High-toughness foam glaze celadon processing equipment and process thereof

Abstract

The processing equipment comprises a base, a sealing shell, a sleeve, a partition plate, a transmission mechanism, a containing barrel, first teeth, second teeth, a material taking and placing opening and a control panel, the sealing shell is fixed to the upper side face of the base, and the sleeve is rotationally installed on the outer side face of the sealing shell; the sealing shell and the sleeve are each provided with a material taking and placing opening. A partition plate is fixed in the sealing shell, and transmission mechanisms are arranged on the two sides of the partition plate; a containing barrel is rotationally installed on the transmission mechanism, and first teeth are fixed to the outer side face of the containing barrel. Second teeth are fixed on the upper and lower side surfaces of the partition plate; a control panel is fixed to the outer side face of the sleeve. According to the high-toughness foam-gathering glaze celadon processing equipment and the process thereof, unitary glaze and binary glaze can be classified and ground at the same time, then, a containing barrel after grinding can be stopped independently, and in addition, when discharging is needed, foam-gathering glaze raw materials needing to be discharged can be filtered.

Description

Technical Field

[0001] The invention relates to the field of high-toughness polyfoam glaze celadon processing, in particular to high-toughness polyfoam glaze celadon processing equipment and a process thereof. Background Art

[0002] High-toughness foam-glazed celadon is a new ceramic material that enhances impact resistance and toughness by adding nano-scale foaming agents (such as zirconium dioxide and aluminum oxide microspheres) to traditional celadon glaze. Its preparation involves precisely mixing a mono-glaze (basic silicate component) with a di-glaze (functional additive) and firing it at high temperatures to create a microscopically porous structure. This significantly improves the fragility and poor thermal shock resistance of traditional celadon, making it widely used in high-end tableware, artistic porcelain, and industrial ceramics.

[0003] Existing glaze production devices mainly adopt the design of a single holding barrel and a fixed grinding chamber. The centrifugal force generated by the rotation of the barrel drives the grinding balls to impact the raw materials. However, the existing glaze production devices have the following defects in actual use: First, the existing glaze production device can only grind a single foam glaze raw material at a time, and the grinding efficiency is low; secondly, since foam glaze celadon needs to be sprayed with a single glaze and a binary glaze during production, and since the components of the single glaze and the binary glaze are different, they need to be prepared separately, but the existing device cannot achieve simultaneous preparation by classification, and can only prepare one type before preparing the other; in addition, after the existing device finishes grinding the foam glaze raw material, the foam glaze raw material and the abrasive will be discharged at the same time, so it is necessary to use other filtering tools to remove the abrasive from the inside of the foam glaze raw material.

[0004] Therefore, it is very necessary to invent high-toughness poly-foam glaze celadon processing equipment and technology thereof. Summary of the Invention

[0005] The purpose of the present invention is to provide a high-toughness foam glaze celadon processing equipment and a process thereof, so as to solve the following problems existing in the use of the existing foam glaze celadon processing equipment: first, the existing glaze production device can only grind a single foam glaze raw material at a time, and the grinding efficiency is low; second, since the foam glaze celadon needs to be sprayed with a unitary glaze and a binary glaze during production, and since the components of the unitary glaze and the binary glaze are different, they need to be prepared in a classified manner, but the existing device cannot achieve classified and simultaneous preparation, and can only prepare one type before preparing the other; in addition, the existing device will discharge the foam glaze raw material and the abrasive at the same time after grinding the foam glaze raw material, so it is necessary to use other filtering tools to remove the abrasive from the inside of the foam glaze raw material.

[0006] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: A high-toughness poly-foam glaze celadon processing equipment, comprising a base, a sealing shell, a sleeve, a partition, a transmission mechanism, a receiving barrel, first teeth, second teeth, a material taking and discharging port and a control panel, wherein the upper side of the base is fixed with a sealing shell by bolts, and the outer side of the sealing shell is rotatably mounted with a sleeve through a support bearing, wherein a plurality of material taking and discharging ports are correspondingly opened on the sealing shell and the sleeve; a partition is fixed with a partition inside the sealing shell by bolts, wherein a transmission mechanism is provided on both sides of the partition, and the transmission mechanism is mirrored by the partition; the transmission mechanism is fixed to the inner wall of the sealing shell by bolts, and the transmission mechanism is provided with a plurality of execution ends, and the execution ends of the transmission mechanism are rotatably mounted with a receiving barrel through a support bearing, wherein a plurality of first teeth are fixed to the outer side of the receiving barrel by welding; a plurality of second teeth are fixed to the upper and lower sides of the partition by welding, wherein the corresponding second teeth are engaged with the corresponding first teeth; a control panel is fixed with bolts on the outer side of the sleeve, wherein the control panel is electrically connected to the transmission mechanism through a data cable.

[0007] Furthermore, the transmission mechanism includes a mounting plate, a servo motor, a turntable and a connecting frame, the outer edge of the mounting plate is fixed to the inner wall of the sealing shell by bolts, and a servo motor is fixed to one side of the mounting plate by bolts, wherein the output end of the servo motor is fixed with a turntable; the turntable is rotatably connected to the mounting plate through a support bearing, and a plurality of connecting frames are evenly fixed to the side of the turntable away from the mounting plate by bolts, wherein the other end of the connecting frame is rotatably mounted with a holding barrel through a support bearing; the servo motor is electrically connected to the control panel through a data cable. Such a setting can drive the holding barrel to move accordingly, and then the holding barrel is rotated by the cooperation of the first teeth and the second teeth.

[0008] Furthermore, the connecting frame includes a first frame, a first cylinder, a second frame and a limiting column, one end of the first frame is fixed to the turntable by bolts, and the first cylinder is fixed to the inside of the first frame by bolts; the output end of the first cylinder is fixed to the second frame by bolts, wherein the end of the second frame away from the first cylinder is rotatably mounted with a receiving barrel through a support bearing; the end of the second frame close to the first cylinder is fixed with at least one limiting column by welding, wherein the limiting column is slidingly connected to the first frame; the first cylinder is electrically connected to the control panel through a data cable. Such an arrangement can enable the receiving barrel at this position to stop grinding the internal foam glaze raw materials after the grinding of the foam glaze raw materials inside the receiving barrel is completed.

[0009] Furthermore, the first frame includes an articulated frame, a positioning column and a second cylinder, the first cylinder is fixed to the inside of the articulated frame by bolts, and a limiting column is slidably installed on the articulated frame; one end of the articulated frame is provided with a positioning column installed by articulated rotation, wherein the side of the positioning column is provided with a second cylinder installed by articulated rotation, and the output end of the second cylinder is connected to the articulated frame rotation by articulation; the second cylinder is electrically connected to the control panel via a data cable. Such an arrangement enables the container to be converted between a horizontal state and a vertical state.

[0010] Furthermore, the containing barrel includes a barrel body and a barrel cover, the barrel body is a hollow cylinder with openings at both ends, wherein the outer side surface of the barrel body is rotationally connected to the transmission mechanism through a support bearing, and the outer side surface of the barrel body is fixed with a plurality of first teeth by welding; both ends of the barrel body are fixed with the barrel cover by threaded engagement. Such an arrangement facilitates the removal or storage of the polyfoam glaze raw materials inside the containing barrel.

[0011] Furthermore, the barrel cover includes a cover body, a stud, a baffle, a clevis nut, a filter and a drain port, the cover body is fixed to the barrel body by threaded engagement, and the side of the cover body away from the barrel body is fixed with a stud by welding; the outer side of the stud is rotatably mounted with a baffle through a sealed bearing, wherein a clevis nut is provided on the side of the baffle away from the cover body, and the clevis nut is connected to the stud by threaded engagement; drain ports are correspondingly opened on the cover body and the baffle, wherein a filter is fixed inside the drain port on the cover body, such a setting can filter the discharged polyfoam glaze raw materials.

[0012] Furthermore, a plurality of handles are fixed to the outer side surface of the sleeve by bolts. With this arrangement, a user can use the handles to rotate the sleeve on the sealing shell.

[0013] Furthermore, sound insulation cotton is fixed to the inner wall of the sealing shell. With this arrangement, the sound insulation cotton can isolate the noise inside the sealing shell, thereby reducing the noise of the device when in use.

[0014] Furthermore, the process of the high-toughness foam glaze celadon processing equipment is as follows: Separate storage of monolithic and dicomponent glazes: The raw materials (such as quartz, feldspar, clay, etc.) of monolithic glazes (single component or basic glazes) are weighed proportionally and loaded into multiple holding barrels on one transmission mechanism, with each holding barrel corresponding to one raw material. At the same time, the raw materials (such as metal oxides, nano-scale fillers, etc.) of dicomponent glazes (complex components or functional glazes, such as additives to enhance toughness) are also weighed proportionally and loaded into holding barrels on the second transmission mechanism to achieve classified and isolated storage. In addition, the abrasive is loaded into the holding barrels; Double transmission mechanism linkage start: start the two transmission mechanisms at the same time through the control panel, and set the grinding time according to the type of glaze raw materials stored in the holding barrel, so that the two transmission mechanisms respectively drive the corresponding holding barrel to move accordingly, wherein the holding barrel will rotate under the cooperation of the first teeth and the second teeth, and then through the rotation of the holding barrel, the abrasive grinds the glaze raw materials.

[0015] Segmented stop and continuous grinding: When the grinding time of the raw materials in a certain holding barrel is reached, the control panel sends a signal to the corresponding first cylinder, which moves the holding barrel away from the second teeth through the first cylinder, so that the first teeth disengage, the holding barrel stops rotating, and the grinding is suspended. The holding barrels that have not reached the grinding time continue to move with the transmission mechanism and rotate to grind until all the raw materials reach the grinding time.

[0016] Filtering and discharging: When all the raw materials have reached the grinding time, the handle is used to make the material taking and discharging ports on the sleeve correspond to the material taking and discharging ports on the sealing shell, and then the control panel sends a signal to the second cylinder, and the second cylinder is used to extend the receiving barrel at the position of the material taking and discharging port, and then the ground glaze is filtered and discharged through the receiving barrel.

[0017] Compared with the prior art, the present invention has the following beneficial effects: The arrangement of the present invention, when in use, can classify and store the raw materials of the unitary glaze inside the receiving barrel on one of the transmission mechanisms, and classify and store the raw materials of the binary glaze inside the receiving barrel on the other transmission mechanism, and then the corresponding receiving barrels are moved accordingly through the transmission mechanism, wherein the receiving barrels can rotate with the cooperation of the first teeth and the second teeth, so that the glaze raw materials inside the receiving barrels can be ground at the same time (the raw materials of the unitary glaze and the raw materials of the binary glaze are ground at the same time); secondly, after the glaze raw materials inside one of the receiving barrels are ground, the first teeth on the receiving barrel can be moved away from the second teeth through the corresponding connecting frame (the receiving barrel will stop rotating, and then stop grinding the internal foam glaze raw materials), while the remaining receiving barrels continue to work and grind the remaining foam glaze raw materials; in addition, when discharge is required, the foam glaze raw materials to be discharged can be filtered. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic cross-sectional structural diagram of the present invention.

[0019] Figure 2 It is a schematic diagram of the overall structure of the present invention.

[0020] Figure 3 It is a schematic structural diagram of the present invention after removing the sealing shell.

[0021] Figure 4 It is a schematic diagram of the exploded structure of the transmission mechanism of the present invention.

[0022] Figure 5 It is a structural schematic diagram of the connecting frame of the present invention.

[0023] Figure 6 It is a structural schematic diagram of the first frame of the present invention.

[0024] Figure 7 It is a structural schematic diagram of the container of the present invention.

[0025] Figure 8 It is a structural schematic diagram of the barrel cover of the present invention.

[0026] In the picture: 1-base, 2-sealing shell, 3-sleeve, 4-partition, 5-transmission mechanism, 51-mounting plate, 52-servo motor, 53-turntable, 54-connecting frame, 541-first frame, 5411-hinge frame, 5412-positioning column, 5413-second cylinder, 542-first cylinder, 543-second frame, 544-limiting column, 6-loading barrel, 61-barrel body, 62-barrel cover, 621-cover body, 622-stud, 623-baffle, 624-ram nut, 625-filter, 626-drain port, 7-first tooth, 8-second tooth, 9-feeding port, 10-control panel, 11-handle. DETAILED DESCRIPTION

[0027] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0028] As attached Figure 1-8 As shown: A high-toughness poly-foam glaze celadon processing equipment, including a base 1, a sealing shell 2, a sleeve 3, a partition 4, a transmission mechanism 5, a receiving barrel 6, a first tooth 7, a second tooth 8, a material taking and discharging port 9 and a control panel 10. The upper side of the base 1 is fixed with a sealing shell 2 by bolts, and the outer side of the sealing shell 2 is rotatably mounted with a sleeve 3 through a support bearing, wherein the sealing shell 2 and the sleeve 3 are respectively provided with a plurality of material taking and discharging ports 9; the interior of the sealing shell 2 is fixed with a partition 4 by bolts, wherein both sides of the partition 4 are provided with a transmission mechanism 5, and the transmission mechanism 5 is mirror-set through the partition 4; the transmission mechanism 5 is fixed with a partition 4 by bolts. It is fixed to the inner wall of the sealing shell 2, and the transmission mechanism 5 is provided with several execution ends, and the execution ends of the transmission mechanism 5 are rotatably mounted with a receiving barrel 6 through support bearings, wherein the outer side surface of the receiving barrel 6 is fixed with several first teeth 7 by welding; the upper and lower side surfaces of the partition 4 are fixed with several second teeth 8 by welding, wherein the corresponding second teeth 8 are meshed with the corresponding first teeth 7, and the first teeth 7 and the second teeth 8 are both made of 42CrMo alloy steel; the outer side surface of the sleeve 3 is fixed with a control panel 10 by bolts, wherein the control panel 10 is electrically connected to the transmission mechanism 5 through a data cable.

[0029] Specifically, the transmission mechanism 5 includes a mounting plate 51, a servo motor 52, a turntable 53 and a connecting frame 54. The outer edge of the mounting plate 51 is fixed to the inner wall of the sealed shell 2 by bolts, and the servo motor 52 is fixed to one side of the mounting plate 51 by bolts, wherein the output end of the servo motor 52 is fixed to the turntable 53; the turntable 53 is rotatably connected to the mounting plate 51 through a support bearing, and a plurality of connecting frames 54 are evenly fixed to the side of the turntable 53 away from the mounting plate 51 by bolts, wherein the other end of the connecting frame 54 is rotatably mounted with a holding barrel 6 through a support bearing; the servo motor 52 is electrically connected to the control panel 10 through a data cable, and the servo motor 52 adopts a Mitsubishi MR-JE-100A servo motor with a rated speed of 3000r / min. When in use, the servo motor 52 can drive the turntable 53 to be connected accordingly under the control of the control panel 10, wherein the turntable 53 can drive the holding barrel 6 to move accordingly through the connecting frame 54 during the rotation process, and then the holding barrel 6 is rotated by the cooperation of the first teeth 7 and the second teeth 8.

[0030] Specifically, the connecting frame 54 includes a first frame body 541, a first cylinder 542, a second frame body 543 and a limiting column 544. One end of the first frame body 541 is fixed to the turntable 53 by bolts, and the first cylinder 542 is fixed to the inside of the first frame body 541 by bolts; the output end of the first cylinder 542 is fixed to the second frame body 543 by bolts, wherein the end of the second frame body 543 away from the first cylinder 542 is rotatably mounted with the holding barrel 6 through a support bearing; the end of the second frame body 543 close to the first cylinder 542 is fixed with at least one limiting column 544 by welding, wherein the limiting column 544 is slidably connected to the first frame body 541; the first cylinder 542 is electrically connected to the control panel 10 through a data cable, and the first cylinder 542 adopts the model of SMC The small and compact cylinder of CQ2B40-50D can drive the second frame 543 to gradually approach the first frame 541 through the first cylinder 542 after the grinding of the foam glaze raw materials inside the receiving barrel 6 is completed, so that the first teeth 7 and the second teeth 8 on the receiving barrel 6 are separated, and the receiving barrel 6 at this position stops rotating (when the receiving barrel 6 stops rotating, the grinding of the foam glaze raw materials inside is stopped).

[0031] Specifically, the first frame 541 includes an articulated frame 5411, a positioning column 5412, and a second cylinder 5413. The first cylinder 542 is fixed to the interior of the articulated frame 5411 by bolts, and a limiting column 544 is slidably installed on the articulated frame 5411; one end of the articulated frame 5411 is installed with a positioning column 5412 by hinged rotation, wherein the side of the positioning column 5412 is installed with a second cylinder 5413 by hinged rotation, and the output end of the second cylinder 5413 is connected to the articulated frame 5411 by hinged rotation; the second cylinder 5413 is electrically connected to the control panel 10 through a data cable, and the second cylinder 5413 adopts the model of SMC The small and compact cylinder of CQ2B40-50D can drive the articulated frame 5411 to rotate accordingly on the positioning column 5412 through the second cylinder 5413 when it is necessary to discharge or take out materials, so that the holding barrel 6 is extended at the corresponding position of the material taking and discharging port 9 (the holding barrel 6 is changed from a horizontal state to a vertical state), thereby making it convenient for the staff to take out or store the foam glaze raw materials inside the holding barrel 6.

[0032] Specifically, the containing barrel 6 includes a barrel body 61 and a barrel cover 62. The barrel body 61 is a hollow cylinder with openings at both ends, wherein the outer side surface of the barrel body 61 is rotationally connected to the transmission mechanism 5 through a support bearing, and the outer side surface of the barrel body 61 is fixed with a plurality of first teeth 7 by welding; both ends of the barrel body 61 are fixed with a barrel cover 62 by threaded engagement. When in use, the polyfoam glaze raw material and the abrasive can be placed at the same time in the sealed cavity composed of the barrel body 61 and the barrel cover 62, and then the abrasive can grind the polyfoam glaze raw material through the self-rotation of the containing barrel 6. Secondly, since the barrel cover 62 is provided at both ends of the barrel body 61, when discharging the material, it is only necessary to open the cover 62 at the upper end of the barrel body 61 (the containing barrel 6 is in a vertical state). Similarly, when the grinding is completed and the material needs to be taken out, it is only necessary to open the cover 62 at the lower end of the barrel body 61.

[0033] Specifically, the barrel cover 62 includes a cover body 621, a stud 622, a baffle 623, a clevis nut 624, a filter screen 625 and a drain port 626. The cover body 621 is fixed to the barrel body 61 by threaded engagement, and the side of the cover body 621 away from the barrel body 61 is fixed with the stud 622 by welding; the outer side of the stud 622 is rotatably mounted with a baffle 623 through a sealed bearing, wherein the side of the baffle 623 away from the cover body 621 is provided with a clevis nut 624, and the clevis nut 624 is connected to the stud 622 by threaded engagement; the cover body 621 and the baffle 623 are correspondingly provided with a drain port 626, wherein the drain port 626 on the cover body 621 is fixed with a filter screen 625, and the filter screen 625 is a 316L stainless steel sintered mesh. During the abrasive process, the cover body 621 is fixed by threaded engagement. It is fixed on the barrel body 61, and then the drain port 626 on the baffle 623 and the drain port 626 on the cover body 621 are arranged alternately, so that the baffle 623 blocks and seals the drain port 626 on the cover body 621. At the same time, the baffle 623 is squeezed and fixed by the clevis nut 624. When it is necessary to discharge the material, the barrel cover 62 can be removed from the barrel body 61 by rotating the cover body 621. When it is necessary to discharge the material, the clevis nut 624 can be rotated to make the clevis nut 624 away from the baffle 623, and then the baffle 623 is rotated to make the discharge port 626 on the baffle 623 communicate with the discharge port 626 on the cover body 621, so that the foam glaze raw material inside the barrel body 61 is discharged at the discharge port 626 position, and the abrasive will be stored inside the barrel body 61 under the obstruction of the filter screen 625.

[0034] Specifically, a plurality of handles 11 are fixed to the outer side surface of the sleeve 3 by bolts. With this arrangement, a user can use the handles 11 to rotate the sleeve 3 on the sealing shell 2 .

[0035] Specifically, sound insulation cotton is fixed to the inner wall of the sealing shell 2. With this arrangement, the sound insulation cotton can isolate the noise inside the sealing shell 2, thereby reducing the noise of the device when in use.

[0036] Specifically, the process of a high-toughness poly-foam glaze celadon processing equipment is as follows: Monolithic glazes and binary glazes are stored separately: the raw materials (such as quartz, feldspar, clay, etc.) of the monolithic glaze (single component or basic glaze) are weighed in proportion and loaded into multiple holding barrels 6 on one of the transmission mechanisms 5, with each holding barrel 6 corresponding to one raw material. At the same time, the raw materials (such as metal oxides, nano-scale fillers, etc.) of the binary glaze (composite component or functional glaze, such as additives to enhance toughness) are also weighed in proportion and loaded into the holding barrel 6 on the second transmission mechanism 5 to achieve classified and isolated storage. In addition, the abrasive is loaded into the holding barrel 6; The dual transmission mechanisms are started in linkage: the two transmission mechanisms 5 are started simultaneously through the control panel 10, and the grinding time is set according to the type of glaze raw materials stored in the holding barrel 6, so that the two transmission mechanisms 5 respectively drive the corresponding holding barrel 6 to move accordingly, wherein the holding barrel 6 will rotate with the cooperation of the first teeth 7 and the second teeth 8, and then the abrasive grinds the glaze raw materials through the rotation of the holding barrel 6.

[0037] Segmented stop and continuous grinding: When the grinding time of the raw materials in a certain holding barrel 6 is reached, the control panel 10 sends a signal to the corresponding first cylinder 542, and the holding barrel 6 is translated in the direction away from the second tooth 8 through the first cylinder 542, so that the first tooth 7 is disengaged, the holding barrel 6 stops rotating, and the grinding is suspended. The holding barrel 6 that has not reached the grinding time continues to move and rotate with the transmission mechanism 5 until all the raw materials reach the grinding time.

[0038] Filtering and discharging: When all the raw materials have reached the grinding time, the handle 11 is used to make the material taking and discharging port 9 on the sleeve 3 correspond to the material taking and discharging port 9 on the sealing shell 2, and then the control panel 10 sends a signal to the second cylinder 5413, and the second cylinder 5413 is used to extend the receiving barrel 6 at the position of the material taking and discharging port 9, and then the ground glaze is filtered and discharged through the receiving barrel 6.

[0039] All types of components used in this application document are standard parts, and the specific connection methods of each part adopt conventional means such as mature bolts and welding in the existing technology. Machinery, parts and electrical equipment all adopt conventional models in the existing technology, and circuit connections adopt conventional connection methods in the existing technology. No specific description will be given here.

[0040] To sum up: this high-toughness foam glaze celadon processing equipment and process, when in use, can classify the raw materials of the unitary glaze and the raw materials of the binary glaze and grind them at the same time, thereby improving the grinding efficiency; secondly, after the glaze raw materials inside one of the receiving barrels 6 are ground, the corresponding first cylinder 542 can be used to stop the grinding of the foam glaze raw materials of the corresponding receiving barrel 6, while the remaining receiving barrels 6 continue to work and grind the remaining foam glaze raw materials; in addition, when discharge is required, the foam glaze raw materials that need to be discharged can be filtered.

[0041] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. A high-toughness polyfoam glaze celadon processing device, comprising a base (1), a sealing shell (2), a sleeve (3), a partition (4), a transmission mechanism (5), a receiving barrel (6), a first tooth (7), a second tooth (8), a material taking and discharging port (9) and a control panel (10), characterized in that: A sealing shell (2) is fixed on the upper side of the base (1), and a sleeve (3) is rotatably mounted on the outer side of the sealing shell (2), wherein the sealing shell (2) and the sleeve (3) are correspondingly provided with a plurality of material taking and discharging ports (9); a partition (4) is fixed inside the sealing shell (2), wherein a transmission mechanism (5) is provided on both sides of the partition (4), and the transmission mechanism (5) is mirror-set through the partition (4); the transmission mechanism (5) is fixed to the inner wall of the sealing shell (2), and the transmission mechanism (5) is provided with a plurality of execution ends, and the execution ends of the transmission mechanism (5) are rotatably mounted with a receiving barrel (6), wherein a plurality of first teeth (7) are fixed on the outer side of the receiving barrel (6); a plurality of second teeth (8) are fixed on the upper and lower sides of the partition (4), wherein the corresponding second teeth (8) are meshed with the corresponding first teeth (7); a control panel (10) is fixed on the outer side of the sleeve (3), wherein the control panel (10) is electrically connected to the transmission mechanism (5) via a data line.

2. The high-toughness poly-foam glaze celadon processing equipment according to claim 1, characterized in that: The transmission mechanism (5) comprises a mounting plate (51), a servo motor (52), a turntable (53) and a connecting frame (54), wherein the outer edge of the mounting plate (51) is fixed to the inner wall of the sealing shell (2), and the servo motor (52) is fixed to one side of the mounting plate (51), wherein the turntable (53) is fixed to the output end of the servo motor (52); the turntable (53) is rotatably connected to the mounting plate (51), and a plurality of connecting frames (54) are evenly fixed to the side of the turntable (53) away from the mounting plate (51), wherein the other end of each connecting frame (54) is rotatably mounted with a receiving barrel (6); and the servo motor (52) is electrically connected to the control panel (10) via a data cable.

3. The high-toughness poly-foam glaze celadon processing equipment according to claim 2, characterized in that: The connecting frame (54) includes a first frame (541), a first cylinder (542), a second frame (543) and a limiting column (544), one end of the first frame (541) is fixed to the turntable (53), and the first cylinder (542) is fixed inside the first frame (541); the second frame (543) is fixed to the output end of the first cylinder (542), wherein the end of the second frame (543) away from the first cylinder (542) is rotatably mounted with a holding barrel (6); the end of the second frame (543) close to the first cylinder (542) is fixed with at least one limiting column (544), wherein the limiting column (544) is slidably connected to the first frame (541); the first cylinder (542) is electrically connected to the control panel (10) via a data line.

4. The high-toughness poly-foam glaze celadon processing equipment according to claim 3, characterized in that: The first frame (541) comprises an articulated frame (5411), a positioning column (5412) and a second cylinder (5413); the first cylinder (542) is fixed inside the articulated frame (5411), and a limiting column (544) is slidably installed on the articulated frame (5411); a positioning column (5412) is rotatably installed at one end of the articulated frame (5411), wherein a second cylinder (5413) is rotatably installed on the side of the positioning column (5412), and an output end of the second cylinder (5413) is rotatably connected to the articulated frame (5411); and the second cylinder (5413) is electrically connected to the control panel (10) via a data cable.

5. The high-toughness poly-foam glaze celadon processing equipment according to claim 1, characterized in that: The containing barrel (6) comprises a barrel body (61) and a barrel cover (62), wherein the barrel body (61) is a hollow cylinder with openings at both ends, wherein the outer side surface of the barrel body (61) is rotationally connected to the transmission mechanism (5), and a plurality of first teeth (7) are fixed to the outer side surface of the barrel body (61); and the barrel cover (62) is fixed to both ends of the barrel body (61) through threaded engagement.

6. The high-toughness poly-foam glaze celadon processing equipment according to claim 5, characterized in that: The barrel cover (62) comprises a cover body (621), a stud (622), a baffle (623), a clevis nut (624), a filter (625) and a drain port (626). The cover body (621) is fixed to the barrel body (61) by threaded engagement, and a stud (622) is fixed to the side of the cover body (621) away from the barrel body (61); a baffle (623) is rotatably mounted on the outer side of the stud (622), wherein a clevis nut (624) is provided on the side of the baffle (623) away from the cover body (621), and the clevis nut (624) is connected to the stud (622) by threaded engagement; the cover body (621) and the baffle (623) are correspondingly provided with a drain port (626), wherein a filter (625) is fixed inside the drain port (626) on the cover body (621).

7. The high-toughness poly-foam glaze celadon processing equipment according to claim 1, characterized in that: A plurality of handles (11) are fixed to the outer side surface of the sleeve (3).

8. The high-toughness poly-foam glaze celadon processing equipment according to claim 1, characterized in that: Sound insulation cotton is fixed to the inner wall of the sealing shell (2).

9. A process for processing high-toughness poly-foam glaze celadon as described in claims 1 to 8, characterized in that: The following steps are involved: Partitioned storage of monolithic glazes and dilithic glazes: the raw materials (such as quartz, feldspar, clay, etc.) of monolithic glazes (single component or basic glazes) are weighed in proportion and respectively loaded into a plurality of holding barrels (6) on one of the transmission mechanisms (5), with each holding barrel (6) corresponding to one raw material. At the same time, the raw materials (such as metal oxides, nano-scale fillers, etc.) of dilithic glazes (composite components or functional glazes, such as additives to enhance toughness) are also weighed in proportion and loaded into the holding barrels (6) on the second transmission mechanism (5) to achieve classified and isolated storage. In addition, the abrasive is loaded into the holding barrels (6); Double transmission mechanism linkage start: The two transmission mechanisms (5) are started simultaneously through the control panel (10), and the grinding time is set according to the type of glaze raw materials stored in the holding barrel (6), so that the two transmission mechanisms (5) respectively drive the corresponding holding barrel (6) to move accordingly, wherein the holding barrel (6) rotates under the cooperation of the first teeth (7) and the second teeth (8), and then the abrasive grinds the glaze raw materials through the rotation of the holding barrel (6). Segmented stop and continuous grinding: When the grinding of the raw materials in a holding barrel (6) reaches the grinding time, the control panel (10) sends a signal to the corresponding first cylinder (542), and the holding barrel (6) is moved in a direction away from the second teeth (8) through the first cylinder (542), so that the first teeth (7) are disengaged, the holding barrel (6) stops rotating, and the grinding is suspended, while the holding barrel (6) that has not reached the grinding time continues to move with the transmission mechanism (5) and rotates to grind until all the raw materials reach the grinding time. Filtering and discharging: When all the raw materials have reached the grinding time, the handle (11) is used to make the material taking-in and discharging opening (9) on the sleeve (3) correspond to the material taking-in and discharging opening (9) on the sealing shell (2), and then the control panel (10) sends a signal to the second cylinder (5413), so that the receiving barrel (6) is extended at the position of the material taking-in and discharging opening (9) through the second cylinder (5413), and then the ground glaze is filtered and discharged through the receiving barrel (6).

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