A processing device for preparing tea-leaf glaze using gold mine tailings

Abstract

The present invention discloses a processing device for preparing tea-leaf glaze using gold mine tailings, comprising an uninterrupted blank transporter, a ceramic blank lining member, a flange mounting frame, a ceramic blank tea-leaf glaze container, and a ceramic blank tea-leaf glaze mechanism. The uninterrupted blank transporter is mounted on a plurality of ceramic blank lining members, the uninterrupted blank transporter is mounted on the ceramic blank tea-leaf glaze container via the flange mounting frame, the ceramic blank tea-leaf glaze container is placed on the ground, and two corresponding ceramic blank tea-leaf glaze containers are mounted on the ceramic blank tea-leaf glaze container. The present invention can achieve rapid glazing of batches of ceramic blanks through uninterrupted glazing, significantly improving the efficiency of the glazing process. Secondly, it is more consistent with assembly line production. In addition, it reduces the limitations of glazing the external surface of the ceramic blank and optimizes subsequent glazing steps.

Description

Technical Field

[0001] The invention relates to the field of ceramic tea-leaf glaze, in particular to processing equipment for preparing tea-leaf glaze by utilizing gold mine tailings. Background Art

[0002] Tea-dust glaze was first produced in the Tang Dynasty and continued to develop through the Song Dynasty. During the Yongzheng and Qianlong reigns of the Qing Dynasty, Jingdezhen successfully replicated tea-dust glaze, making it a prized colored glaze used in imperial court wares. Analysis of its chemical composition and crystal structure reveals that it primarily uses α-crystalline Fe₂O₃ as a crystallizing agent, making it a crucial type of iron-based crystalline glaze. Tea-dust glaze is a high-temperature crystalline glaze, fired at 1200°C to 1300°C in a reducing atmosphere. Firing tea-dust glaze is challenging, as the firing temperature and the reducing-oxidizing atmosphere alter the crystal structure and nucleation growth of Fe₂O₃ and FeO, resulting in distinct colors and particle distributions, resulting in tea-dust glazes such as "crab-shell blue" and "eel yellow."

[0003] In order to reduce the slurry cost of tea-leaf glaze, the slurry of tea-leaf glaze can be made from gold mine tailings, thereby reducing the high cost of making the slurry of tea-leaf glaze. The proportion of the slurry made from gold mine tailings can be learned from the patent number: CN 103304270 A, entitled: A method for preparing ceramic glaze using gold mine tailings. The proportion of the slurry can be learned from the patent. At present, when applying tea-leaf glaze to ceramic blanks, ceramic tea-leaf glaze processing equipment uses an external clamping and fixing method to process the ceramic blanks. This will cause the glazing effect on part of the surface of the ceramic blank to be unsatisfactory. Secondly, the design between the structures cannot ensure the uninterrupted glazing of the ceramic blanks, and it is not possible to quickly complete the glazing of a batch of ceramic blanks in batches. In addition, it cannot match the processing method of its assembly line well.

[0004] Therefore, it is very necessary to invent a processing equipment that utilizes gold mine tailings to prepare tea-leaf glaze. Summary of the Invention

[0005] The purpose of the present invention is to provide a processing equipment for preparing tea-leaf glaze by utilizing gold mine tailings. To achieve the above purpose, the present invention provides the following technical scheme: comprising an uninterrupted blank conveyor, a ceramic blank lining, a flange mounting frame, a ceramic blank tea-leaf glaze ware and a ceramic blank tea-leaf glaze mechanism, wherein the uninterrupted blank conveyor is provided with a plurality of ceramic blank linings, the uninterrupted blank conveyor is installed on the ceramic blank tea-leaf glaze ware through the flange mounting frame, the ceramic blank tea-leaf glaze ware is placed on the ground, and two corresponding ceramic blank tea-leaf glaze ware are installed on the ceramic blank tea-leaf glaze ware.

[0006] The uninterrupted billet transporter includes a billet conveyor belt, a transmission turntable, a driving spindle, an external side panel, a limit plate, a high-pressure air pump, an air injection head, a travel switch, a relief gas and a relief ball. A transmission turntable is installed at both ends of the inner side of the billet conveyor belt, and a driving spindle is installed on the transmission turntable. External side panels are installed on both ends of the driving spindle, and a driving motor is built into the external side panel. A limit plate is installed on the inner side of the external side panel through a connecting shaft, and a high-pressure air pump, an air injection head, a travel switch, and a relief gas are respectively installed on the limit plate, and a relief ball is installed on the relief gas.

[0007] Preferably, there are four transmission turntables in total, two of which form a group, and the transmission turntables are matched at the upper and lower positions of one end of the blank conveyor belt, and a plurality of ceramic blank lining parts are embedded on the blank conveyor belt.

[0008] Preferably, the middle upper and lower surfaces of the limit plate are welded to the two outer side plates through connecting shafts. The limit plate is a rectangular plate body. A high-pressure air pump is installed on the inner side of one end of the limit plate. The air injection head of the high-pressure air pump is installed on the outer side of the limit plate, and a travel switch is installed on one side of the air injection head.

[0009] Preferably, a gas relief gas is welded and installed at the other end of the limiting vertical plate. The gas relief gas is an outward extension body made of a semicircle. A gas relief ball is provided on the gas relief gas. The height of the protrusion of the gas relief ball is smaller than the height of the protrusion of the gas injection head.

[0010] Preferably, the ceramic blank lining comprises an air flow retention tube, an inner lining disk, a gas retention cavity, a gas control rod, an air injection disk, a recessed surface, a reset spring, an air blocking disk, an air inlet head, an air injection tube, an inner support airbag and an air injection hole. The inner lining disk is installed on the air flow retention tube, a gas retention cavity is provided inside the air flow retention tube, a gas control rod is installed in the gas retention cavity, a air injection disk is installed on the gas control rod, a recessed surface is provided on the air injection disk, the air injection disk is connected to the air flow retention tube through a reset spring, a air blocking disk is installed on the gas control rod, an air inlet head is provided on the gas control rod, an air injection tube is installed on the air flow retention tube, an inner support airbag is installed on the air injection tube, and an air injection hole is provided on the inner side of the inner support airbag.

[0011] Preferably, air holes are opened on both end surfaces of the air flow retention tube, and both ends of the gas control rod pass through the air holes and out of the air flow retention tube. The gas control rod is a 'T'-shaped rod body.

[0012] Preferably, the surface of the gas injection disk is provided with an arc-shaped concave surface, the gas injection disk is connected to one end of the return spring, the other end of the return spring is connected to the air flow retention tube, and an air blocking disk is installed inside the return spring.

[0013] Preferably, the ceramic tea-dust glaze ware includes a tea-dust glaze shell, supporting legs, inlet and outlet slots, sliding strips and an air-drying fan. The supporting legs are welded and installed at the bottom of the tea-dust glaze shell, and the inlet and outlet slots and sliding strips are respectively opened on the surface of the tea-dust glaze shell. The air-drying fan is installed inside the tea-dust glaze shell.

[0014] Preferably, a plurality of air-drying fans are installed on the inner wall of the tea-leaf glaze shell, and sliding grooves are provided at symmetrical positions of the air-drying fans, and corresponding inlet and outlet slots are provided on both sides of the sliding grooves.

[0015] Preferably, the ceramic body glaze mechanism includes a high-pressure nozzle, a slurry nozzle, a connecting elbow, a high-pressure air pump box and a liquid slurry storage box. A slurry nozzle is installed on one side of the high-pressure nozzle, and the high-pressure nozzle and the slurry nozzle are respectively connected to the high-pressure air pump box and the liquid slurry storage box through a connecting elbow.

[0016] Preferably, the slurry nozzle is installed on one side of the high-pressure nozzle in an inclined manner, the slurry nozzle is connected to the liquid slurry storage box through a connecting elbow, and the high-pressure nozzle is connected to the high-pressure air pump box through a connecting elbow, and the high-pressure air pump box and the liquid slurry storage box are installed on the tea-leaf glaze shell.

[0017] Compared with the prior art, the present invention has the following beneficial effects:

[0018] 1. The uninterrupted blank transporter of the present invention is a conveyor, on which a plurality of ceramic blank linings are installed. The uninterrupted blank transporter drives the movement of the plurality of ceramic blank linings, thereby driving different ceramic blanks to be displaced, so that the ceramic blanks on the ceramic blank linings are transported into the interior of the ceramic blank glazing mechanism, so that the outer surface of the ceramic blank is glazed. This method can continuously glaze batches of ceramic blanks, greatly improving the overall processing efficiency.

[0019] 2. The design of the ceramic blank lining of the present invention is conducive to avoiding the influence on the glazing effect. The ceramic blank lining fixes the ceramic blank by supporting and reinforcing the inside of the ceramic blank, and can achieve the fixation of the ceramic without contacting the outside. This method can limit the glazing range on the surface of the ceramic blank, greatly reducing the problem of unsatisfactory glazing effect.

[0020] 3. The interior of the uninterrupted blank transporter of the present invention is provided with an airflow control structure (limiting vertical plate, high-pressure air pump, air injection head, travel switch, gas and gas release ball). The control structure can semi-automatically control the operation of the ceramic blank lining without the need for manual control by the staff, thereby improving the work fluency of the staff and avoiding operational errors by the staff.

[0021] 4. The design of the tea-leaf glaze ceramic body of the present invention allows for a simple air-drying of the surface of the ceramic body after the glazing is completed, thereby preventing the glazing slurry from dripping or being damaged by staff during subsequent handling. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a schematic diagram of the structure of the present invention after assembly.

[0023] Figure 2 It is a structural schematic diagram of the uninterrupted blank transporter of the present invention.

[0024] Figure 3 It is a partial cross-sectional structural diagram of the uninterrupted blank transporter of the present invention.

[0025] Figure 4 It is a structural schematic diagram of the ceramic green lining of the present invention.

[0026] Figure 5 It is a schematic diagram of the partial cross-sectional structure of the ceramic blank lining of the present invention.

[0027] Figure 6 This invention Figure 3 Schematic diagram of the local enlarged structure at point A.

[0028] Figure 7 This invention Figure 5 Schematic diagram of the local enlarged structure at point B.

[0029] Figure 8 It is a schematic diagram of the partial cross-sectional structure of the ceramic body tea-leaf glaze ware of the present invention.

[0030] In the picture:

[0031] Uninterrupted blank transporter 1, blank transport conveyor belt 11, transmission turntable 12, drive spindle 13, external side plate 14, limit vertical plate 15, high-pressure air pump 16, gas injection head 17, travel switch 18, relief gas 19, relief ball 110, ceramic blank lining 2, air flow retention tube 21, lining disk 22, gas retention cavity 23, gas control rod 24, gas injection disk 25, recessed surface 26, return spring 27, air blocking disk 28, air inlet head 29, gas injection tube 210, inner support airbag 211, gas injection hole 212, flange mounting frame 3, ceramic blank tea-leaf glaze device 4, tea-leaf glaze shell 41, support leg frame 42, inlet and outlet slots 43, sliding strip slot 44, air drying fan 45, ceramic blank end glaze mechanism 5, high-pressure nozzle 51, slurry nozzle 52, connecting elbow 53, high-pressure air pump box 54, liquid slurry storage box 55. DETAILED DESCRIPTION

[0032] 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.

[0033] As attached Figure 1-8 As shown:

[0034] The present invention provides a processing equipment for preparing tea-leaf glaze by utilizing gold mine tailings, comprising an uninterrupted blank conveyor 1, a ceramic blank lining member 2, a flange mounting frame 3, a ceramic blank tea-leaf glaze container 4 and a ceramic blank tea-leaf glaze mechanism 5, wherein the uninterrupted blank conveyor 1 is provided with a plurality of ceramic blank lining members 2, and a total of two flange mounting frames 3 are provided, the flange mounting frames 3 are a mounting frame composed of a plurality of 'U'-shaped plates, the flange mounting frames 3 are welded and installed on the ceramic blank tea-leaf glaze container 4, the uninterrupted blank conveyor 1 is installed on the ceramic blank tea-leaf glaze container 4 through the flange mounting frame 3, the ceramic blank tea-leaf glaze container 4 is placed on the ground, and two corresponding ceramic blank tea-leaf glaze containers 4 are installed on the ceramic blank tea-leaf glaze container 4; the uninterrupted blank conveyor 1 comprises a blank conveyor belt 11, a transmission turntable 12, a driving spindle 13, an external side plate 14, a limiting A limiting plate 15, a high-pressure air pump 16, an air injection head 17, a limit switch 18, a deflation gas 19 and a deflation ball 110 are installed on the inner ends of the billet conveyor belt 11. A transmission turntable 12 is installed on the transmission turntable 12. External side plates 14 are installed on both ends of the driving spindle 13. The external side plates 14 have a built-in driving motor. A controller is installed on the driving motor. A delay program is set in the controller. The delay program of the controller is controlled by the limit switch 18. After the delay program is started, there will be a shutdown time of ten to twenty seconds (the driving motor stops driving). A limiting plate 15 is installed on the inner side of the external side plate 14 through a connecting shaft. A high-pressure air pump 16, an air injection head 17, a limit switch 18, a deflation gas 19 are respectively installed on the limiting plate 15, and a deflation ball 110 is installed on the deflation gas 19.

[0035] Specifically, there are four transmission turntables 12, two of which form a group. The transmission turntables 12 are matched with the upper and lower positions of one end of the blank conveyor belt 11. A number of ceramic blank lining parts 2 are embedded on the blank conveyor belt 11. The transmission turntable 12 and the driving main shaft 13 are combined to form an "I" shape. The ceramic blank lining part 2 will pass between a group of transmission turntables 12 during the movement. There is a gap between a group of transmission turntables 12. The design of the gap avoids the displacement of individual ceramic blank lining parts 2 and affects the delivery.

[0036] Specifically, the middle upper and lower surfaces of the limit plate 15 are welded on the two outer side plates 14 through a connecting shaft. The limit plate 15 is a rectangular plate. A high-pressure air pump 16 is installed on the inner side of one end of the limit plate 15. The gas injection head 17 of the high-pressure air pump 16 is installed on the outer side of the limit plate 15. A limit switch 18 is installed on one side of the gas injection head 17, and an air pump switch is installed on the other side of the gas injection head 17. The air pump switch will be turned on first, and the time for the limit switch 18 to open is slower than the air pump switch. The limit switch 18 is connected to the controller, and the gas injection head 17 is adapted to the ceramic blank lining 2.

[0037] Specifically, a gas discharge gas 19 is welded and installed at the other end of the limiting vertical plate 15. The gas discharge gas 19 is an outward extension body made of a semicircle. A gas discharge ball 110 is provided on the gas discharge gas 19. The height of the protrusion of the gas discharge ball 110 is smaller than the height of the protrusion of the gas injection head 17. After the gas discharge ball 110 is docked with the ceramic blank lining 2, gas is injected into it through the high-pressure air pump 16. After the gas injection head 17 is docked, the gas inside the ceramic blank lining 2 will leak out, so that there is no need for manual control by the staff. The gas discharge gas 19 is installed in the gap position between a group of transmission turntables 12.

[0038] Specifically, the ceramic blank lining member 2 includes an airflow retention tube 21, an inner lining disc 22, a gas retention cavity 23, a gas regulating rod 24, an air injection disc 25, a concave surface 26, a reset spring 27, an air blocking disc 28, an air inlet head 29, an air injection tube 210, an inner support airbag 211 and an air injection hole 212. The inner lining disc 22 is installed on the airflow retention tube 21, and a gas retention cavity 23 is provided inside the airflow retention tube 21. A gas regulating rod 24 is installed in the gas retention cavity 23. A gas injection disc 25 is installed on the gas regulating rod 24. The gas injection disc 25 is provided with a chamfer, a concave surface 26 is provided on the gas injection disc 25, and the gas injection disc 25 is connected to the airflow retention tube 21 by a reset spring 27. The gas retention tube 21 is connected, a gas blocking disk 28 is installed on the gas control rod 24, an air inlet head 29 is provided on the gas control rod 24, an air injection tube 210 is installed on the air flow retention tube 21, an inner support airbag 211 is installed on the air injection tube 210, an air injection hole 212 is provided on the inner side of the inner support airbag 211, two inner support airbags 211 are provided, and there is a distance between the two inner support airbags 211. After the inner support airbags 211 are inflated, the inner support airbags 211 respectively contact the inner surface of the ceramic blank. The size of the inner support airbag 211 after expansion will not affect the shape of the ceramic blank. The inner support airbag 211 will only contact it after expansion, mainly to prevent the ceramic blank from falling off.

[0039] Specifically, air holes are provided on both end faces of the air flow retention tube 21, and both ends of the gas control rod 24 pass through the air holes to pass out of the body of the air flow retention tube 21. The gas control rod 24 is a rod body made of a 'T' shape, and an air inlet cavity is provided inside the gas control rod 24. The gas enters the gas retention cavity 23 through the air inlet head 29 and the air inlet cavity. One end of the gas control rod 24 blocks the air hole of the air flow retention tube 21, and the other end of the gas control rod 24 is connected to the gas injection disk 25.

[0040] Specifically, the surface of the gas injection disk 25 is provided with an arc-shaped recessed surface 26, and the recessed surface 26 is not a semicircular groove surface. The recessed surface 26 is adapted to be connected with the gas injection head 17 and the exhaust gas 19. The gas injection disk 25 is connected to one end of the reset spring 27, and the other end of the reset spring 27 is connected to the air flow retention tube 21. An air blocking disk 28 is installed on the inner side of the reset spring 27. When the gas injection disk 25 is connected to the gas injection head 17, the air blocking disk 28 blocks the air holes of the air flow retention tube 21. When the gas injection disk 25 is connected to the exhaust gas 19, the air blocking disk 28 does not block the air holes of the air flow retention tube 21.

[0041] Specifically, the ceramic tea-leaf glaze ware 4 includes a tea-leaf glaze shell 41, supporting legs 42, inlet and outlet slots 43, sliding strips 44 and an air-drying fan 45. The supporting legs 42 are welded and installed at the bottom of the tea-leaf glaze shell 41. The inlet and outlet slots 43 and sliding strips 44 are respectively provided on the surface of the tea-leaf glaze shell 41. An air-drying fan 45 is installed inside the tea-leaf glaze shell 41. There is a distance between the air-drying fans 45, and the tea-leaf glaze shell 41 has a built-in motor for the air-drying fan 45.

[0042] Specifically, a number of air-drying fans 45 are installed on the inner wall of the tea-leaf glaze shell 41. Sliding grooves 44 are symmetrically provided on the air-drying fans 45. Corresponding inlet and outlet slots 43 are provided on both sides of the sliding grooves 44. The sizes of the inlet and outlet slots 43 and the sliding grooves 44 are adapted to the structure of the ceramic blank lining 2. The controller of the built-in drive motor is connected to the motor of the air-drying fan 45. When the delay program is turned on, the air-drying fan 45 operates.

[0043] Specifically, the ceramic blank glaze mechanism 5 includes a high-pressure nozzle 51, a slurry nozzle 52, a connecting elbow 53, a high-pressure air pump box 54 and a liquid slurry storage box 55. The slurry nozzle 52 is installed on one side of the high-pressure nozzle 51. The high-pressure nozzle 51 and the slurry nozzle 52 are respectively connected to the high-pressure air pump box 54 and the liquid slurry storage box 55 through the connecting elbow 53. The driving pumps of the high-pressure air pump box 54 and the liquid slurry storage box 55 are connected to the controller of the built-in driving motor. When the delay program is turned on, the high-pressure air pump box 54 and the liquid slurry storage box 55 stop operating.

[0044] Example:

[0045] The slurry made from gold mine tailings is calculated in parts by mass as follows: take 50-85 parts of gold mine tailings, 5-20 parts of quartz, 20-30 parts of calcite, 5-10 parts of borax, 0-3 parts of fluorite, 0-8 parts of Li2COg, 30-6 parts of Fe2O, 30-8 parts of Cr2O, 00-3 parts of ZnO, 0-2 parts of MnO, 00-2 parts of CuO, 30-6 parts of Co2O, and 30.5-2 parts of Sb2O, mix them thoroughly to obtain a mixture, and then mix the mixture, water and tea powder in a ratio of 8:1:1, and then stir to obtain a slurry of tea leaf glaze. After obtaining the slurry, inject it into the liquid slurry storage box 55 of the ceramic body glaze mechanism 5.

[0046] Example 2:

[0047] When batches of ceramic blanks need to be glazed in the form of tea-leaf glaze, the staff transports the batches of ceramic blanks to one end of the non-stop blank transporter 1 by a trolley. At this time, another staff member moves to the other end of the non-stop blank transporter 1. Another staff member places a collection trolley on the side (the trolleys used by the two staff members are the multi-layer trolleys commonly seen on the market). At this time, the non-stop blank transporter 1 is opened for operation. The first staff member hangs the ceramic blank on the ceramic blank lining part 2 of the non-stop blank transporter 1. The ceramic blank lining part 2 is driven to move by the blank conveyor belt 11 of the non-stop blank transporter 1. When the gas injection disk 25 of the ceramic blank lining part 2 is aligned with the gas injection head 17, the gas injection disk 25 of the ceramic blank lining part 2 is aligned with the gas injection head 17. Then, the travel switches 18 on both sides of the gas injection head 17 are pressed, the travel switches 18 turn on the delay program of the controller, the blank conveyor belt 11 stops operating, and the high-pressure air pump 16 is turned on by the air pump switch. The high-pressure air pump 16 injects gas into it through the gas injection head 17. Before this process, the ceramic blank lining 2 is pressed, and the gas injection disk 25 of the ceramic blank lining 2 presses the reset spring 27 and the gas control rod 24. The movement of the gas control rod 24 will change the pore blockage state of the air flow retention tube 21. The incoming gas will enter the gas retention chamber 23 through the air inlet head 29. After the gas flows through the gas retention chamber 23, the gas enters the injection tube through the pores. The air pipe 210 and the air injection pipe 210 inject gas into the inner support airbag 211 through the air injection hole 212, and the inner support airbag 211 expands. After the expansion is completed, the delay program is completed, and the uninterrupted blank transporter 1 drives the ceramic blank lining part 2 to move. The ceramic blank lining part 2 carries the ceramic blank into the ceramic blank tea-leaf glaze device 4. At this time, the high-pressure air pump box 54 and the liquid slurry box 55 of the ceramic blank tea-leaf glaze mechanism 5 work at the same time. The high-pressure air pump box 54 and the liquid slurry box 55 spray high-pressure gas and slurry at the same time through the high-pressure nozzle 51 and the slurry nozzle 52. The slurry is dispersed on the surface of the ceramic blank with the assistance of high-pressure gas, and in the process, another ceramic blank is The lining 2 will restart the delay program, causing the high-pressure air pump box 54 and the liquid slurry storage box 55 to stop spraying, and the drying fan 45 of the ceramic blank tea-leaf glaze device 4 will simply air-dry the glazed ceramic blank. When the ceramic blank lining 2 is transported out of the ceramic blank glaze mechanism 5, the ceramic blank glaze mechanism 5 will move from the position of the limiting vertical plate 15 to the gas discharge gas 19. When the gas discharge ball 110 is docked with the ceramic blank lining 2, the gas control rod 24 and the reset spring 27 move, and the two air holes of the air flow retention tube 21 are both in the open state. The gas is discharged from the body through the air holes, allowing the second staff member to pick up the glazed ceramic blank and place it on the trolley.

[0048] 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 processing device for preparing tea-leaf glaze using gold mine tailings, characterized by: The invention comprises an uninterrupted blank transporter (1), a ceramic blank lining member (2), a flange mounting frame (3), a ceramic blank tea-leaf glaze ware (4) and a ceramic blank tea-leaf glaze mechanism (5), wherein the uninterrupted blank transporter (1) is mounted with a plurality of ceramic blank lining members (2), the uninterrupted blank transporter (1) is mounted on the ceramic blank tea-leaf glaze ware (4) via the flange mounting frame (3), the ceramic blank tea-leaf glaze ware (4) is placed on the ground, and two corresponding ceramic blank tea-leaf glaze ware (4) are mounted on the ceramic blank tea-leaf glaze ware (4); the uninterrupted blank transporter (1) comprises a blank transport conveyor belt (11), a transmission turntable (12), a driving main shaft (13), an external side plate (14), a limit plate (15), a high An air compressor (16), an air injection head (17), a travel switch (18), a gas release gas (19) and a gas release ball (110) are provided. A transmission turntable (12) is installed at both ends of the inner side of the blank conveyor belt (11). A driving spindle (13) is installed on the transmission turntable (12). External side plates (14) are installed at both ends of the driving spindle (13). A driving motor is built into the external side plates (14). A limiting vertical plate (15) is installed on the inner side of the external side plate (14) through a connecting shaft. A high-pressure air compressor (16), an air injection head (17), a travel switch (18) and a gas release gas (19) are respectively installed on the limiting vertical plate (15). A gas release ball (110) is installed on the gas release gas (19).

2. The processing equipment for preparing tea-leaf glaze using gold mine tailings according to claim 1, characterized in that: There are four transmission turntables (12) in total, two of which form a group. The transmission turntables (12) are matched at upper and lower positions of one end of the blank conveyor belt (11), and a plurality of ceramic blank lining parts (2) are embedded on the blank conveyor belt (11).

3. The processing equipment for preparing tea-leaf glaze using gold mine tailings according to claim 1, characterized in that: The middle upper and lower surfaces of the limit vertical plate (15) are welded to the two outer side plates (14) through a connecting shaft. The limit vertical plate (15) is a rectangular plate body. A high-pressure air pump (16) is installed on the inner side of one end of the limit vertical plate (15). The air injection head (17) of the high-pressure air pump (16) is installed on the outer side of the limit vertical plate (15). A travel switch (18) is installed on one side of the air injection head (17).

4. The processing equipment for preparing tea-leaf glaze using gold mine tailings according to claim 1, characterized in that: A gas relief member (19) is welded and installed at the other end of the limiting vertical plate (15). The gas relief member (19) is an outward extension body made of a semicircle. A gas relief ball (110) is arranged on the gas relief member (19). The height of the protrusion of the gas relief ball (110) is smaller than the height of the protrusion of the gas injection head (17).

5. The processing equipment for preparing tea-leaf glaze using gold mine tailings according to claim 1, characterized in that: The ceramic blank lining member (2) comprises an airflow retention tube (21), an inner lining disc (22), a gas retention cavity (23), a gas control rod (24), an air injection disc (25), a recessed surface (26), a return spring (27), an air blocking disc (28), an air inlet head (29), an air injection tube (210), an inner support air bag (211) and an air injection hole (212); the inner lining disc (22) is mounted on the airflow retention tube (21); a gas retention cavity (23) is provided inside the airflow retention tube (21); and a gas control rod is mounted in the gas retention cavity (23). (24), a gas injection disk (25) is installed on the gas control rod (24), a concave surface (26) is provided on the gas injection disk (25), the gas injection disk (25) is connected to the air flow retention tube (21) through a return spring (27), a gas blocking disk (28) is installed on the gas control rod (24), an air inlet head (29) is provided on the gas control rod (24), a gas injection tube (210) is installed on the air flow retention tube (21), an inner support air bag (211) is installed on the gas injection tube (210), and a gas injection hole (212) is provided on the inner side of the inner support air bag (211).

6. The processing equipment for preparing tea-leaf glaze using gold mine tailings as claimed in claim 5, characterized in that: The air flow retention tube (21) has air holes at both ends, and the two ends of the air control rod (24) pass through the air holes and out of the air flow retention tube (21). The air control rod (24) is a T-shaped rod body.

7. The processing equipment for preparing tea-leaf glaze using gold mine tailings as claimed in claim 5, characterized in that: The surface of the gas injection disk (25) is provided with an arc-shaped concave surface (26), the gas injection disk (25) is connected to one end of a return spring (27), the other end of the return spring (27) is connected to the air flow retention tube (21), and an air blocking disk (28) is installed on the inner side of the return spring (27).

8. The processing equipment for preparing tea-leaf glaze using gold mine tailings according to claim 1, characterized in that: The ceramic tea-leaf glaze vessel (4) comprises a tea-leaf glaze shell (41), a supporting leg frame (42), an inlet and outlet slot (43), a sliding strip groove (44) and an air-drying blower (45). The supporting leg frame (42) is welded and installed below the tea-leaf glaze shell (41), the inlet and outlet slot (43) and the sliding strip groove (44) are respectively opened on the surface of the tea-leaf glaze shell (41), and the air-drying blower (45) is installed inside the tea-leaf glaze shell (41).

9. The processing equipment for preparing tea-leaf glaze using gold mine tailings as claimed in claim 8, characterized in that: A plurality of air-drying fans (45) are installed on the inner wall of the tea-leaf glaze shell (41). The air-drying fans (45) are symmetrically provided with sliding grooves (44). Corresponding inlet and outlet slots (43) are provided on both sides of the sliding grooves (44).

10. The processing equipment for preparing tea-leaf glaze using gold mine tailings according to claim 1, characterized in that: The ceramic blank glaze mechanism (5) comprises a high-pressure nozzle (51), a slurry nozzle (52), a connecting elbow (53), a high-pressure air pump box (54) and a liquid slurry storage box (55). The slurry nozzle (52) is installed on one side of the high-pressure nozzle (51). The high-pressure nozzle (51) and the slurry nozzle (52) are respectively connected to the high-pressure air pump box (54) and the liquid slurry storage box (55) through the connecting elbow (53).

11. The processing equipment for preparing tea-leaf glaze using gold mine tailings according to claim 10, characterized in that: The slurry nozzle (52) is installed on one side of the high-pressure nozzle (51) in an inclined manner. The slurry nozzle (52) is connected to the liquid slurry storage box (55) through a connecting elbow (53). The high-pressure nozzle (51) is connected to the high-pressure air pump box (54) through a connecting elbow (53). The high-pressure air pump box (54) and the liquid slurry storage box (55) are installed on the tea-leaf glaze shell (41).

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