A daily-use ceramic glazing device and method

Abstract

The present invention relates to a daily-use ceramic glazing device and method thereof, belonging to the technical field of ceramic glazing, comprising an upper glazing trough, a glaze water mixing system and a downward pressure system, wherein the downward pressure system floats in the upper glaze trough, a through slot is provided between the downward pressure system and the glaze water surface of the upper glaze trough, the height of the through slot is adjustable, the glaze water mixing system is installed on the upper glaze trough, the glaze water mixing system extends into the bottom of the upper glaze trough and moves up and down, thereby ensuring accurate glazing.

Description

Technical Field

[0001] The invention relates to the technical field of ceramic glazing, in particular to a daily-use ceramic glazing device and a method thereof. Background Art

[0002] Glazing is a method of firing pottery and porcelain, which involves first firing the blank, then taking it out and glazing it, and then firing it again.

[0003] Apply the prepared glaze evenly on the surface of the ceramic body. You can use a brush, spray gun, immersion and other methods to glaze. Choose the appropriate glazing method according to the properties of the glaze and the shape and size of the ceramic product. When glazing, pay attention to the uniformity and appropriateness of the operation, and do not make the glaze too thick or too thin.

[0004] In the immersion glazing method, the height of the glazing needs to be controlled manually, which requires the worker to have steady hands. If a mistake is made, the glaze may enter the interior of the container, causing the part that should not be glazed to be glazed incorrectly. Summary of the invention

[0005] In order to overcome the technical defects of the prior art, the present invention provides a daily-use ceramic glazing device and method thereof, which ensure accurate glazing.

[0006] The technical solution adopted by the present invention is:

[0007] A daily-use ceramic glazing device comprises an upper glaze trough, a glaze water mixing system and a downward pressure system. The downward pressure system floats in the upper glaze trough. A through gap is provided between the downward pressure system and the glaze water surface of the upper glaze trough. The height of the through gap is adjustable. The glaze water mixing system is installed on the upper glaze trough. The glaze water mixing system extends into the bottom of the upper glaze trough and moves up and down.

[0008] Specifically, the glazing trough comprises a feeding section, a glazing section and a discharging section, the feeding section, the glazing section and the discharging section are sequentially connected to each other, and the feeding section and the discharging section are narrower than the glazing section.

[0009] Specifically, the glaze mixing system includes a glaze mixing plate and a plurality of stirring and lifting devices. The glaze mixing plate is adapted to the shape of the upper glaze trough. Each stirring and lifting device is installed on the top of the upper glaze trough. The glaze mixing plate extends into the bottom of the inner side of the upper glaze trough. Each stirring and lifting device is transmission-connected to the glaze mixing plate.

[0010] Specifically, the glaze mixing plate includes a mixing frame, a plurality of mixing bars and a plurality of mixing lifting rods. The outline of the mixing frame is adapted to the shape of the upper glaze groove. Each of the mixing bars is installed on the mixing frame. Each of the mixing bars forms a mesh structure. Each of the mixing lifting rods is installed on the mixing frame. Each of the mixing lifting rods is transmission-connected to the corresponding stirring lifting device.

[0011] Specifically, each of the stirring and lifting devices includes a stirring motor and a stirring eccentric shaft, the stirring eccentric shaft is installed on the output end of the stirring motor, and a hook plate is provided on the top of the mixing lifting rod, and each of the hook plates is pressed on the corresponding stirring eccentric shaft.

[0012] Specifically, the down-pressing system includes a down-pressing frame and a plurality of down-pressing height adjustment devices. The down-pressing frame and the down-pressing height adjustment devices are both floating on a passage gap provided between the down-pressing frame and the glaze water surface of the upper glaze trough. Both ends of the down-pressing frame are formed in an arc shape and are upturned. Each of the down-pressing height adjustment devices can be installed on the down-pressing frame in a liftable manner.

[0013] Specifically, the down-pressing frame comprises a down-pressing frame and a down-pressing net, wherein the down-pressing net is installed in the middle of the down-pressing frame, and a through gap is arranged between the down-pressing net and the glaze water surface of the upper glaze trough.

[0014] Specifically, the downward pressure height adjustment device includes downward pressure adjustment foam, a downward pressure adjustment plate and a downward pressure adjustment screw. The downward pressure adjustment plate is installed on the downward pressure frame in a liftable manner through the downward pressure adjustment screw, and the downward pressure adjustment foam is adhered to the downward pressure adjustment plate.

[0015] The daily-use ceramic glazing method uses a daily-use ceramic glazing device, comprising the following steps:

[0016] S1: Place the unglazed ceramic body in the glazing tank to float it, and push the unglazed ceramic body one by one in the direction of the pressing system;

[0017] S2: Pressing the unglazed ceramic body down to the through-slit, and glazing is achieved when the ceramic body passes through the through-slit;

[0018] S3: The ceramic body glazed through the through-slit floats up again after passing through the through-slit, making it easy to take away.

[0019] The beneficial effects of the present invention are:

[0020] The downward pressure system floats in the upper glaze trough, so that as the glaze is consumed, the downward pressure system can adaptively drop as the water level drops. A through gap is provided between the downward pressure system and the glaze water surface of the upper glaze trough, and the height of the through gap is adjustable, so that the glazing height can be controlled. The glaze mixing system is installed on the upper glaze trough. The glaze mixing system extends into the bottom of the upper glaze trough and moves up and down. During the up and down movement of the glaze mixing system, the glaze is stirred to ensure that the glaze is evenly mixed and maintain stable glaze quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a schematic diagram of the structure of the present invention.

[0022] Figure 2Schematic diagram of the glaze water mixing system structure.

[0023] Description of reference numerals:

[0024] 1. Glazing trough; 11. Feeding section; 12. Glazing section; 13. Discharging section;

[0025] 2. Glaze water mixing system; 21. Glaze water mixing plate; 211. Mixing rack; 212. Mixing bar; 213. Mixing lifting rod; 22. Stirring lifting device;

[0026] 3. Downward pressure system; 31. Downward pressure frame; 32. Downward pressure net; 33. Downward pressure height adjustment device. DETAILED DESCRIPTION

[0027] The present invention will be further described below in conjunction with the accompanying drawings:

[0028] like Figure 1 to Figure 2 As shown, this embodiment provides a daily-use ceramic glazing device, including an upper glaze trough 1, a glaze water mixing system 2 and a downward pressure system 3. The downward pressure system 3 floats in the upper glaze trough 1, so that as the glaze water is consumed, the downward pressure system 3 can adaptively descend as the water level drops. A through gap is provided between the downward pressure system 3 and the glaze water surface of the upper glaze trough 1, and the height of the through gap is adjustable, so that the glazing height can be controlled. The glaze water mixing system 2 is installed on the upper glaze trough 1, and the glaze water mixing system 2 extends into the bottom of the upper glaze trough 1 and moves up and down. During the up and down movement of the glaze water mixing system 2, the glaze water is stirred to ensure that the glaze water is evenly mixed and the glaze water quality is maintained stable.

[0029] Specifically, the glazing trough 1 includes a feeding section 11, a glazing section 12 and a discharging section 13, and the feeding section 11, the glazing section 12 and the discharging section 13 are connected to each other in sequence, and the feeding section 11 and the discharging section 13 are narrower than the glazing section 12. Since the feeding section 11 and the discharging section 13 are narrower than the glazing section 12, on the one hand, the glazed ceramic blanks are more concentrated in the discharging section 13 for easy recycling, and on the other hand, the use of glaze is reduced, and the unglazed ceramic blanks are pushed in from the feeding section 11, and each ceramic blank moves closely in the glazing trough 1. Since most of the buoyancy of the ceramic blank is used to overcome its own gravity, and in this embodiment, the downward pressure system is made of stainless steel, the friction between the ceramic blank and the downward pressure system 3 is low, and it can be easily pushed.

[0030] Specifically, the glaze mixing system 2 includes a glaze mixing plate 21 and a plurality of stirring and lifting devices 22. The glaze mixing plate 21 is adapted to the shape of the upper glaze trough 1. Each stirring and lifting device 22 is installed on the top of the upper glaze trough 1. The glaze mixing plate 21 extends into the bottom of the inner side of the upper glaze trough 1. Each stirring and lifting device 22 is connected to the glaze mixing plate 21 through transmission. The stirring and lifting device 22 drives the glaze mixing plate 21 to move up and down, thereby stirring the glaze water to prevent the glaze water from settling.

[0031] Specifically, the glaze mixing plate 21 includes a mixing frame 211, a plurality of mixing strips 212 and a plurality of mixing lifting rods 213. The contour of the mixing frame 211 is adapted to the shape of the glazing trough 1. Each mixing strip 212 is installed on the mixing frame 211. Each mixing strip 212 forms a mesh structure. Each mixing lifting rod 213 is installed on the mixing frame 211. Each mixing lifting rod 213 is transmission-connected to the corresponding stirring lifting device 22. The mixing frame 211 is used to provide support for the mixing strips 212. The mixing strips 212 enhance the stirring effect. Because the mesh structure is formed, the glazing trough 1 can be stirred everywhere, so that the glaze surface is calm, and the glaze surface is prevented from fluctuating and affecting the glazing.

[0032] Specifically, each stirring and lifting device 22 includes a stirring motor and a stirring eccentric shaft. The stirring eccentric shaft is installed on the output end of the stirring motor. The stirring eccentric shaft is installed on the top of the glazing tank 1 through a bearing. A hook plate is provided on the top of the mixing lifting rod 213. Each hook plate is pressed on the corresponding stirring eccentric shaft. The stirring motor drives the stirring eccentric shaft to rotate, and then drives the hook plate to reciprocate and lift, so that the mixing frame 211 is lifted and lowered to stir the glaze water.

[0033] Specifically, the pressing system 3 includes a pressing frame 31 and a plurality of pressing height adjusting devices 33. The pressing frame 31 and the pressing height adjusting devices 33 are installed together to achieve floating. A through gap is provided between the pressing frame 31 and the glaze water surface of the upper glaze trough 1. Both ends of the pressing frame 31 are formed in an arc shape. Each pressing height adjusting device 33 can be installed on the pressing frame 31 so as to be lifted and lowered. The lifting and lowering of the pressing height adjusting device 33 can adjust the height of the pressing frame 31, thereby changing the height of the through gap. In order to ensure the stability of the pressing frame 31, each pressing height adjusting device 33 is installed around the pressing frame 31.

[0034] Specifically, the lower pressing frame 31 includes a lower pressing frame and a lower pressing net 32. The lower pressing net 32 ​​is installed in the middle of the lower pressing frame. A passing gap is provided between the lower pressing net 32 ​​and the glaze water surface of the upper glaze trough 1. The setting of the lower pressing net 32 ​​enables the ceramic body to be visually seen when passing through the lower pressing frame 31, so as to facilitate the control of the specific glazing height at all times.

[0035] Specifically, the downward pressure height adjustment device 33 includes a downward pressure adjustment foam, a downward pressure adjustment plate and a downward pressure adjustment screw. The downward pressure adjustment plate is installed on the downward pressure frame 31 and can be raised and lowered through the downward pressure adjustment screw. The downward pressure adjustment foam is attached to the downward pressure adjustment plate. The downward pressure adjustment screw pushes the downward pressure adjustment plate to rise and fall, thereby changing the buoyancy of various parts of the downward pressure frame 31, which is convenient for controlling the posture of the downward pressure frame 31 and ensuring the glaze water level and glazing height.

[0036] The daily-use ceramic glazing method uses a daily-use ceramic glazing device, comprising the following steps:

[0037] S1: placing the unglazed ceramic body in the glazing tank 1 to float it, and pushing the unglazed ceramic body one by one toward the bottom of the pressing system 3 to perform glazing;

[0038] S2: Pressing the unglazed ceramic body down to the through-slit, and glazing is achieved when the ceramic body passes through the through-slit in sequence;

[0039] S3: The ceramic body glazed through the through-slit floats up again after passing through the through-slit, making it easy to take away.

[0040] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for illustrating the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which shall fall within the scope of the present invention to be protected. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. Daily-use ceramic glazing device, characterized in that: The glaze mixing system comprises an upper glaze trough, a glaze mixing system and a downward pressure system, wherein the downward pressure system floats in the upper glaze trough, a through gap is provided between the downward pressure system and the glaze water surface of the upper glaze trough, and the height of the through gap is adjustable, the glaze mixing system is installed on the upper glaze trough, the glaze mixing system extends into the bottom of the upper glaze trough and moves up and down, the downward pressure system comprises a downward pressure frame and a plurality of downward pressure height adjustment devices, the downward pressure frame and the downward pressure height adjustment devices are installed together to achieve floating, a through gap is provided between the downward pressure frame and the glaze water surface of the upper glaze trough, both ends of the downward pressure frame are formed in an arc shape, and each of the downward pressure height adjustment devices can be installed on the downward pressure frame in a lifting manner, the downward pressure frame comprises a downward pressure frame and a downward pressure net, the downward pressure net is installed in the middle part of the downward pressure frame, a through gap is provided between the downward pressure net and the glaze water surface of the upper glaze trough, and the downward pressure height adjustment device comprises downward pressure adjustment foam, a downward pressure adjustment plate and The down-pressing adjustment screw is used for the down-pressing adjustment plate to be lifted and lowered on the down-pressing frame by means of the down-pressing adjustment screw, and the down-pressing adjustment foam is pasted on the down-pressing adjustment plate. The glazing trough comprises a feeding section, a glazing section and a discharging section, and the feeding section, the glazing section and the discharging section are sequentially connected to each other, and the feeding section and the discharging section are narrower than the glazing section. The unglazed ceramic blanks are pushed in from the feeding section in a concentrated manner, and the ceramic blanks are closely connected to each other to realize the movement in the glazing trough. The down-pressing system is made of stainless steel, so the ceramic blanks and the down-pressing system rub against each other. The lifting and lowering of the down-pressing height adjustment device can adjust the height of the down-pressing frame, and then change the height of the through-slit. In order to ensure the stability of the down-pressing frame, each down-pressing height adjustment device is installed on the periphery of the down-pressing frame, and the unglazed ceramic blanks are pressed down to the through-slit, and glazing is realized when passing through the through-slit in turn. The ceramic blanks glazed through the through-slit float up again after passing through the through-slit, which is convenient for removal.

2. The daily-use ceramic glazing device according to claim 1, characterized in that: The glaze mixing system includes a glaze mixing plate and a plurality of stirring and lifting devices. The glaze mixing plate is adapted to the shape of the upper glaze trough. Each stirring and lifting device is installed on the top of the upper glaze trough. The glaze mixing plate extends into the bottom of the inner side of the upper glaze trough. Each stirring and lifting device is transmission-connected to the glaze mixing plate.

3. The daily-use ceramic glazing device according to claim 2, characterized in that: The glaze mixing plate includes a mixing frame, a plurality of mixing bars and a plurality of mixing lifting rods. The contour of the mixing frame is adapted to the shape of the glaze trough. Each of the mixing bars is installed on the mixing frame. Each of the mixing bars forms a mesh structure. Each of the mixing lifting rods is installed on the mixing frame. Each of the mixing lifting rods is transmission-connected to the corresponding stirring lifting device.

4. The daily-use ceramic glazing device according to claim 3, characterized in that: Each of the stirring lifting devices comprises a stirring motor and a stirring eccentric shaft, wherein the stirring eccentric shaft is mounted on the output end of the stirring motor, and a hook plate is provided on the top of the mixing lifting rod, and each of the hook plates is pressed on the corresponding stirring eccentric shaft.

5. A method for glazing daily-use ceramics, using the daily-use ceramics glazing device as claimed in claim 1, characterized in that: The steps include: S1: Place the unglazed ceramic body in the glazing tank to float it, and push the unglazed ceramic body one by one towards the bottom of the pressing system; S2: Pressing the unglazed ceramic body down to the through-slit, and glazing is achieved when the ceramic body passes through the through-slit; S3: The ceramic body glazed through the through-slit floats up again after passing through the through-slit, making it easy to take away.

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