Preparation method of thin-body ceramic
Through high-pressure automatic grouting machine and drum swing technology, mud is injected during the rotation process, the problems of uneven wall thickness and low yield in thin-tire ceramic production are solved, and thickness control and yield improvement are achieved.
Patent Information
- Application Number
- CN202310834869.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2023-07-10
- Publication Date
- 2025-01-10
AI Technical Summary
In the production of traditional thin-tiel ceramics, the product wall thickness is uneven and the yield is low, resulting in poor user experience.
Using high-pressure automatic grouting machine and drum swing technology, by evenly mixing raw materials and injecting mud at a set temperature and humidity during rotation, ensure that the mud is evenly distributed between the ceramic mold and the silicone mold, the thickness is controlled below 1mm, and the Solidification and molding under specified temperature and humidity environment.
It effectively solves the problem of uneven wall thickness, improves the product yield and user experience, and ensures the uniformity and quality of thin-tied ceramics.
Smart Images
Figure CN119283156A_ABST
Abstract
Description
Technical Field
[0001] The present application relates to the technical field of thin-body ceramics, and in particular to a method for preparing thin-body ceramics. Background Art
[0002] Thin-bodied porcelain, commonly known as eggshell porcelain, is world-famous for being "thin as paper, white as jade, bright as a mirror, and sounding like a chime". At present, most of the traditional thin-bodied porcelain is decorative craft porcelain, and the products include fish tanks, water jugs, vases, thin-bodied lampshades, etc. In addition, during the production process of thin-bodied ceramics, the wall thickness of the products is often uneven, and the yield rate is low, which brings a bad user experience. Summary of the invention
[0003] In order to make up for the above shortcomings, the present application provides a method for preparing thin-bodied ceramics, aiming to improve traditional thin-bodied porcelain, most of which are craft decorative porcelain, and the products include fish tanks, water jugs, vases, thin-bodied lampshades and other varieties. In addition, in the production process of thin-bodied ceramics, the product wall thickness is often uneven and the yield is low, which brings a bad user experience.
[0004] This application is implemented as follows:
[0005] The present application provides a method for preparing a thin-walled ceramic, comprising the following steps:
[0006] S1: Slurry preparation, mix the raw materials evenly according to the raw material ratio, and continuously stir the slurry to prevent the slurry from settling to the bottom, and then inject the slurry into the high-pressure automatic grouting machine;
[0007] S2: Mold closing: put the silicone mold into the ceramic mold, and let the air guide tube pass through the grouting port of the ceramic mold. Then, the silicone mold is closed, and the gap between the silicone mold and the ceramic mold forms the product shape.
[0008] S3: Install the mold, use the preparation equipment to place the ceramic mold on the tray, move the slider to squeeze the clamp arm on the outer wall of the ceramic mold, rotate the locking piece to make the end of the locking piece enter the tray, and fix the ceramic mold between the two clamp arms;
[0009] S4: Grouting, insert one end of the slurry guide tube into the grouting port of the ceramic mold, and install the other end of the slurry guide tube on the high-pressure automatic grouting machine. While the slinging drum drives the ceramic mold to rotate, the high-pressure automatic grouting machine also works to inject the slurry into the gap through the slurry guide tube and the grouting port of the ceramic mold. Since the slurry is injected in a centrifugal state, the slurry will be evenly thrown to the end flow position before it dries and be thrown solid, so that the slurry is evenly attached to the gap;
[0010] S5: Adjust the temperature and humidity, cover the machine cover, and the temperature and humidity controller controls the electric heating plate and the pump body to work. The electric heating plate heats the inner cavity of the spin drum, and the pump body humidifies the inner cavity of the spin drum, so that the ceramic mold is in the set temperature and humidity environment;
[0011] S6: Shaping: During the rotation of the ceramic mold, the slurry solidifies and takes shape under the set temperature and humidity environment;
[0012] S7: Take out the product, remove the slurry guide tube, open the sealing plug, use an air pump to inflate the silicone mold through the air guide tube to expand the silicone mold, let the ceramic body adhere to one side of the ceramic mold, then release the gas in the silicone mold, take out the silicone mold, and then open the ceramic mold to take out the product.
[0013] In one embodiment of the present application, the composition of the raw materials in step S1 includes: talc, mineralizer, binding clay, solid additives and toughening agent, and the weight ratio of each component is: talc 74-85.4 parts; the mineralizer is composed of feldspar, calcite, quartz and spodumene, and their addition amounts are 5-52 parts, 8-15 parts, 0-19 parts, and 0-3 parts respectively; the binding clay is 2-15.2 parts; the solid additive is composed of barium oxide, zinc oxide and magnesium oxide, and their addition amounts are 3-7 parts, 0-3 parts, and 0.1-8.2 parts respectively; the toughening agent zirconium oxide is 0-3.2 parts.
[0014] In one embodiment of the present application, the preparation equipment in step 4 includes a spinning drum, a temperature and humidity regulating mechanism, a tray, a clamping mechanism, a shaping mechanism, a machine cover, an air guide pipe, a high-pressure automatic grouting machine and a slurry guide pipe, the machine cover is fixed to the spinning drum by a hinge, the tray is arranged on the rotating shaft of the spinning drum, the clamping mechanism is arranged on the tray, the shaping mechanism is arranged between the clamping mechanism and the tray, the high-pressure automatic grouting machine is fixed on the upper surface of the tray, and the slurry guide pipe is arranged between the high-pressure automatic grouting machine and the shaping mechanism.
[0015] In one embodiment of the present application, a base is provided on the lower surface of the spinning drum, and the base is threaded on the spinning drum.
[0016] In one embodiment of the present application, the temperature and humidity regulating mechanism includes an atomizing nozzle, a U-shaped water pipe, a first water pipe, a pump body, a second water pipe and a temperature and humidity controller, the U-shaped water pipe runs through the spin drum, the atomizing nozzle is arranged at the end of the U-shaped water pipe, one end of the first water pipe is arranged on the U-shaped water pipe, the pump body is fixed on the outer wall of the spin drum, the other end of the first water pipe is arranged on the pump body, one end of the second water pipe is arranged on the pump body, the temperature and humidity controller is fixed on the outer wall of the spin drum, and the temperature and humidity controller and the pump body are electrically connected together.
[0017] In one embodiment of the present application, the temperature and humidity adjustment mechanism further includes an electric heating plate, the electric heating plate is fixed in the inner wall of the spin drum, and the electric heating plate and the temperature and humidity controller are electrically connected together.
[0018] In one embodiment of the present application, the clamping mechanism includes a clamping arm, a slider and a locking piece. The slider is slidably arranged on the tray, the clamping arm is fixed on the outer wall of the slider, and thread grooves are linearly and equidistantly opened on the tray. The locking piece thread passes through the slider, and the end thread of the locking piece is in the thread groove.
[0019] In one embodiment of the present application, a slide groove is provided on the tray, and the slider is slidably disposed in the slide groove.
[0020] In one embodiment of the present application, the shaping mechanism includes a ceramic mold and a silicone mold, the ceramic mold is inserted between the two clamping arms, and the silicone mold is inserted in the ceramic mold.
[0021] In one embodiment of the present application, the shaping mechanism further includes an air duct and a sealing plug, one end of the air duct is arranged on the silicone mold, the sealing plug is inserted into the air duct, and the air duct passes through the grouting port of the ceramic mold.
[0022] The beneficial effects of the present application are as follows: the present application obtains a method for preparing thin-walled ceramics through the above-mentioned design. When in use, the raw materials are evenly mixed together according to the raw material ratio, and the mud is continuously turned over to prevent the mud from standing and sinking to the bottom. The mud is then injected into a high-pressure automatic grouting machine, the silicone mold is placed into the ceramic mold, and the air guide tube is passed through the grouting port of the ceramic mold. The silicone mold is then molded together, and the gap between the silicone mold and the ceramic mold forms the shape of the product. The ceramic mold is placed on a tray using the preparation equipment, the slider is moved so that the clamping arm is squeezed on the outer wall of the ceramic mold, the locking piece is rotated so that the end of the locking piece enters the tray, and the ceramic mold is fixed between the two clamping arms, one end of the slurry guide tube is inserted into the grouting port of the ceramic mold, and the other end of the slurry guide tube is installed on the high-pressure automatic grouting machine. While the swinging drum drives the ceramic mold to rotate, the high-pressure automatic grouting machine also works to pass the mud through the slurry guide tube and the ceramic mold The grouting port is injected into the gap. Since the mud is injected under the centrifugal state, the mud will be evenly thrown to the end flow position and thrown solid before it dries, so that the mud is evenly laid in the gap, and the machine cover is covered. The temperature and humidity controller controls the operation of the electric heating plate and the pump body. The electric heating plate heats the inner cavity of the spinning drum, and the pump body humidifies the inner cavity of the spinning drum, so that the ceramic mold is in a set temperature and humidity environment. During the rotation of the ceramic mold, the mud solidifies and forms in the set temperature and humidity environment, the slurry guide tube is removed, the sealing plug is opened, and the air cylinder is used to inflate the silicone mold through the air guide tube to expand the silicone mold. After a period of time, the gas in the silicone mold is released, and then the ceramic mold is opened to take out the product. The preparation method of thin-body ceramics uses a spinning drum to make the slurry evenly distributed between the ceramic mold and the silicone mold, so that the thickness of the thin-body ceramics is controlled below 1 mm, and under the specified temperature and humidity environment, the product yield is increased. BRIEF DESCRIPTION OF THE DRAWINGS
[0023] In order to more clearly illustrate the technical solutions of the implementation methods of the present application, the drawings required for use in the implementation methods will be briefly introduced below. It should be understood that the following drawings only show certain embodiments of the present application and therefore should not be regarded as limiting the scope. For ordinary technicians in this field, other related drawings can be obtained based on these drawings without paying creative work.
[0024] Figure 1 It is a flowchart of a method for preparing thin-walled ceramics provided in an embodiment of the present application;
[0025] Figure 2 It is a schematic diagram of the three-dimensional structure of a preparation device of a method for preparing thin-walled ceramics provided in an embodiment of the present application;
[0026] Figure 3A three-dimensional schematic diagram of the temperature and humidity adjustment mechanism provided in the embodiment of the present application;
[0027] Figure 4 A schematic diagram of the three-dimensional structure of the clamping mechanism provided in the embodiment of the present application;
[0028] Figure 5 An exploded view of the shaping mechanism provided in an embodiment of the present application.
[0029] In the figure: 110-spinning drum; 120-base; 130-temperature and humidity adjustment mechanism; 131-electric heating plate; 132-atomizing nozzle; 133-U-shaped water pipe; 134-first water pipe; 135-pump body; 136-second water pipe; 137-temperature and humidity controller; 140-tray; 150-clamping mechanism; 151-clamping arm; 152-slider; 153-slide; 154-locking piece; 160-forming mechanism; 161-ceramic mold; 162-silicone mold; 163-air pipe; 164-sealing plug; 170-machine cover; 180-high-pressure automatic grouting machine; 190-grouting pipe. DETAILED DESCRIPTION
[0030] In order to make the purpose, technical solutions and advantages of the implementation methods of this application clearer, the technical solutions in the implementation methods of this application will be clearly and completely described below in conjunction with the drawings in the implementation methods of this application. Obviously, the described implementation methods are part of the implementation methods of this application, not all of the implementation methods. Based on the implementation methods in this application, all other implementation methods obtained by ordinary technicians in this field without creative work are within the scope of protection of this application.
[0031] Example
[0032] See also Figure 1-Figure 5 The present application provides a technical solution: a method for preparing thin-walled ceramics, comprising the following steps:
[0033] S1: slurry preparation, mixing the raw materials uniformly according to the raw material ratio, and continuously stirring the mud to prevent the mud from settling to the bottom, and then injecting the mud into the high-pressure automatic grouting machine 180. The raw material components in step S1 include: talc, mineralizer, binding clay, solid additives and toughening agent, and the weight ratio of each component is: talc 74-85.4 parts; mineralizer is composed of feldspar, calcite, quartz and spodumene, and their addition amounts are 5-52 parts, 8-15 parts, 0-19 parts, and 0-3 parts respectively; binding clay is 2-15.2 parts; solid additives are composed of barium oxide, zinc oxide and magnesium oxide, and their addition amounts are 3-7 parts, 0-3 parts, and 0.1-8.2 parts respectively; toughening agent zirconium oxide is 0-3.2 parts;
[0034] S2: mold closing, putting the silicone mold 162 into the ceramic mold 161, and passing the air guide tube 163 through the grouting port of the ceramic mold 161, and then closing the silicone mold 162, the gap between the silicone mold 162 and the ceramic mold 161 forms the product shape, and the silicone mold 162 has plasticity;
[0035] S3: Install the mold. Use the preparation equipment to place the ceramic mold 161 on the tray 140, move the slider 152 to squeeze the clamping arm 151 on the outer wall of the ceramic mold 161, and rotate the locking member 154 to make the end of the locking member 154 enter the tray 140, so as to fix the ceramic mold 161 between the two clamping arms 151;
[0036] S4: Grouting, insert one end of the slurry guide tube 190 into the grouting port of the ceramic mold 161, and install the other end of the slurry guide tube 190 on the high-pressure automatic grouting machine 180. While the swing drum 110 drives the ceramic mold 161 to rotate, the high-pressure automatic grouting machine 180 also works to inject mud into the gap through the slurry guide tube 190 and the grouting port of the ceramic mold 161. Since the mud is injected in a centrifugal state, the mud will be evenly thrown to the end flow position and thrown solid before it dries, so that the mud is evenly laid in the gap, effectively preventing the gap between the ceramic mold 161 and the silicone mold 162 from being too small, resulting in the mud not being able to completely fill the gap. A threaded sleeve is provided on the threaded sleeve of the discharge port of the high-pressure automatic grouting machine 180, and the lower end of the threaded sleeve is threaded together with the upper end of the slurry guide tube 190, so as to facilitate the connection of the slurry guide tube 190 with the high-pressure automatic grouting machine 180;
[0037] The preparation equipment in step 4 includes a spinning drum 110, a temperature and humidity regulating mechanism 130, a tray 140, a clamping mechanism 150, a shaping mechanism 160, a machine cover 170, a high-pressure automatic grouting machine 180 and a slurry guide pipe 190, wherein the machine cover 170 is fixed to the spinning drum 110 by a hinge, the tray 140 is arranged on the rotating shaft of the spinning drum 110, the clamping mechanism 150 is arranged on the tray 140, the shaping mechanism 160 is arranged between the clamping mechanism 150 and the tray 140, the high-pressure automatic grouting machine 180 is fixed on the upper surface of the tray 140, the slurry guide pipe 190 is arranged between the high-pressure automatic grouting machine 180 and the shaping mechanism 160, and a base 120 is arranged on the lower surface of the spinning drum 110, the base 120 is threaded on the spinning drum 110, and the arrangement of the base 120 facilitates leveling of the spinning drum 110;
[0038] The temperature and humidity adjustment mechanism 130 includes an atomizing nozzle 132, a U-shaped water pipe 133, a first water pipe 134, a pump body 135, a second water pipe 136 and a temperature and humidity controller 137. The U-shaped water pipe 133 runs through the spin drum 110. The atomizing nozzle 132 is arranged at the end of the U-shaped water pipe 133. One end of the first water pipe 134 is arranged on the U-shaped water pipe 133. The pump body 135 is fixed on the outer wall of the spin drum 110. The other end of the first water pipe 134 is arranged on the pump body 135. One end of the second water pipe 136 is arranged on the pump body 135. The temperature and humidity controller 137 is fixed on the outer wall of the spin drum 110, and the temperature and humidity controller 137 and the pump body 135 are electrically connected together. The arrangement of the pump body 135 facilitates the injection of water atomization into the spin drum 110, that is, controls the humidity in the spin drum 110. The temperature and humidity adjustment mechanism 130 also includes an electric heating plate 131, which is fixed in the inner wall of the spin drum 110. The electric heating plate 131 and the temperature and humidity controller 137 are electrically connected together. The arrangement of the electric heating plate 131 and the temperature and humidity controller 137 facilitates the control of the temperature in the spin drum 110.
[0039] The clamping mechanism 150 includes a clamping arm 151, a slider 152 and a locking member 154. The slider 152 is slidably arranged on the tray 140. The clamping arm 151 is fixed on the outer wall of the slider 152. The tray 140 is provided with linearly equidistant thread grooves. The locking member 154 thread penetrates the slider 152. The end of the locking member 154 is threaded in the thread groove. The setting of the thread groove is convenient for controlling the position of the slider 152 on the tray 140, and is convenient for clamping and fixing ceramic molds 161 of different models. The locking member 154 in this embodiment is a bolt. The tray 140 is provided with a slide groove 153. The slider 152 is slidably arranged in the slide groove 153, and the arrangement of the slide groove 153 facilitates the control of the position of the slider 152 on the tray 140. The shaping mechanism 160 includes a ceramic mold 161 and a silicone mold 162. The ceramic mold 161 is inserted between the two clamp arms 151, and the silicone mold 162 is inserted in the ceramic mold 161. The shaping mechanism 160 also includes an air guide tube 163 and a sealing plug 164. One end of the air guide tube 163 is arranged on the silicone mold 162, and the sealing plug 164 is inserted in the air guide tube 163. The air guide tube 163 passes through the grouting port of the ceramic mold 161.
[0040] S5: Adjust the temperature and humidity, cover the machine cover 170, and the temperature and humidity controller 137 controls the electric heating plate 131 and the pump body 135 to work. The electric heating plate 131 heats the inner cavity of the spin drum 110, and the pump body 135 humidifies the inner cavity of the spin drum 110, so that the ceramic mold 161 is in the set temperature and humidity environment;
[0041] S6: shaping, during the rotation of the ceramic mold 161, the slurry solidifies and forms under a set temperature and humidity environment;
[0042] S7: Take out the product, remove the slurry guide tube 190, open the sealing plug 164, use the air cylinder to inflate the silicone mold 162 through the air guide tube 163 to expand the silicone mold 162. After a period of time, release the gas in the silicone mold 162, and then open the ceramic mold 161 to take out the product.
[0043] Specifically, the working principle of the preparation method of the thin-walled ceramic is as follows: when in use, the raw materials are uniformly mixed according to the raw material ratio, and the mud is continuously stirred to prevent the mud from settling to the bottom, and then the mud is injected into the high-pressure automatic grouting machine 180, the silicone mold 162 is placed into the ceramic mold 161, and the air guide tube 163 passes through the grouting port of the ceramic mold 161, and then the silicone mold 162 is molded, and the gap between the silicone mold 162 and the ceramic mold 161 forms the product shape, and the ceramic mold 161 is placed on the tray 14 using the preparation equipment. 0, move the slider 152 to squeeze the clamp arm 151 on the outer wall of the ceramic mold 161, rotate the locking piece 154, and make the end of the locking piece 154 enter the tray 140 to fix the ceramic mold 161 between the two clamp arms 151, insert one end of the slurry guide pipe 190 into the grouting port of the ceramic mold 161, and install the other end of the slurry guide pipe 190 on the high-pressure automatic grouting machine 180. While the swing drum 110 drives the ceramic mold 161 to rotate, the high-pressure automatic grouting machine 180 also works to pass the slurry guide pipe 190 and the ceramic mold into the grouting port. The grouting port 161 is injected into the gap. Since the mud is injected in a centrifugal state, the mud will be evenly thrown to the end flow position and thrown solid before it dries, so that the mud is evenly laid in the gap. The machine cover 170 is covered, and the temperature and humidity controller 137 controls the electric heating plate 131 and the pump body 135 to work. The electric heating plate 131 heats the inner cavity of the spin drum 110, and the pump body 135 humidifies the inner cavity of the spin drum 110, so that the ceramic mold 161 is in a set temperature and humidity environment. During the rotation of the ceramic mold 161, the mud is in the set temperature and humidity. The product is solidified and formed under the environment, the slurry guide tube 190 is removed, the sealing plug 164 is opened, and the silicone mold 162 is inflated by an air cylinder through the air guide tube 163 to expand the silicone mold 162. After a period of time, the gas in the silicone mold 162 is released, and then the ceramic mold 161 is opened to take out the product. The preparation method of thin-body ceramics utilizes the spinning drum 110 to evenly distribute the slurry between the ceramic mold 161 and the silicone mold 162, so that the thickness of the thin-body ceramics is controlled below 1 mm, and the product yield is increased under a specified temperature and humidity environment.
[0044] It should be noted that the specific models and specifications of the spinning drum 110, electric heating plate 131, pump body 135, temperature and humidity controller 137 and high-pressure automatic grouting machine 180 need to be selected and determined according to the actual specifications of the device, etc. The specific selection calculation method adopts the existing technology in this field, so it will not be described in detail.
[0045] The power supply and principle of the spinning drum 110, the electric heating plate 131, the pump body 135, the temperature and humidity controller 137 and the high-pressure automatic grouting machine 180 are clear to those skilled in the art and will not be described in detail here.
[0046] The above are only embodiments of the present application and are not intended to limit the scope of protection of the present application. For those skilled in the art, the present application may have various changes and variations. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present application should be included in the scope of protection of the present application. It should be noted that similar reference numerals and letters represent similar items in the following drawings, so once an item is defined in one drawing, it does not need to be further defined and explained in the subsequent drawings.
Claims
1. A method for preparing thin-walled ceramics, characterized in that: The following steps are involved: S1: slurry preparation, mixing the raw materials uniformly according to the raw material ratio, and continuously stirring the slurry to prevent the slurry from settling to the bottom, and then injecting the slurry into a high-pressure automatic grouting machine (180); S2: mold closing, placing the silicone mold (162) into the ceramic mold (161), and passing the air guide tube (163) through the grouting port of the ceramic mold (161), and then closing the silicone mold (162), so that the gap between the silicone mold (162) and the ceramic mold (161) forms the product shape; S3: Install the mold, use the preparation equipment to place the ceramic mold (161) on the tray (140), move the slider (152) to squeeze the clamping arm (151) on the outer wall of the ceramic mold (161), rotate the locking member (154) to make the end of the locking member (154) enter the tray (140), and fix the ceramic mold (161) between the two clamping arms (151); S4: Grouting, inserting one end of the grouting pipe (190) into the grouting port of the ceramic mold (161), installing the other end of the grouting pipe (190) on the high-pressure automatic grouting machine (180), while the swinging drum (110) drives the ceramic mold (161) to rotate, the high-pressure automatic grouting machine (180) also works to inject mud into the gap through the grouting pipe (190) and the grouting port of the ceramic mold (161). Since the mud is injected in a centrifugal state, the mud will be evenly thrown to the end flow position before it dries and be thrown solid, so that the mud is evenly laid in the gap; S5: Adjusting the temperature and humidity, closing the machine cover (170), and controlling the temperature and humidity controller (137) to control the electric heating plate (131) and the pump body (135) to operate, so that the electric heating plate (131) heats the inner cavity of the spin drum (110), and the pump body (135) humidifies the inner cavity of the spin drum (110), so that the ceramic mold (161) is in a set temperature and humidity environment; S6: shaping, during the rotation of the ceramic mold (161), the slurry solidifies and forms under a set temperature and humidity environment; S7: Take out the product, remove the slurry guide tube (190), open the sealing plug (164), use an air cylinder to inflate the silicone mold (162) through the air guide tube (163), so that the silicone mold (162) expands. After a period of time, release the gas in the silicone mold (162), and then open the ceramic mold (161) to take out the product.
2. The method for preparing a thin-walled ceramic according to claim 1, characterized in that: The raw material components in step S1 include: talc, mineralizer, binding clay, solid additives and toughening agent, and the weight ratio of each component is: talc 74-85.4 parts; the mineralizer is composed of feldspar, calcite, quartz and spodumene, and their addition amounts are 5-52 parts, 8-15 parts, 0-19 parts and 0-3 parts respectively; the binding clay is 2-15.2 parts; the solid additive is composed of barium oxide, zinc oxide and magnesium oxide, and their addition amounts are 3-7 parts, 0-3 parts and 0.1-8.2 parts respectively; the toughening agent zirconium oxide is 0-3.2 parts.
3. The method for preparing a thin-walled ceramic according to claim 1, characterized in that: The preparation equipment in step 4 comprises a spinning drum (110), a temperature and humidity regulating mechanism (130), a tray (140), a clamping mechanism (150), a shaping mechanism (160), a machine cover (170), a high-pressure automatic grouting machine (180) and a slurry guide pipe (190); the machine cover (170) is fixed to the spinning drum (110) by a hinge; the tray (140) is arranged on the rotating shaft of the spinning drum (110); the clamping mechanism (150) is arranged on the tray (140); the shaping mechanism (160) is arranged between the clamping mechanism (150) and the tray (140); the high-pressure automatic grouting machine (180) is fixed on the upper surface of the tray (140); and the slurry guide pipe (190) is arranged between the high-pressure automatic grouting machine (180) and the shaping mechanism (160).
4. The method for preparing a thin-walled ceramic according to claim 3, characterized in that: A base (120) is provided on the lower surface of the spinning cylinder (110), and the base (120) is threaded on the spinning cylinder (110).
5. The method for preparing a thin-walled ceramic according to claim 3, characterized in that: The temperature and humidity regulating mechanism (130) comprises an atomizing nozzle (132), a U-shaped water pipe (133), a first water pipe (134), a pump body (135), a second water pipe (136) and a temperature and humidity controller (137); the U-shaped water pipe (133) runs through the spin drum (110); the atomizing nozzle (132) is arranged at the end of the U-shaped water pipe (133); one end of the first water pipe (134) is arranged on the U-shaped water pipe (133); the pump body (135) is fixed on the outer wall of the spin drum (110); the other end of the first water pipe (134) is arranged on the pump body (135); one end of the second water pipe (136) is arranged on the pump body (135); the temperature and humidity controller (137) is fixed on the outer wall of the spin drum (110); and the temperature and humidity controller (137) and the pump body (135) are electrically connected together.
6. The method for preparing a thin-body ceramic according to claim 5, characterized in that: The temperature and humidity adjustment mechanism (130) further comprises an electric heating plate (131), wherein the electric heating plate (131) is fixed in the inner wall of the spin drum (110), and the electric heating plate (131) and the temperature and humidity controller (137) are electrically connected together.
7. The method for preparing a thin-body ceramic according to claim 3, characterized in that: The clamping mechanism (150) comprises a clamping arm (151), a slider (152) and a locking member (154); the slider (152) is slidably arranged on the tray (140); the clamping arm (151) is fixed on the outer wall of the slider (152); thread grooves are linearly and equidistantly provided on the tray (140); the locking member (154) is threadedly penetrated through the slider (152); and the end of the locking member (154) is threaded in the thread groove.
8. The method for preparing a thin-body ceramic according to claim 7, characterized in that: The tray (140) is provided with a slide groove (153), and the slider (152) is slidably disposed in the slide groove (153).
9. The method for preparing a thin-body ceramic according to claim 7, characterized in that: The shaping mechanism (160) comprises a ceramic mold (161) and a silicone mold (162); the ceramic mold (161) is inserted between the two clamping arms (151), and the silicone mold (162) is inserted inside the ceramic mold (161).
10. The method for preparing a thin-body ceramic according to claim 9, characterized in that: The shaping mechanism (160) further comprises an air guide tube (163) and a sealing plug (164); one end of the air guide tube (163) is arranged on the silicone mold (162); the sealing plug (164) is inserted into the air guide tube (163); and the air guide tube (163) passes through the grouting port of the ceramic mold (161).