Glazing process and equipment

Abstract

The invention relates to the technical field of ceramic processing, in particular to a glazing process and equipment which comprises a base and further comprises a rotating mechanism, a rotating disc, a connecting plate, a moving mechanism, a suction cup, a storage box, a driving mechanism and stirring blades. According to the ceramic product glazing device, the suction cup can be moved to the inner bottom of a ceramic product, then the ceramic product is adsorbed through the suction cup, and the suction cup is moved up and down and rotated, so that the ceramic product can be moved into the storage box, and the outer surface of the ceramic product is glazed; according to the glazing equipment, the glaze in the storage box can be stirred through the stirring device, so that the glaze in the storage box is prevented from being precipitated in the storage box, and the technical problem that the overall effect of ceramic products is affected due to the poor glazing effect caused by the fact that the glaze is often precipitated in the using process of existing glazing equipment is solved.

Description

Technical Field

[0001] The present invention relates to the technical field of ceramic processing, and particularly relates to a glazing process and equipment. Background Art

[0002] In the production process of ceramic products, it is usually necessary to glaze the blanks of the prepared ceramic products. Currently, glazing of ceramic products is generally carried out manually. When manually glazing ceramic products, workers need to hold the ceramic products by hand, then put the ceramic products into the glaze solution, and then take the ceramic products out of the glaze solution. When glazing in this way, the worker's hands need to be soaked in the glaze solution for a long time, and the worker's hands being soaked in the glaze solution for a long time is not conducive to the health of the workers.

[0003] The prior art CN216860116U discloses a glazing device for the production of ceramic bowls. Through the lifting mechanism, the ceramic bowl can be sucked, and through the cooperation of the transportation mechanism and the lifting mechanism, the ceramic bowl can be transported directly above the material cylinder, and through the lifting mechanism, the ceramic bowl can enter the material cylinder for glazing. Through the triggering mechanism, the lifting mechanism can be triggered to work, so that there is no need for manual triggering of the lifting mechanism to work, and thus the effect of automatically glazing the ceramic bowl can be achieved. Through the material receiving mechanism, the glazed ceramic bowl can be removed from the suction cup, and through the material receiving mechanism, the glazed ceramic bowl can be collected, so that there is no need to manually remove the glazed ceramic bowl from the suction cup, and thus time and effort can be saved.

[0004] However, during the use of the above glazing device, the glaze often precipitates, resulting in a poor glazing effect, thereby affecting the overall effect of the ceramic product. Summary of the Invention

[0005] The purpose of the present invention is to provide a glazing process and equipment, which solves the technical problem that during the use of the existing glazing equipment, the glaze often precipitates, resulting in a poor glazing effect, thereby affecting the overall effect of the ceramic product.

[0006] To achieve the above purpose, in the first aspect, the present invention provides a glazing device, including a base, and further including a rotating mechanism, a rotating disk, a connecting plate, a moving mechanism, a suction cup, a storage tank, a driving mechanism, and a stirring blade. The rotating disk is connected to the base through the rotating mechanism, and the rotating mechanism is used to drive the rotating disk to rotate. The connecting plates are evenly distributed below the rotating disk, and each connecting plate is connected to the suction cup through the moving mechanism. The moving mechanism is used to drive the suction cup to rotate or move up and down. The storage tank is arranged on the base, and the stirring blade is connected to the inside of the storage tank through the driving mechanism. The driving mechanism is used to drive the stirring blade to move up and down or rotate inside the storage tank.

[0007] Wherein, the rotating mechanism includes a support base and a rotating part. The support base is arranged on the base and is located below the rotating disc. The rotating part is arranged on the support base, and the output shaft of the rotating part is connected to the rotating disc.

[0008] Wherein, anti-slip pads are arranged below both the support base and the material storage box to improve the support stability of the support base and the material storage box on the base.

[0009] Wherein, the moving mechanism includes a connecting rod, a moving plate and a moving part. The connecting plate has a rotating groove, the connecting rod is arranged in the rotating groove, the moving plate is rotatably arranged outside the connecting rod, the moving part is arranged below the moving plate, and the output end of the moving part is connected to the suction cup at the corresponding position.

[0010] Wherein, the driving mechanism includes a lifting part, a stirring part and a stirring rod. The lifting part is arranged on the base, the stirring part is connected to the output end of the lifting part, and both the lifting part and the stirring part are located below the material storage box. The stirring rod is connected to the output end of the stirring part and penetrates through the material storage box.

[0011] In a second aspect, the present invention also provides a glazing process, which includes the following steps: Move the suction cup up and down until the suction cup moves to the ceramic product to be glazed, start the suction pump, and generate an adsorption force inside the suction cup through the suction pump to firmly adsorb the ceramic product; Rotate the suction cup to drive the ceramic product to rotate until the ceramic product rotates above the material storage box; Move the suction cup up and down again to drive the ceramic product to move up and down until the ceramic product is moved into the material storage box, and let the glaze in the material storage box glaze the ceramic product; Let the moving plate rotate outside the connecting plate to drive the suction cup to rotate outside the connecting plate, thereby driving the ceramic product to rotate outside the connecting plate to achieve uniform glazing of the ceramic product; When glazing the ceramic product, let the stirring blades rotate in the material storage box to stir the glaze in the material storage box to prevent the glaze from precipitating in the material storage box.

[0012] A glazing process and equipment of the present invention drive the rotating disk to rotate above the base through the rotating mechanism, thereby driving the suction cup to rotate above the base, and then the suction cup can be rotated above the ceramic product to be glazed. Then, the suction cup is driven to move up and down below the connecting plate through the moving mechanism, so that the suction cup can be moved to the inner bottom of the ceramic product. At this time, the ceramic product is adsorbed by the suction cup, and the suction cup is moved up and down and rotated, so that the ceramic product can be moved into the storage box, and the outer surface of the ceramic product is glazed. When glazing the ceramic product, the driving mechanism drives the stirring blade to rotate in the storage box, so as to stir the glaze in the storage box to prevent the glaze in the storage box from precipitating in the storage box, solving the technical problem that the glaze often precipitates during the use of the existing glazing equipment, resulting in poor glazing effect and affecting the overall effect of the ceramic product. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the drawings required for the description of the embodiments or the prior art.

[0014] Figure 1 It is a schematic structural diagram of the overall glazing equipment according to the first embodiment of the present invention.

[0015] Figure 2 It is a schematic cross-sectional view along the rotating disk according to the first embodiment of the present invention.

[0016] Figure 3 It is a schematic cross-sectional view along the stirring rod according to the first embodiment of the present invention.

[0017] Figure 4 It is a flowchart of the glazing process according to the second embodiment of the present invention.

[0018] In the figure: 101 - base, 102 - rotating disk, 103 - connecting plate, 104 - suction cup, 105 - storage box, 106 - support seat, 107 - rotating part, 108 - connecting rod, 109 - moving plate, 110 - moving part, 111 - lifting part, 112 - stirring part, 113 - stirring rod, 114 - anti-slip pad, 115 - rotating groove, 116 - hydraulic telescopic rod, 117 - transmission pipe, 118 - suction pump, 119 - activity groove, 120 - activity ring, 121 - sheet body, 122 - steering plate, 123 - ultrasonic sensor. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0019] The following will describe in detail the embodiments of the present invention. The examples of the embodiments are shown in the drawings. The embodiments described below with reference to the drawings are exemplary and are intended to explain the present invention and should not be construed as a limitation of the present invention.

[0020] First Embodiment: Please refer to Figures 1 to 3 , the present invention provides a glazing device, including a base 101, a rotating mechanism, a rotating disk 102, a connecting plate 103, a moving mechanism, a suction cup 104, a storage tank 105, a driving mechanism and a stirring blade. The rotating mechanism includes a support base 106 and a rotating part 107. The moving mechanism includes a connecting rod 108, a moving plate 109 and a moving part 110. The driving mechanism includes a lifting part 111, a stirring part 112 and a stirring rod 113.

[0021] In this embodiment, the rotating mechanism drives the rotating disk 102 to rotate above the base 101, thereby driving the suction cup 104 to rotate above the base 101. Furthermore, the suction cup 104 can be rotated above the ceramic product to be glazed. Then, the moving mechanism drives the suction cup 104 to move up and down below the connecting plate 103, so that the suction cup 104 can be moved to the inner bottom of the ceramic product. At this time, the ceramic product is adsorbed by the suction cup 104, and the suction cup 104 is moved up and down and rotated, so that the ceramic product can be moved into the storage tank 105 to glaze the outer surface of the ceramic product. When glazing the ceramic product, the driving mechanism drives the stirring blade to rotate in the storage tank 105, so as to stir the glaze in the storage tank 105 to prevent the glaze in the storage tank 105 from precipitating in the storage tank 105, solving the technical problem that the glaze often precipitates during the use of the existing glazing device, resulting in poor glazing effect and affecting the overall effect of the ceramic product.

[0022] Among them, a rotating disk 102 is connected to the base 101 through the rotating mechanism. The rotating mechanism is used to drive the rotation of the rotating disk 102. The connecting plates 103 are evenly distributed below the rotating disk 102. Each connecting plate 103 is externally connected to a suction cup 104 through a moving mechanism. The moving mechanism is used to drive the suction cup 104 to rotate or move up and down. The storage box 105 is arranged on the base 101. A stirring blade is connected to the storage box 105 through a driving mechanism. The driving mechanism is used to drive the stirring blade to move up and down or rotate in the storage box 105. The inside of the suction cup 104 is a hollow structure, and the bottom of the suction cup 104 has a through hole. After the air inside the suction cup 104 is extracted, an adsorption force will be generated at the suction cup 104 to adsorb the ceramic product. The upper part of the storage box 105 is open and the inside is a hollow structure. Glaze is placed in the storage box 105, so that the ceramic product adsorbed by the suction cup 104 can enter the storage box 105 from above the storage box 105, and the surface of the ceramic product is glazed with the glaze in the storage box 105, realizing glazing of the ceramic product.

[0023] Secondly, the support base 106 is arranged on the base 101 and is located below the rotating disk 102. A rotating part 107 is arranged on the support base 106, and the output shaft of the rotating part 107 is connected to the rotating disk 102. Anti-slip pads 114 are arranged below both the support base 106 and the storage box 105 to improve the support stability of the support base 106 and the storage box 105 on the base 101.

[0024] Thirdly, the connecting plate 103 has a rotating groove 115. A connecting rod 108 is arranged in the rotating groove 115. A moving plate 109 is rotatably arranged outside the connecting rod 108. A moving part 110 is arranged below the moving plate 109, and the output end of the moving part 110 is connected to the suction cup 104 at the corresponding position. The rotation of the moving plate 109 outside the connecting plate 103 is realized by the drive of a hydraulic telescopic rod 116, so that the moving plate 109 can rotate along the axis of the connecting rod 108 outside the connecting plate 103, thereby driving the suction cup 104 to rotate along the axis of the connecting rod 108 outside the connecting plate 103. Since the output end of the moving part 110 is connected to the suction cup 104 and drives the suction cup 104 to move up and down below the moving plate 109, the suction cup 104 can be driven to move up and down in the storage box 105. Combining with the rotation of the suction cup 104 along the axis of the connecting rod 108 outside the connecting plate 103, the position of the ceramic product adsorbed by the suction cup 104 during glazing in the storage box 105 can be adjusted.

[0025] Meanwhile, a transfer pipe 117 is communicatively connected above each of the suction cups 104. A suction pump 118 is communicatively connected to one side of each transfer pipe 117 away from the suction cup 104, and each suction pump 118 is disposed on the moving plate 109 at the corresponding position. The suction pump 118, the transfer pipe 117, and the suction cup 104 are communicatively connected in sequence. After the suction pump 118 is started, the suction force generated at the output end of the suction pump 118 can extract the air in the suction cup 104, creating a negative pressure in the suction cup 104, so that the suction cup 104 can adsorb the ceramic product.

[0026] In addition, the lifting part 111 is disposed on the base 101. The stirring part 112 is connected to the output end of the lifting part 111, and both the lifting part 111 and the stirring part 112 are located below the storage tank 105. The stirring rod 113 is connected to the output end of the stirring part 112 and penetrates through the storage tank 105. An ultrasonic sensor 123 is disposed in the storage tank 105. The ultrasonic sensor 123 can be used to detect the liquid level height of the glaze stored in the storage tank 105 in real time and transmit the detection result to an external control module. Thus, the start time of the lifting part 111 can be controlled through the control module, and further, the limit position of the stirring blade in the storage tank 105 can be controlled to prevent the stirring blade from contacting the ceramic product to be glazed and damaging the ceramic product. The output end of the lifting part 111 is connected to the stirring part 112 and drives the stirring part 112 to move up and down below the storage tank 105, driving the stirring rod 113 to move up and down in the storage tank 105, thereby driving the stirring blade to move up and down in the storage tank 105. The output end of the stirring part 112 is connected to the stirring rod 113 and drives the stirring rod 113 to rotate along its own axis in the storage tank 105, driving the stirring blade to rotate along the axis of the stirring rod 113 in the storage tank 105. Combining with the up and down movement of the stirring blade in the storage tank 105, the stirring blade can stir the glaze at any position in the storage tank 105 to prevent the glaze at any position in the storage tank 105 from solidifying or precipitating.

[0027] Furthermore, the storage tank 105 has a movable groove 119. A movable ring 120 is slidably disposed outside the stirring rod 113. The movable ring 120 is located in the movable groove 119 and rotates along its own axis in the movable groove 119. By providing the movable ring 120 and the movable groove 119, the gap between the stirring rod 113 and the storage tank 105 can be sealed to prevent the glaze from flowing out through the gap between the stirring rod 113 and the storage tank 105.

[0028] Finally, the stirring blades include a blade body 121 and a steering plate 122. The blade bodies 121 are evenly distributed outside the stirring rod 113, and the steering plates 122 are rotatably arranged on each blade body 121. Since the blade bodies 121 are evenly distributed outside the stirring rod 113, when the stirring rod 113 rotates along its own axis in the storage tank 105, the blade bodies 121 can be driven to rotate along the axis of the stirring rod 113 in the storage tank 105. At this time, the steering plates 122 will receive a rotational force and will follow the blade bodies 121 to rotate along the axis of the stirring rod 113 in the storage tank 105. At the same time, the steering plates 122 start to rotate along the rod part of the blade bodies 121 above the blade bodies 121, continuously lifting the glaze at the upper and lower positions of the storage tank 105 to improve the stirring rate of the glaze in the storage tank 105 and further prevent the glaze in the storage tank 105 from precipitating in the storage tank 105.

[0029] When using a glazing device according to this embodiment, start the rotating part 107, so that the power output by the output shaft of the rotating part 107 drives the rotating disk 102 to rotate along the axis of the output shaft of the rotating part 107 above the base 101, driving the connecting plate 103 to rotate along the axis of the output shaft of the rotating part 107 above the base 101, thereby driving the moving plate 109 to rotate along the axis of the output shaft of the rotating part 107 above the base 101, and further driving the suction cup 104 to rotate along the axis of the output shaft of the rotating part 107 above the base 101 until the suction cup 104 moves directly above the ceramic product to be glazed. At this time, start the moving part 110, so that the power output by the output end of the moving part 110 drives the suction cup 104 to move up and down below the moving plate 109, thereby driving the suction cup 104 to move up and down in the storage tank 105 until the suction cup 104 moves to the inner bottom of the ceramic product to be glazed. At this time, start the suction pump 118, so that the suction generated by the output end of the suction pump 118 can extract the air in the suction cup 104, creating a negative pressure in the suction cup 104, so that the suction cup 104 can firmly adsorb the ceramic product.

[0030] Then drive the rotating disk 102 to rotate along the axis of the output shaft of the rotating part 107 above the base 101 through the rotating part 107, thereby driving the suction cup 104 to rotate along the axis of the output shaft of the rotating part 107 above the base 101, and further driving the ceramic product adsorbed by the suction cup 104 to rotate until the ceramic product is rotated above the storage tank 105.

[0031] Again, drive the suction cup 104 to move up and down below the moving plate 109 through the moving part 110, so as to drive the ceramic product adsorbed by the suction cup 104 to move up and down until the ceramic product is moved into the storage bin 105. At this time, the outer surface of the ceramic product will be glazed with the glaze in the storage bin 105, thereby realizing glazing of the ceramic product.

[0032] While glazing the ceramic product, start the hydraulic telescopic rod 116. The end of the hydraulic telescopic rod 116 will expand and contract, driving the moving plate 109 to rotate along the axis of the connecting rod 108 outside the connecting plate 103, thereby driving the suction cup 104 below the moving plate 109 to rotate along the axis of the connecting rod 108 outside the connecting plate 103, and further driving the ceramic product adsorbed by the suction cup 104 to rotate along the axis of the connecting rod 108 outside the connecting plate 103, realizing uniform glazing of the ceramic product.

[0033] When glazing the ceramic product, start the lifting part 111, so that the power output by the output end of the lifting part 111 drives the stirring part 112 to move up and down below the storage tank 105, driving the stirring rod 113 to move up and down in the storage tank 105, thereby driving the stirring blades to move up and down in the storage tank 105. Start the stirring part 112, so that the power output by the output end of the stirring part 112 drives the stirring rod 113 to rotate along its own axis in the storage tank 105, driving the stirring blades to rotate along the axis of the stirring rod 113 in the storage tank 105. Combining the up and down movement of the stirring blades in the storage tank 105, the stirring blades can stir the glaze at any position in the storage tank 105 to prevent the glaze at any position in the storage tank 105 from solidifying or precipitating. During the start-up process of the lifting part, the ultrasonic sensor 123 can detect the liquid level height of the glaze stored in the storage tank 105 in real time and transmit the detection result to the external control module. Thus, the start-up time of the lifting part 111 can be controlled by the control module, and further the limit position of the stirring blades in the storage tank 105 can be controlled to avoid the stirring blades contacting the ceramic product to be glazed and damaging the ceramic product. Since the sheet bodies 121 are evenly distributed outside the stirring rod 113, when the stirring rod 113 rotates along its own axis in the storage tank 105, it can drive the sheet bodies 121 to rotate along the axis of the stirring rod 113 in the storage tank 105. At this time, the turning plate 122 will receive a turning force and will follow the sheet bodies 121 to rotate along the axis of the stirring rod 113 in the storage tank 105. At the same time, the turning plate 122 starts to rotate along the rod part of the sheet bodies 121 above the sheet bodies 121, continuously lifting the glaze at the upper and lower positions of the storage tank 105 to improve the stirring rate of the glaze in the storage tank 105 and further prevent the glaze in the storage tank 105 from precipitating in the storage tank 105, solving the technical problem that the glaze often precipitates during the use of the existing glazing equipment, resulting in poor glazing effect and thus affecting the overall effect of the ceramic product.

[0034] Second Embodiment: Based on the first embodiment, please refer to Figure 4 , the present invention further provides a glazing process, including the following steps: S101. Move the suction cup 104 up and down until the suction cup 104 moves to the ceramic product to be glazed. Start the suction pump 118, and through the suction pump 118, generate an adsorption force inside the suction cup 104 to firmly adsorb the ceramic product.

[0035] Specifically, start the rotating part 107 so that the power output by the output shaft of the rotating part 107 drives the rotating disk 102 to rotate along the axis of the output shaft of the rotating part 107 above the base 101, driving the connecting plate 103 to rotate along the axis of the output shaft of the rotating part 107 above the base 101, thereby driving the moving plate 109 to rotate along the axis of the output shaft of the rotating part 107 above the base 101, and further driving the suction cup 104 to rotate along the axis of the output shaft of the rotating part 107 above the base 101 until the suction cup 104 moves directly above the ceramic product to be glazed. At this time, start the moving part 110 so that the power output by the output end of the moving part 110 drives the suction cup 104 to move up and down below the moving plate 109, thereby driving the suction cup 104 to move up and down in the storage tank 105 until the suction cup 104 moves to the inner bottom of the ceramic product to be glazed. At this time, start the suction pump 118 so that the suction generated by the output end of the suction pump 118 can extract the air in the suction cup 104, creating a negative pressure in the suction cup 104, so that the suction cup 104 can firmly adsorb the ceramic product.

[0036] S102. Rotate the suction cup 104 to drive the ceramic product to rotate until the ceramic product is rotated above the storage tank 105.

[0037] Specifically, drive the rotating disk 102 to rotate along the axis of the output shaft of the rotating part 107 above the base 101 through the rotating part 107, thereby driving the suction cup 104 to rotate along the axis of the output shaft of the rotating part 107 above the base 101, and further driving the ceramic product adsorbed by the suction cup 104 to rotate until the ceramic product is rotated above the storage tank 105.

[0038] S103. Move the suction cup 104 up and down again to drive the ceramic product to move up and down until the ceramic product is moved into the storage tank 105, and let the glaze in the storage tank 105 glaze the ceramic product.

[0039] Specifically, drive the suction cup 104 to move up and down below the moving plate 109 through the moving part 110 again, thereby driving the ceramic product adsorbed by the suction cup 104 to move up and down until the ceramic product is moved into the storage tank 105. At this time, the outer surface of the ceramic product will be dipped in the glaze in the storage tank 105, so that the glazing of the ceramic product can be realized.

[0040] S104. Rotate the moving plate 109 outside the connecting plate 103 to drive the suction cup 104 to rotate outside the connecting plate 103, thereby driving the ceramic product to rotate outside the connecting plate 103, so as to achieve uniform glazing of the ceramic product.

[0041] Specifically, while glazing the ceramic product, start the hydraulic telescopic rod 116. The end of the hydraulic telescopic rod 116 will extend and retract, driving the moving plate 109 to rotate outside the connecting plate 103 along the axis of the connecting rod 108, thereby driving the suction cup 104 below the moving plate 109 to rotate outside the connecting plate 103 along the axis of the connecting rod 108, and further driving the ceramic product adsorbed by the suction cup 104 to rotate outside the connecting plate 103 along the axis of the connecting rod 108, achieving uniform glazing of the ceramic product.

[0042] S105. When glazing the ceramic product, rotate the stirring blade in the storage tank 105 to stir the glaze in the storage tank 105, so as to prevent the glaze from precipitating in the storage tank 105.

[0043] Specifically, when glazing the ceramic product, start the lifting part 111 so that the power output by the output end of the lifting part 111 drives the stirring part 112 to move up and down below the storage tank 105, driving the stirring rod 113 to move up and down in the storage tank 105, thereby driving the stirring blades to move up and down in the storage tank 105. Start the stirring part 112 so that the power output by the output end of the stirring part 112 drives the stirring rod 113 to rotate along its own axis in the storage tank 105, driving the stirring blades to rotate along the axis of the stirring rod 113 in the storage tank 105. Combining the up and down movement of the stirring blades in the storage tank 105, the stirring blades can stir the glaze at any position in the storage tank 105 to prevent the glaze at any position in the storage tank 105 from solidifying or precipitating. During the start-up process of the lifting part, the ultrasonic sensor 123 can detect the liquid level height of the glaze stored in the storage tank 105 in real time and transmit the detection result to an external control module. Thus, the start-up time of the lifting part 111 can be controlled through the control module, and further, the limit position of the stirring blades in the storage tank 105 can be controlled to avoid the stirring blades contacting the ceramic product to be glazed and damaging the ceramic product. Since the sheet bodies 121 are evenly distributed outside the stirring rod 113, when the stirring rod 113 rotates along its own axis in the storage tank 105, it can drive the sheet bodies 121 to rotate along the axis of the stirring rod 113 in the storage tank 105. At this time, the turning plate 122 will receive a turning force and will follow the sheet bodies 121 to rotate along the axis of the stirring rod 113 in the storage tank 105. At the same time, the turning plate 122 starts to rotate along the rod part of the sheet bodies 121 above the sheet bodies 121, continuously lifting the glaze at the upper and lower positions of the storage tank 105 to increase the stirring rate of the glaze in the storage tank 105 and further prevent the glaze in the storage tank 105 from precipitating in the storage tank 105, solving the technical problem that the glaze often precipitates during the use of the existing glazing equipment, resulting in a poor glazing effect and thus affecting the overall effect of the ceramic product.

[0044] The above-disclosed are only one or more preferred embodiments of the present application, and cannot be used to limit the scope of rights of the present application. Those of ordinary skill in the art can understand the entire or partial processes of implementing the above embodiments, and the equivalent changes made according to the claims of the present application still fall within the scope covered by the present application.

Claims

1. A glazing device, comprising a base, characterized in that: It further includes a rotating mechanism, a rotating disk, a connecting plate, a moving mechanism, a suction cup, a storage tank, a driving mechanism and a stirring blade. The rotating disk is connected to the base through the rotating mechanism, and the rotating mechanism is used to drive the rotating disk to rotate. The connecting plates are evenly distributed below the rotating disk, and each connecting plate is connected to the suction cup through the moving mechanism. The moving mechanism is used to drive the suction cup to rotate or move up and down. The storage tank is arranged on the base, and the stirring blade is connected to the storage tank through the driving mechanism. The driving mechanism is used to drive the stirring blade to move up and down or rotate in the storage tank.

2. The glazing device according to claim 1, characterized in that: The rotating mechanism includes a support seat and a rotating part. The support seat is arranged on the base and is located below the rotating disk. The rotating part is arranged on the support seat, and the output shaft of the rotating part is connected to the rotating disk.

3. The glazing device according to claim 2, characterized in that: Anti-slip pads are arranged below both the support seat and the storage tank to improve the support stability of the support seat and the storage tank on the base.

4. The glazing device according to claim 1, characterized in that: The moving mechanism includes a connecting rod, a moving plate and a moving part. The connecting plate has a rotating groove, the connecting rod is arranged in the rotating groove, the moving plate is rotatably arranged outside the connecting rod, the moving part is arranged below the moving plate, and the output end of the moving part is connected to the suction cup at the corresponding position.

5. The glazing device according to claim 1, characterized in that: The driving mechanism includes a lifting part, a stirring part and a stirring rod. The lifting part is arranged on the base, the stirring part is connected to the output end of the lifting part, and both the lifting part and the stirring part are located below the storage tank. The stirring rod is connected to the output end of the stirring part and penetrates through the storage tank.

6. A glazing process, applied to the glazing equipment described in any one of claims 1 to 5, characterized in that, It includes the following steps: Move the suction cup up and down until the suction cup moves to the ceramic product to be glazed. Start the suction pump to generate an adsorption force inside the suction cup through the suction pump, and firmly adsorb the ceramic product. Rotate the suction cup to drive the ceramic product to rotate until the ceramic product rotates above the storage tank. Move the suction cup up and down again to drive the ceramic product to move up and down until the ceramic product moves into the storage tank, and let the glaze in the storage tank glaze the ceramic product. Let the moving plate rotate outside the connecting plate to drive the suction cup to rotate outside the connecting plate, thereby driving the ceramic product to rotate outside the connecting plate to achieve uniform glazing of the ceramic product. When glazing the ceramic product, let the stirring blade rotate in the storage tank to stir the glaze in the storage tank to prevent the glaze from precipitating in the storage tank.

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