting block 3; the connecting block 3 is rotatably connected to the connecting block 4 through a torsion spring shaft; the connecting block 2 4 is welded with an arc plate 5; two hollow cutters 6 are bolted to the arc plate 5; each cutter 6 is provided with a groove 91; each cutter 6 is provided with a vent hole 92; each groove 91 is connected to the interior of the corresponding cutter 6 through the corresponding vent hole 92; each cutter 6 is welded with a pipe 7 connected to its interior; the cylinder 1 is connected to the stirring assembly; the connecting block 3 is connected to the buffer assembly.

[0021] The stirring assembly includes a connecting block three 201, a motor 202, a round rod 1 203 and a stirring blade 204; the connecting block three 201 is bolted to the cylinder 1, and the connecting block three 201 is made of metal; the connecting block three 201 is bolted to the motor 202; the output end of the motor 202 is fixedly connected to the round rod 1 203, and the round rod 1 203 is rotatably connected to the connecting block three 201; four stirring blades 204 are welded to the round rod 1 203, and the motor 202 drives the round rod 1 203 to rotate, and the round rod 1 203 drives the stirring blades 204 to rotate.

[0022] The cylinder 1, the round rod 203 and the stirring blade 204 are all made of rust-proof material.

[0023] The buffer assembly comprises friction strips 205 and friction blocks 206; two friction strips 205 are fixed on the connecting block one 3; two friction blocks 206 are connected on the connecting block two 4; the friction block 206 generates high friction when sliding on the surface of the friction strip 205, thereby achieving buffering; the lower side of the friction block 206 is provided with a friction surface close to the friction strip 205, and the lower side of the friction block 206 is provided with an avoiding groove 94 away from the friction strip 205.

[0024] The friction plate 207 is further included; one friction plate 207 is fixed on the upper portion of each friction strip 205; the friction coefficient of the friction plate 207 is greater than that of the friction strip 205.

[0025] The auxiliary assembly is further included, which comprises a round rod two 208, a limiting block one 209 and a limiting block two 210; each friction block 206 is in damping sliding connection with the connecting block two 4; one round rod two 208 is welded on each friction block 206; two limiting block ones 209 are bolted on the connecting block one 3, and the limiting block one 209 is provided with an inclined surface; the limiting block two 210 is bolted on the connecting block one 3, and the limiting block two 210 is provided with an inclined surface.

[0026] The round rod two 208, the limiting block one 209 and the limiting block two 210 are all made of wear-resistant material, which is used to reduce wear and improve service life.

[0027] Firstly, the external air pump is connected to the pipeline 7 through a hose, the cylinder 1 is provided with slurry, the motor 202 is started, the motor 202 drives the round rod one 203 to rotate, the round rod one 203 drives the stirring blade 204 to rotate, and the stirring blade 204 stirs the slurry in the cylinder 1, then the horizontal cylindrical pottery clay is manually carried above the arc-shaped plate 5, the right end of the cylindrical pottery clay exceeds the right end of the arc-shaped plate 5, then the cylindrical pottery clay is driven to move downward, so that the lower portion of the cylindrical pottery clay contacts with the arc-shaped plate 5, at this time, the cylindrical pottery clay is supported on the arc-shaped plate 5, and the cutter 6 is inserted into the cylindrical pottery clay, the blade of the cutter 6 is still located in the cylindrical pottery clay, and the cutter 6 does not completely cut the cylindrical pottery clay, when the cutter 6 is inserted into the cylindrical pottery clay, the cylindrical pottery clay is extruded, so that the cylindrical pottery clay is tightly attached to the surface of the cutter 6, because the cylindrical pottery clay has certain viscosity, the cylindrical pottery clay is adhered to the cutter 6, like Figure 3As shown, the moment of force of the arc-shaped plate 5, the cutter 6 and the right side of the cylindrical clay body is much larger than that of the left side, with the rotation shaft of the connecting block two 4 as the center, so that the connecting block two 4, the arc-shaped plate 5, the cutter 6 and the cylindrical clay body rotate to the right and down around the torsion spring rotation shaft on the connecting block one 3, so that the cylindrical clay body is slowly turned to the vertical state, at this time, the lower part of the cylindrical clay body is immersed in the slurry in the cylinder 1, and the weight of the cylindrical clay body no longer acts on the arc-shaped plate 5, and the weight of the cylindrical clay body is much larger than the adhesion between the cylindrical clay body and the cutter 6, so that the cylindrical clay body slides into the slurry in the cylinder 1, avoiding the problem of clay being sheared, which is beneficial to improve the efficiency, and after the cylindrical clay body is far away from the arc-shaped plate 5 and the cutter 6, the torsion spring rotation shaft on the connecting block one 3 drives the connecting block two 4 and the parts thereon to turn back to the original position, completing the reset operation, after the cylindrical clay body is inserted into the cutter 6 by artificial, it is not necessary to control it to slide down to the slurry in the cylinder 1 by artificial; when in use, the cylindrical clay body is put into the slurry in the cylinder 1 through the cooperation of the connecting block two 4, the arc-shaped plate 5 and the cutter 6, compared with the prior art, the problem of the cylindrical clay body being sheared by the edge of the cylinder 1 does not occur, thereby avoiding the problem that the artificial needs to pick up the clay block and put it into the cylinder 1 again, which is beneficial to improve the efficiency, at the same time, after the cylindrical clay body is inserted into the cutter 6 by artificial, it is not necessary to control it to slide down to the slurry in the cylinder 1 by artificial, the operator can immediately go to the raw material stacking area to carry new cylindrical clay, which further improves the efficiency, at the same time, the cutter 6 can perform pre-cutting operation on the cylindrical clay body, so that the cylindrical clay body is more easily mixed into the slurry in the cylinder 1.

[0028] During the rotation of the connecting block two 4, the arc-shaped plate 5, the cutter 6 and the cylindrical pottery around the connecting block one 3, only the adhesion force is used to fix the cylindrical pottery, and the cylindrical pottery may fall off, so that the cylindrical pottery directly falls from a high place into the slurry of the cylinder 1, and the splashing phenomenon occurs. Therefore, after the manual insertion of the cylindrical pottery into the cutter 6, the cylindrical pottery is in close contact with the surface of the cutter 6, and then the external air pump is used to pump the pipeline 7, so that part of the air in the groove 91 flows into the cutter 6 from the air hole 92, and then flows into the pipeline 7 from the cutter 6, and then flows into the external air pump from the pipeline 7, so that the negative pressure is formed in the groove 91, the suction force is provided for the cylindrical pottery, the fixing effect of the cylindrical pottery is enhanced, and the risk of falling off is reduced. When the cylindrical pottery rotates to the vertical state, the external air pump is used to send air to the groove 91, so that the groove 91 stops providing suction force for the cylindrical pottery, so that the cylindrical pottery slides into the slurry of the cylinder 1. During the rotation of the connecting block two 4, the arc-shaped plate 5, the cutter 6 and the cylindrical pottery around the connecting block one 3, the connecting block two 4 drives the friction block 206 to move, so that the friction block 206 slides on the surface of the friction strip 205. During this process, the friction resistance is generated between the friction strip 205 and the friction block 206, so that the connecting block two 4, the arc-shaped plate 5, the cutter 6 and the cylindrical pottery rotate slowly, and then the cylindrical pottery is slowly turned to the vertical state, which is beneficial to improve the stability of the turning process and further reduce the risk of falling off. When in use, the groove 91 is formed on the cutter 6 to improve the fixing effect of the cylindrical pottery and reduce the risk of falling off. At the same time, the cooperation of the friction strip 205 and the friction block 206 enables the cylindrical pottery to slowly turn to the vertical state, which is beneficial to improve the stability of the turning process and further reduce the risk of falling off, so as to prevent the cylindrical pottery from directly falling from a high place into the slurry of the cylinder 1 to cause the splashing problem.

[0029] During the insertion of the cylindrical pottery into the cutter 6, the arc-shaped plate 5 is in a free state, and the support force provided is limited, so that the insertion difficulty of the cylindrical pottery is increased. Therefore, the friction sheet 207 is arranged on the friction strip 205, the friction coefficient of the friction sheet 207 is much larger than that of the friction strip 205, and the initial stage of the insertion of the cylindrical pottery into the cutter 6 is pressed. The force drives the connecting block two 4, the arc-shaped plate 5 and the cutter 6 to rotate, the connecting block two 4 drives the friction block 206 to contact the friction sheet 207, so that the friction block 206 and the friction sheet 207 generate a large friction resistance therebetween to resist the pressing force, and the insertion difficulty of the cylindrical pottery is greatly reduced. After the insertion is completed, the friction block 206 is just away from the friction sheet 207 and contacts the friction strip 205, and the friction strip 205 and the friction block 206 generate a small friction force therebetween for buffering and deceleration. When in use, the cooperation of the friction block 206 and the friction sheet 207 provides support force for the process of inserting the cylindrical pottery into the cutter 6, and greatly reduces the insertion difficulty of the cylindrical pottery.

[0030] In the resetting process of the connecting block two 4 and the parts thereon, the friction between the friction strip 205 and the friction block 206 slows down the resetting speed, so that the problem of artificial carrying the cylindrical pottery to the edge of the cylinder 1, while the arc-shaped plate 5 has not been reset completely, may occur, resulting in low efficiency. Therefore, the auxiliary assembly is additionally arranged on the connecting block one 3. When the cylindrical pottery is turned to the vertical state, the connecting block two 4 drives the friction block 206 and the round rod two 208 to turn to the horizontal state. In this process, the round rod two 208 is in contact with the inclined surface of the limiting block two 2010, and the two round rod two 208 are forced to move in opposite directions by the limiting block two 2010. The round rod two 208 drives the two friction blocks 206 to move in opposite directions, so that the friction surface of the friction block 206 is away from the friction strip 205, and the avoiding groove 94 is aligned with the friction strip 205. Then the torsion shaft on the connecting block one 3 drives the connecting block two 4 and the parts thereon to reset. The connecting block two 4 drives the friction block 206 to rotate. Since the avoiding groove 94 is aligned with the friction strip 205, the friction surface of the friction block 206 will not contact the friction strip 205 in this process, that is, no friction force will interfere with the resetting operation, so that the resetting operation can be quickly completed. When the connecting block two 4 drives the friction block 206 and the round rod two 208 to rotate back to the vertical state, the round rod two 208 is in contact with the inclined surface of the limiting block one 209. The limiting block one 209 forces the round rod two 208 to move, so that the two round rod two 208 move towards each other. The round rod two 208 drives the two friction blocks 206 to move towards each other, so that the friction surface of the friction block 206 is re-aligned with the friction strip 205, so that it re-acquires the buffering function. In use, the round rod two 208, the limiting block one 209 and the limiting block two 2010 cooperate to prevent the resetting process of the connecting block two 4 and the parts thereon from being interfered by the friction between the friction strip 205 and the friction block 206, so that the resetting operation can be quickly completed, which is beneficial to improve the efficiency.

[0031] In example 2, on the basis of example 1, as shown in Figure 3 It further includes an adjusting assembly. The adjusting assembly includes a connecting block four 2011 and a round rod three 2012. The connecting block four 2011 is bolted to the cylinder 1 and is in sliding connection with the connecting block one 3. The connecting block four 2011 is made of metal. One round rod three 2012 is inserted into each connecting block one 3. Three fixing holes 93 are formed in the connecting block four 2011. The round rod three 2012 is inserted into the corresponding fixing hole 93.

[0032] The end of the round rod three 2012 is provided with a flange, which facilitates manual force to pull out.

[0033] A special ceramic stirring processing method, including the following working steps: Step one, carrying, manually carrying the cylindrical pottery to above the arc-shaped plate 5; Step two, inserting, manually inserting the cylindrical pottery into the outside of the cutter 6, and making the cylindrical pottery supported on the arc-shaped plate 5; Step three, overturning, under the action of gravity, the arc-shaped plate 5 and the cutter 6 and the cylindrical clay overturn to the vertical state, at this time, the lower end of the cylindrical clay is immersed in the slurry of the cylinder 1; Step four, releasing, the cylindrical clay is separated from the cutter 6 and completely falls into the slurry; Step five, stirring, the cylindrical clay and the slurry are fully stirred by the stirring blade 204.

[0034] During each processing, the liquid level of the slurry in the cylinder 1 is different, if the liquid level of the slurry is too high, the end of the arc-shaped plate 5 and the cutter 6 will be immersed in the slurry after overturning to the vertical state, which is difficult to clean, if the liquid level of the slurry is too low, the lower end of the cylindrical clay on the arc-shaped plate 5 and the cutter 6 cannot be immersed in the slurry after overturning to the vertical state, and the free fall of the cylindrical clay into the slurry will cause splashing, therefore, before stirring, the circular rod three 2012 is pulled out, then the connecting block one 3 is slid on the connecting block four 2011 to adjust the height position of the connecting block one 3, then the circular rod three 2012 is inserted into the corresponding fixed hole 93, the connecting block one 3 is fixed on the connecting block four 2011 again, and the height adjustment operation of the arc-shaped plate 5 and the cutter 6 is completed; in use, the height adjustment operation of the arc-shaped plate 5 and the cutter 6 can be realized through the cooperation of the connecting block four 2011 and the circular rod three 2012, so as to avoid the problems that the end of the arc-shaped plate 5 and the cutter 6 is immersed in the slurry and the cylindrical clay cannot be immersed in the slurry.

[0035] The above only describes the preferred embodiments of the present application and is not used to limit the present application, any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present application shall be included in the protection scope of the present application.

Claims

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

2. A special ceramic stirring processing device according to claim 1, characterized in that: The stirring assembly comprises a connecting block three (201), a motor (202), a round rod one (203) and a stirring blade (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); and a plurality of stirring blades (204) are fixedly connected to the round rod one (203).

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

4. A special ceramic stirring processing device according to claim 2, characterized in that: The buffer assembly comprises a friction strip (205) and a friction block (206); a plurality of friction strips (205) are fixedly connected to the first connecting block (3); a plurality of friction blocks (206) are connected to the second connecting block (4); a friction surface is provided on the lower side of the friction block (206) close to the friction strip (205), and an avoidance groove (94) is provided on the lower side of the friction block (206) away from the friction strip (205).

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

6. A special ceramic stirring processing device according to claim 5, characterized in that: The invention also includes an auxiliary component, which includes a round rod 2 (208), a limit block 1 (209) and a limit block 2 (210); each friction block (206) is connected to the connecting block 2 (4) in a damping sliding manner; each friction block (206) is fixedly connected to a round rod 2 (208); a plurality of limit blocks 1 (209) are fixedly connected to the connecting block 1 (3), and the limit block 1 (209) is provided with an inclined surface; the limit block 2 (210) is fixedly connected to the connecting block 1 (3), and the limit block 2 (210) is provided with an inclined surface.

7. A special ceramic stirring processing device according to claim 6, characterized in that: The invention 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); each connecting block one (3) is plugged with a round rod three (2012); a plurality of fixing holes (93) are opened on the connecting block four (2011); and the round rod three (2012) is inserted into the corresponding fixing holes (93).

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

9. A special ceramic stirring processing device according to claim 8, characterized in that: Round rod 2 (208), limit block 1 (209) and limit block 2 (2010) are all made of wear-resistant material.

10. A special ceramic stirring processing method, characterized in that: The method uses the special ceramic stirring processing device described in claim 9 and includes the following working steps: Step 1: transporting, manually transporting the cylindrical clay to the top of the curved plate (5); Step 2: inserting, manually inserting the cylindrical clay to the outside of the cutter (6), and allowing the cylindrical clay to be supported on the curved plate (5); Step three, flipping, under the action of gravity, the curved plate (5), the cutter (6) and the cylindrical clay are flipped to a vertical state, at which time the lower end of the cylindrical clay is immersed in the slurry of the cylinder (1); Step 4: releasing, the cylindrical clay is separated from the cutter (6) and falls completely into the slurry; Step 5: stirring, the cylindrical clay and the slurry are fully stirred by the stirring blade (204).

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