High-throughput production control method for preparing ceramic material through 3D printing

By constructing multiple databases for high-throughput production control of ceramic materials, the complexity and low yield rate of traditional ceramic forming technology have been solved, enabling efficient and large-scale production of ceramic materials.

CN121132844APending Publication Date: 2025-12-16SHANDONG RES & DESIGN ACADEMY OF IND CERAMICS
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Patent Information

Application Number
CN202410766396.4
Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
Filing Date
2024-06-14
Publication Date
2025-12-16

AI Technical Summary

Technical Problem

Traditional ceramic forming technology suffers from problems such as long processing time, complex process flow, high cost, and inability to form complex products, resulting in a low pass rate for large-scale production of ceramic materials prepared by 3D printing and making it difficult to achieve efficient production.

Method used

By constructing multiple databases and pre-setting grading methods for raw materials, slurries, green bodies, and products of different types of ceramic materials, the system can classify and automate real-time production data, ensuring that semi-finished products in each process meet standards or are qualified by adjusting subsequent processes, thus avoiding the generation of unqualified products.

Benefits of technology

It significantly improves the production efficiency and yield of ceramic materials, reduces waste, and achieves high-throughput production control for 3D printed ceramic materials.

✦ Generated by Eureka AI based on patent content.
Patent Text Reader

Abstract

The invention discloses a high-throughput production control method for preparing a ceramic material through 3D printing, and the method comprises the following steps: constructing a first database, the first database comprises ceramic product type information, ceramic slurry raw material standard information data corresponding to different types of ceramic products and ceramic slurry raw material level range data corresponding to different types of ceramic products; classifying real-time raw material information data obtained during production; constructing a second database, wherein the second database comprises ceramic slurry preparation processes corresponding to different types of different levels of real-time raw materials and ceramic slurry level range data corresponding to different types of ceramic products; classifying real-time ceramic slurry information data obtained during production to obtain different types of real-time ceramic slurry quality levels; and the qualification rate of ceramic materials produced on a large scale through 3D printing is increased.
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Description

TECHNICAL FIELD

[0001] The present application relates to the field of 3D printing preparation of ceramic materials, and in particular to the field of a high-throughput production control method for 3D printing preparation of ceramic materials. BACKGROUND

[0002] Traditional ceramic forming technology has limitations such as long processing time, complex process flow, high cost, and inability to form complex products, which restrict the development of advanced ceramic industry. 3D printing technology uses a gradual accumulation method to manufacture solid parts, which has the advantages of not increasing the cost of manufacturing complex products, not requiring a mold, and being able to flexibly prepare highly complex and accurate structures, compared to traditional subtractive and equal material manufacturing methods, and thus has great potential in modern manufacturing.

[0003] 3D printing of ceramic materials includes processes such as preparation of ceramic slurry, 3D printing forming, and sintering; the performance indicators of the ceramic slurry preparation have a greater impact on the quality of the ceramic body prepared by 3D printing; therefore, the pass rate of large-scale 3D printing production of ceramic materials is low, and planning is difficult to form.

[0004] Therefore, how to invent a production control method for 3D printing preparation of ceramic materials to improve the pass rate of large-scale 3D printing production of ceramic materials has become a problem to be solved in the field. SUMMARY

[0005] The present application aims to provide a high-throughput production control method for 3D printing preparation of ceramic materials, which realizes the improvement of the pass rate of large-scale 3D printing production of ceramic materials.

[0006] The present application provides a high-throughput control method for ceramic powder production, which comprises the following steps:

[0007] A first database is constructed, which includes ceramic product category information, ceramic slurry raw material standard information data corresponding to different categories of ceramic products, and ceramic slurry raw material grade range data corresponding to different categories of ceramic products;

[0008] A raw material information grading method for different categories of ceramics is preset, and real-time raw material information data obtained during production is classified according to the different categories of ceramic slurry raw material grade range data to obtain different categories of real-time raw material quality grades;

[0009] A second database is constructed, which includes ceramic slurry preparation processes corresponding to different grades of real-time raw materials of different categories, and ceramic slurry grade range data corresponding to different categories of ceramic products;

[0010] The preset ceramic slurry grading method of different kinds of ceramics classifies real-time ceramic slurry information data obtained during production according to different kinds of ceramic slurry grade range data, and obtains different kinds of real-time ceramic slurry quality grades.

[0011] A third database is constructed, and the third database includes 3D printing forming processes corresponding to different kinds of different grade real-time ceramic slurries, and ceramic body grade range data corresponding to different kinds of ceramic products.

[0012] The preset ceramic body grading method of different kinds of ceramics classifies real-time ceramic body information data obtained during production according to ceramic body grade range data corresponding to different kinds of ceramic products, and obtains different kinds of real-time ceramic body quality grades.

[0013] A fourth database is constructed, and the fourth database includes sintering processes corresponding to different kinds of different grade real-time ceramic bodies, and ceramic product grade range data of different kinds.

[0014] The preset ceramic product classification method of different kinds classifies real-time ceramic product information data obtained during production according to ceramic product grade range data, and obtains different kinds of real-time ceramic product quality grades.

[0015] The beneficial effects of the present application relative to the prior art are that the first database is preset to store the names, technical features, quantity performance requirements of ceramic slurry raw materials required by different kinds of ceramic materials, and simultaneously store the qualified standard range, unqualified index range and adjustable index range of ceramic slurry raw materials corresponding to different kinds of ceramic products, so that when a production command including the kind of ceramic material is received, the required ceramic slurry raw materials can be automatically guided to be measured.

[0016] The preset raw material information grading method of different kinds of ceramics classifies the actual situation of the ceramic slurry raw materials measured during production, and confirms whether the obtained raw materials are qualified, unqualified or adjustable; the adjustable category does not meet the ceramic slurry raw material standard, but the ceramic slurry production process can be adjusted subsequently to achieve qualified ceramic slurry.

[0017] The second database is used to store the processing methods of different types and different levels of ceramic slurry raw materials, to stop processing of unqualified ceramic slurry raw materials, to avoid waste and improve the qualified rate; the ceramic slurry raw materials that do not meet the standard range of ceramic slurry raw materials but can be adjusted for use are adjusted to obtain qualified ceramic slurry quality by adjusting the ceramic slurry preparation method, thereby improving the qualified rate of ceramic materials; and the qualified standard range, unqualified index range and adjustable index range of the ceramic slurry corresponding to different types of ceramic products are stored.

[0018] The preset ceramic slurry grading method of different types of ceramics is used to classify the actual performance of the produced ceramic slurry, to confirm whether the prepared ceramic slurry is qualified, unqualified or adjustable; the adjustable category does not meet the ceramic slurry standard but can be adjusted in the subsequent ceramic body production process to achieve qualified ceramic body;

[0019] The third database is used to store the processing methods of different types and different levels of ceramic slurry, to stop processing of unqualified ceramic slurry, to avoid waste and improve the qualified rate; the ceramic slurry that does not meet the standard range of ceramic slurry but can be adjusted for use is adjusted to obtain qualified ceramic body quality by adjusting the ceramic body preparation method, thereby improving the qualified rate of ceramic body; and the qualified standard range, unqualified index range and adjustable index range of the ceramic body corresponding to different types of ceramic products are stored.

[0020] The preset ceramic body grading method of different types of ceramics is used to classify the actual performance of the produced ceramic body, to confirm whether the prepared ceramic body is qualified, unqualified or adjustable; the adjustable category does not meet the ceramic body standard but can be adjusted in the subsequent ceramic body sintering production process to achieve qualified ceramic;

[0021] The fourth database is used to store the processing methods of different types and different levels of ceramic body, to stop processing of unqualified ceramic body, to avoid waste and improve the qualified rate; the ceramic body that does not meet the standard range of ceramic body but can be adjusted for use is adjusted to obtain qualified ceramic product quality by adjusting the sintering process, thereby improving the qualified rate of ceramic product; and the qualified standard range and unqualified index range of different types of ceramic products are stored.

[0022] Therefore, through the high-throughput production control method, the raw materials, ceramic slurry and ceramic body in the process of 3D printing preparation of ceramic materials are classified in real time, and at least three categories are formed. The unqualified semi-finished products of each process are stopped from being used, and the semi-finished products of the next process that do not meet the standard range but can be adjusted to qualified semi-finished products of the next process by adjusting the production process of the next process are used as a level. The semi-finished products of this level are used in the corresponding production process of the next process, so that the qualified semi-finished products of the next process are obtained. Therefore, the production efficiency and the qualified rate are obviously improved.

[0023] Further, the ceramic slurry raw material standard information data includes: standard raw material type information, standard raw material form information, standard raw material standard weight information, and standard raw material form feature information.

[0024] The raw material form information includes solid raw material information and liquid raw material information.

[0025] The standard raw material form feature information includes: standard solid raw material particle size information, standard solid raw material loose density information, standard solid raw material water content information, standard solid raw material repose angle information, and standard liquid raw material viscosity information.

[0026] Further, the ceramic product type information includes: 1-n product types, and n≤5.

[0027] The different types of real-time raw material quality levels include: n product normal level raw materials, n product first adjustment level raw materials, n product second adjustment level raw materials, and n product unqualified level raw materials.

[0028] The ceramic slurry raw material level range data corresponding to the different types of ceramic products includes:

[0029] The n product normal level raw material information range, the n product first adjustment level raw material information range, the n product second adjustment level raw material, and the n product unqualified level raw material information.

[0030] The n product normal level raw material information range includes: n product normal level raw material type range, n product normal level raw material form range, n product normal level raw material weight range, n product normal level solid raw material particle size range, n product normal level solid raw material loose density range, n product normal level solid raw material water content range, n product normal level solid raw material repose angle range, and n product normal level liquid raw material viscosity range.

[0031] The first adjustment level product raw material information range of the n-type product includes: the n-type product first adjustment level product category range, the n-type product first adjustment level product raw material form range, the n-type product first adjustment level product raw material weight range, the n-type product first adjustment level product solid raw material particle size range, the n-type product first adjustment level solid raw material loose bulk density range, the n-type product first adjustment level solid raw material moisture content range, the n-type product first adjustment level solid raw material repose angle range, and the n-type first adjustment level product liquid raw material viscosity range.

[0032] The second adjustment level product raw material information range of the n-type product includes: the n-type product second adjustment level product category range, the n-type product second adjustment level product raw material form range, the n-type product second adjustment level product raw material weight range, the n-type product second adjustment level product solid raw material particle size range, the n-type product second adjustment level solid raw material loose bulk density range, the n-type product second adjustment level solid raw material moisture content range, the n-type product second adjustment level solid raw material repose angle range, and the n-type second adjustment level product liquid raw material viscosity range.

[0033] The unqualified level raw material information range of the n-type product includes: the n-type product unqualified level raw material category range, the n-type product unqualified level raw material form range, the n-type product unqualified level raw material weight range, the n-type product unqualified level solid raw material particle size range, the n-type product unqualified level solid raw material loose bulk density range, the n-type product unqualified level solid raw material moisture content range, the n-type product unqualified level solid raw material repose angle range, and the n-type unqualified level product liquid raw material viscosity range.

[0034] Further, the ceramic slurry preparation process corresponding to the different levels of different types of real-time raw materials includes:

[0035] The ceramic slurry preparation process corresponding to the normal level raw material of the n-type product is specifically the ceramic slurry standard preparation process of the n-type product; the ceramic slurry standard preparation process of the n-type product includes: raw material standard mixing time, raw material standard stirring time, and raw material standard stirring rate.

[0036] The ceramic slurry preparation process corresponding to the first adjustment level raw material of the n-type product includes: 105-120% of the raw material standard mixing time, 105-120% of the raw material standard stirring time, and 100-120% of the raw material standard stirring rate.

[0037] The ceramic slurry preparation process corresponding to the second adjustment level raw material of the n-type product includes: 90-95% of the raw material standard mixing time, 90-95% of the raw material standard stirring time, and 90-100% of the raw material standard stirring rate.

[0038] The ceramic slurry preparation process corresponding to the raw material of the n-type product unqualified level includes: stopping batching.

[0039] Further, the real-time ceramic slurry information data includes the ceramic slurry viscosity of the n-type product and the photocuring time of the ceramic slurry of the n-type product.

[0040] The different types of real-time ceramic slurry quality levels include: n-type product normal level real-time ceramic slurry quality, n-type product first adjustment level real-time ceramic slurry quality, n-type product second adjustment level real-time ceramic slurry quality, and n-type product unqualified level real-time ceramic slurry quality.

[0041] The ceramic slurry level range data corresponding to different types of ceramic products includes:

[0042] The n-type product normal level ceramic slurry index range, the n-type product first adjustment level ceramic slurry index range, the n-type product second adjustment level ceramic slurry index range, and the n-type product unqualified level ceramic slurry index range.

[0043] The n-type product normal level ceramic slurry index range includes: n-type product normal level ceramic slurry standard viscosity range and n-type product normal level ceramic slurry photocuring time range.

[0044] The n-type product first adjustment level ceramic slurry index range includes: n-type product first adjustment level ceramic slurry viscosity range and n-type product first adjustment level ceramic slurry photocuring time range.

[0045] The n-type product second adjustment level ceramic slurry index range includes: n-type product second adjustment level ceramic slurry viscosity range and n-type product second adjustment level ceramic slurry photocuring time range.

[0046] The n-type product unqualified level ceramic slurry index range includes: n-type product unqualified level ceramic slurry viscosity range and n-type product unqualified level ceramic slurry photocuring time range.

[0047] Further, the 3D printing forming process corresponding to the different types of different levels of real-time ceramic slurry includes:

[0048] The 3D printing forming process corresponding to the n-type product normal level ceramic slurry is the 3D printing forming standard preparation process of the n-type product. The 3D printing forming standard preparation process of the n-type product includes: standard light intensity and standard exposure time.

[0049] The 3D printing forming process corresponding to the n-type product first adjustment level ceramic slurry includes: 105-120% of the standard light intensity and 105-120% of the standard exposure time.

[0050] The 3D printing forming process corresponding to the second adjustment level ceramic slurry of the n-type product includes 90-95% of the standard light intensity and 90-95% of the standard light intensity.

[0051] The 3D printing forming process corresponding to the unqualified level ceramic slurry of the n-type product includes stopping 3D printing forming.

[0052] Further, the real-time ceramic body information data includes the ceramic body strength of the n-type product and the ceramic body size of the n-type product.

[0053] The different types of real-time ceramic body quality levels include the normal level ceramic body of the n-type product, the adjustment level ceramic body of the n-type product, and the unqualified level ceramic body of the n-type product.

[0054] The ceramic body level range data corresponding to different types of ceramic products includes:

[0055] The n-type product normal level ceramic body index range, the n-type product adjustment level ceramic body index range, and the n-type product unqualified level ceramic body index range.

[0056] The n-type product normal level ceramic body index range includes the n-type product normal level ceramic body standard strength range and the n-type product normal level ceramic body size range.

[0057] The n-type product adjustment level ceramic body index range includes the n-type product adjustment level ceramic body standard strength range and the n-type product adjustment level ceramic body size range.

[0058] The n-type product unqualified level ceramic body index range includes the n-type product unqualified level ceramic body strength range and the n-type product unqualified level ceramic body size range.

[0059] Further, the sintering process corresponding to different types of different levels of real-time ceramic bodies includes the sintering process corresponding to the n-type product normal level ceramic body, the sintering process corresponding to the n-type product adjustment level ceramic body, and the sintering process corresponding to the n-type product unqualified level ceramic body.

[0060] The sintering process corresponding to the n-type product normal level ceramic body is specifically the standard sintering process corresponding to the ceramic body of the n-type product, and the standard sintering process corresponding to the ceramic body of the n-type product includes a standard heating rate and a standard maximum sintering temperature.

[0061] The sintering process corresponding to the n-type product adjustment level ceramic body includes 90-95% of the standard heating rate and 105-120% of the standard maximum sintering temperature.

[0062] The sintering process corresponding to the unqualified ceramic product of the n-type product includes: stopping sintering.

[0063] Further, the ceramic product information data includes ceramic product strength and ceramic product size of the n-type product.

[0064] The real-time ceramic product quality levels of different types include: n-type product first-class ceramic product, n-type product second-class ceramic product, and n-type product unqualified ceramic product.

[0065] The ceramic product level range data of different types includes:

[0066] The n-type product first-class ceramic product index range, the n-type product second-class ceramic product index range, and the n-type product unqualified ceramic product index range.

[0067] The n-type product first-class ceramic product index range includes: n-type first-class ceramic product strength range and n-type first-class ceramic product size range.

[0068] The n-type product second-class ceramic product index range includes: n-type second-class ceramic product strength range and n-type second-class ceramic product size range.

[0069] The n-type product unqualified ceramic product index range includes: n-type unqualified ceramic product strength range and n-type unqualified ceramic product size range.

[0070] Further, the 3D printing forming standard preparation process of the n-type product further includes: standard ceramic slurry temperature.

[0071] The 3D printing forming process corresponding to the n-type product first adjustment level ceramic slurry further includes: the ceramic slurry temperature is 105-120% of the standard ceramic slurry temperature. DETAILED DESCRIPTION

[0072] In order to better understand the technical solutions of the present application, the present application will be further described below in combination with specific embodiments.

[0073] Embodiment 1:

[0074] The embodiment provides a high-throughput production control method for preparing ceramic materials by 3D printing, including the following steps:

[0075] A first database is constructed, and the first database includes ceramic product type information, ceramic slurry raw material standard information data corresponding to different types of ceramic products, and ceramic slurry raw material level range data corresponding to different types of ceramic products.

[0076] The preset raw material information grading method for different types of ceramics classifies real-time raw material information data obtained during production according to raw material level range data of different types of ceramic slurries, and obtains real-time raw material quality levels of different types.

[0077] The ceramic product type information includes: 1-n types of products, n≤5;

[0078] The real-time raw material quality levels of different types include: n-type product normal level raw material, n-type product first adjustment level raw material, n-type product second adjustment level raw material, and n-type product unqualified level raw material.

[0079] The ceramic slurry raw material standard information data includes: standard raw material type information, standard raw material form information, standard raw material standard weight information, and standard raw material form feature information.

[0080] The raw material form information includes solid raw material information and liquid raw material information.

[0081] The standard raw material form feature information includes: standard solid raw material particle size information, standard solid raw material loose density information, standard solid raw material water content information, standard solid raw material repose angle information, and standard liquid raw material viscosity information.

[0082] The ceramic slurry raw material level range data corresponding to different types of ceramic products includes:

[0083] The normal level raw material information range of n-type products, the first adjustment level raw material information range of n-type products, the second adjustment level raw material of n-type products, and the unqualified level raw material information of n-type products.

[0084] The normal level raw material information range of n-type products includes: n-type product normal level raw material type range, n-type product normal level raw material form range, n-type product normal level raw material weight range, n-type product normal level solid raw material particle size range, n-type product normal level solid raw material loose density range, n-type product normal level solid raw material water content range, n-type product normal level solid raw material repose angle range, and n-type normal level product liquid raw material viscosity range.

[0085] The first adjustment level product raw material information range of n-type products includes: n-type product first adjustment level product type range, n-type product first adjustment level product raw material form range, n-type product first adjustment level product raw material weight range, n-type product first adjustment level product solid raw material particle size range, n-type product first adjustment level solid raw material loose density range, n-type product first adjustment level solid raw material water content range, n-type product first adjustment level solid raw material repose angle range, and n-type first adjustment level product liquid raw material viscosity range.

[0086] The second adjustment level product raw material information range of the n-type product includes: the n-type product second adjustment level product category range, the n-type product second adjustment level product raw material form range, the n-type product second adjustment level product raw material weight range, the n-type product second adjustment level product solid raw material particle size range, the n-type product second adjustment level solid raw material loose bulk density range, the n-type product second adjustment level solid raw material moisture content range, the n-type product second adjustment level solid raw material repose angle range, and the n-type second adjustment level product liquid raw material viscosity range.

[0087] The unqualified level raw material information range of the n-type product includes: the n-type product unqualified level raw material category range, the n-type product unqualified level raw material form range, the n-type product unqualified level raw material weight range, the n-type product unqualified level solid raw material particle size range, the n-type product unqualified level solid raw material loose bulk density range, the n-type product unqualified level solid raw material moisture content range, the n-type product unqualified level solid raw material repose angle range, and the n-type unqualified level product liquid raw material viscosity range.

[0088] The second database is constructed, and the second database includes ceramic slurry preparation processes corresponding to different levels of different categories of real-time raw materials and ceramic slurry level range data corresponding to different categories of ceramic products.

[0089] A ceramic slurry grading method of different categories of ceramic is preset, real-time ceramic slurry information data obtained during production is classified according to the ceramic slurry level range data of different categories of ceramic, and different categories of real-time ceramic slurry quality levels are obtained.

[0090] The ceramic slurry preparation processes corresponding to different levels of different categories of real-time raw materials include:

[0091] The ceramic slurry preparation process corresponding to the normal level raw material of the n-type product is specifically a ceramic slurry standard preparation process of the n-type product, and the ceramic slurry standard preparation process of the n-type product includes: a raw material standard mixing time, a raw material standard stirring time, and a raw material standard stirring rate.

[0092] The ceramic slurry preparation process corresponding to the first adjustment level raw material of the n-type product includes: 105-120% of the raw material standard mixing time, 105-120% of the raw material standard stirring time, and 100-120% of the raw material standard stirring rate.

[0093] The ceramic slurry preparation process corresponding to the second adjustment level raw material of the n-type product includes: 90-95% of the raw material standard mixing time, 90-95% of the raw material standard stirring time, and 90-100% of the raw material standard stirring rate.

[0094] The ceramic slurry preparation process corresponding to the unqualified level raw material of the n-type product includes: stopping batching.

[0095] The ceramic slurry level range data corresponding to different types of ceramic products includes:

[0096] The n-type product normal level ceramic slurry index range, the n-type product first adjustment level ceramic slurry index range, the n-type product second adjustment level ceramic slurry index range, and the n-type product unqualified level ceramic slurry index range.

[0097] The n-type product normal level ceramic slurry index range includes: the n-type product normal level ceramic slurry standard viscosity range, and the n-type product normal level ceramic slurry photocuring time range.

[0098] The n-type product first adjustment level ceramic slurry index range includes: the n-type product first adjustment level ceramic slurry viscosity range, and the n-type product first adjustment level ceramic slurry photocuring time range.

[0099] The n-type product second adjustment level ceramic slurry index range includes: the n-type product second adjustment level ceramic slurry viscosity range, and the n-type product second adjustment level ceramic slurry photocuring time range.

[0100] The n-type product unqualified level ceramic slurry index range includes: the n-type product unqualified level ceramic slurry viscosity range, and the n-type product unqualified level ceramic slurry photocuring time range.

[0101] The real-time ceramic slurry information data includes the ceramic slurry viscosity of the n-type product and the ceramic slurry photocuring time of the n-type product.

[0102] The different types of real-time ceramic slurry quality levels include: the n-type product normal level real-time ceramic slurry quality, the n-type product first adjustment level real-time ceramic slurry quality, the n-type product second adjustment level real-time ceramic slurry quality, and the n-type product unqualified level real-time ceramic slurry quality.

[0103] A third database is constructed, which includes the 3D printing forming process corresponding to different types of different level real-time ceramic slurries and the ceramic body level range data corresponding to different types of ceramic products.

[0104] A preset ceramic body grading method for different types of ceramics is provided, according to the ceramic body level range data corresponding to different types of ceramic products, the real-time ceramic body information data obtained during production is classified to obtain different types of real-time ceramic body quality levels.

[0105] The 3D printing forming process corresponding to different types of different level real-time ceramic slurries includes:

[0106] The 3D printing forming process corresponding to the normal level ceramic slurry of the n-type product is specifically a 3D printing forming standard preparation process of the n-type product, and the 3D printing forming standard preparation process of the n-type product comprises a standard light intensity and a standard exposure time.

[0107] The 3D printing forming process corresponding to the first adjustment level ceramic slurry of the n-type product comprises 105-120% of the standard light intensity and 105-120% of the standard exposure time.

[0108] The 3D printing forming process corresponding to the second adjustment level ceramic slurry of the n-type product comprises 90-95% of the standard light intensity and 90-95% of the standard light intensity.

[0109] The 3D printing forming process corresponding to the unqualified level ceramic slurry of the n-type product comprises stopping 3D printing forming.

[0110] The real-time ceramic body information data comprises ceramic body strength of the n-type product and ceramic body size of the n-type product.

[0111] The different types of real-time ceramic body quality levels comprise a normal level ceramic body of the n-type product, an adjustment level ceramic body of the n-type product and an unqualified level ceramic body of the n-type product.

[0112] The ceramic body level range data corresponding to different types of ceramic products comprises:

[0113] The normal level ceramic body index range of the n-type product, the adjustment level ceramic body index range of the n-type product and the unqualified level ceramic body index range of the n-type product.

[0114] The normal level ceramic body index range of the n-type product comprises a normal level ceramic body standard strength range of the n-type product and a normal level ceramic body size range of the n-type product.

[0115] The adjustment level ceramic body index range of the n-type product comprises an adjustment level ceramic body standard strength range of the n-type product and an adjustment level ceramic body size range of the n-type product.

[0116] The unqualified level ceramic body index range of the n-type product comprises an unqualified level ceramic body strength range of the n-type product and an unqualified level ceramic body size range of the n-type product.

[0117] A fourth database is constructed, and the fourth database comprises sintering processes corresponding to different types of different levels of real-time ceramic bodies and ceramic product level range data of different types.

[0118] The preset different kinds of ceramic product classification method classifies real-time ceramic product information data obtained during production according to different kinds of ceramic product level range data, and obtains different kinds of real-time ceramic product quality levels;

[0119] The different kinds of different level real-time ceramic bodies correspond to different sintering processes, including: n kind of product normal level ceramic body corresponding sintering process, n kind of product adjustment level ceramic body corresponding sintering process, n kind of product unqualified level ceramic body corresponding sintering process;

[0120] The n kind of product normal level ceramic body corresponding sintering process is specifically the standard sintering process corresponding to the n kind of product ceramic body; the standard sintering process corresponding to the n kind of product ceramic body includes: standard heating rate, standard maximum sintering temperature;

[0121] The n kind of product adjustment level ceramic body corresponding sintering process includes: 90-95% of the standard heating rate, 105-120% of the standard maximum sintering temperature;

[0122] The n kind of product unqualified level ceramic body corresponding sintering process includes: stopping sintering;

[0123] The ceramic product information data includes the strength and size of the n kind of product ceramic product;

[0124] The different kinds of real-time ceramic product quality levels include: n kind of product first level ceramic product, n kind of product second level ceramic product, n kind of product unqualified ceramic product;

[0125] The different kinds of ceramic product level range data includes:

[0126] The n kind of product first level ceramic product index range, the n kind of product second level ceramic product index range, and the n kind of product unqualified ceramic product index range;

[0127] The n kind of product first level ceramic product index range includes: n kind of first level ceramic product strength range, n kind of first level ceramic product size range;

[0128] The n kind of product second level ceramic product index range includes: n kind of second level ceramic product strength range, n kind of second level ceramic product size range;

[0129] The n kind of product unqualified ceramic product index range includes: n kind of unqualified ceramic product strength range, n kind of unqualified ceramic product size range.

[0130] Embodiment 2:

[0131] The same content of this embodiment as embodiment 1 will not be repeated; the different schemes of this embodiment and embodiment 1 are as follows:

[0132] The embodiment provides a high-throughput production control method for preparing ceramic materials through 3D printing, comprising the following steps:

[0133] The 3D printing forming standard preparation process of the n-type product further comprises a standard ceramic slurry temperature.

[0134] The 3D printing forming process corresponding to the first adjustment level ceramic slurry of the n-type product further comprises that the ceramic slurry temperature is 105-120% of the standard ceramic slurry temperature.

[0135] The above description is merely preferred embodiments of the present application and a description of the technical principles of the application. It should be understood by those skilled in the art that the scope of the application involved in the present application is not limited to the technical solutions formed by the specific combinations of the above technical features, and should also cover other technical solutions formed by any combination of the above technical features or equivalent features without departing from the inventive concept. For example, the above features are similar to the features disclosed in the present application (but not limited to) and have similar functions.

Claims

1. A method for high-throughput production control of ceramic materials prepared by 3D printing, characterized in that, Includes the following steps: Construct a first database, which includes information on ceramic product types, standard information on ceramic slurry raw materials corresponding to different types of ceramic products, and grade range data of ceramic slurry raw materials corresponding to different types of ceramic products. A pre-defined method for classifying raw material information for different types of ceramics is used. Based on the grade range data of different types of ceramic slurry raw materials, the real-time raw material information data obtained during production is classified to obtain the real-time raw material quality grades for different types. Construct a second database, which includes the ceramic slurry preparation process corresponding to different types and levels of real-time raw materials, and the ceramic slurry level range data corresponding to different types of ceramic products. The method for classifying ceramic slurry for different types of ceramics is preset. Based on the grade range data of different types of ceramic slurry, the real-time ceramic slurry information data obtained during production is classified to obtain the quality grade of different types of real-time ceramic slurry. A third database is constructed, which includes 3D printing molding processes corresponding to different types and levels of real-time ceramic slurries, and ceramic body level range data corresponding to different types of ceramic products. A pre-defined method for grading ceramic green bodies of different types of ceramics is used. Based on the range of ceramic green body grades corresponding to different types of ceramic products, the real-time ceramic green body information data obtained during production is classified to obtain the real-time ceramic green body quality grades of different types. A fourth database is constructed, which includes sintering processes corresponding to different types and levels of real-time ceramic green bodies, and range data of different types of ceramic product grades. Different classification methods for different types of ceramic products are preset. Based on the grade range data of different types of ceramic products, the real-time ceramic product information data obtained during production is classified to obtain the real-time quality grades of different types of ceramic products.

2. The method for high-throughput production control of ceramic materials prepared by 3D printing according to claim 1, characterized in that, The standard information data for ceramic slurry raw materials includes: standard raw material type information, standard raw material form information, standard raw material standard weight information, and standard raw material form characteristic information. The raw material morphology information includes solid raw material information and liquid raw material information; The standard raw material morphological characteristics information includes: standard solid raw material particle size information, standard solid raw material loose density information, standard solid raw material moisture content information, standard solid raw material angle of repose information, and standard liquid raw material viscosity information.

3. The method for high-throughput production control of ceramic materials by 3D printing according to claim 2, characterized in that, Ceramic product category information includes: 1-n categories of products, where n≤5; The different types of real-time raw material quality levels include: normal grade raw materials for n-type products, first adjustment grade raw materials for n-type products, second adjustment grade raw materials for n-type products, and unqualified grade raw materials for n-type products. Data on the range of ceramic slurry raw material grades corresponding to different types of ceramic products: Information range of raw materials for normal grade of product n, information range of raw materials for first adjustment grade of product n, information of raw materials for second adjustment grade of product n, and information of raw materials for non-conforming grade of product n; The range of raw material information for the normal grade of product n includes: the range of raw material types for the normal grade of product n, the range of raw material forms for the normal grade of product n, the range of raw material weight for the normal grade of product n, the range of solid raw material particle size for the normal grade of product n, the range of loose density of solid raw material for the normal grade of product n, the range of water content of solid raw material for the normal grade of product n, the range of angle of repose of solid raw material for the normal grade of product n, and the range of viscosity of liquid raw material for the normal grade of product n. The range of raw material information for the first adjustment level of the n-type products includes: the range of product types for the first adjustment level of the n-type products, the range of raw material forms for the first adjustment level of the n-type products, the range of raw material weights for the first adjustment level of the n-type products, the range of solid raw material particle sizes for the first adjustment level of the n-type products, the range of loose density of solid raw materials for the first adjustment level of the n-type products, the range of moisture content of solid raw materials for the first adjustment level of the n-type products, the range of angle of repose of solid raw materials for the first adjustment level of the n-type products, and the range of viscosity of liquid raw materials for the first adjustment level of the n-type products. The range of raw material information for the second adjustment level of the n-type products includes: the range of product types for the second adjustment level of the n-type products, the range of raw material forms for the second adjustment level of the n-type products, the range of raw material weights for the second adjustment level of the n-type products, the range of solid raw material particle sizes for the second adjustment level of the n-type products, the range of loose density of solid raw materials for the second adjustment level of the n-type products, the range of moisture content of solid raw materials for the second adjustment level of the n-type products, the range of angle of repose of solid raw materials for the second adjustment level of the n-type products, and the range of viscosity of liquid raw materials for the second adjustment level of the n-type products. The range of raw material information for the non-conforming grades of the n-type products includes: the range of raw material types, the range of raw material forms, the range of raw material weights, the range of solid raw material particle sizes, the range of loose density, the range of moisture content, the range of angle of repose, and the range of viscosity of liquid raw materials.

4. The method for high-throughput production control of ceramic materials by 3D printing according to claim 3, characterized in that, The ceramic slurry preparation process corresponding to different types and grades of real-time raw materials includes: The ceramic slurry preparation process for normal-grade raw materials of product type n is specifically the standard preparation process for ceramic slurry of product type n; the standard preparation process for ceramic slurry of product type n includes: standard mixing time of raw materials, standard stirring time of raw materials, and standard stirring rate of raw materials. The ceramic slurry preparation process for the first adjustment level raw materials of product category n includes: 105-120% of the standard mixing time of raw materials, 105-120% of the standard stirring time of raw materials, and 100-120% of the standard stirring rate of raw materials. The ceramic slurry preparation process for the second adjustment level raw materials of product type n includes: 90-95% of the standard mixing time of raw materials, 90-95% of the standard stirring time of raw materials, and 90-100% of the standard stirring rate of raw materials. The ceramic slurry preparation process for raw materials of non-conforming grade n products includes: stopping the batching process.

5. The method for high-throughput production control of ceramic materials by 3D printing according to claim 1, characterized in that, Real-time ceramic slurry information data includes the viscosity of ceramic slurry for product type n and the light curing time of ceramic slurry for product type n. The different types of real-time ceramic slurry quality levels include: normal level real-time ceramic slurry quality for product class n, first adjustment level real-time ceramic slurry quality for product class n, second adjustment level real-time ceramic slurry quality for product class n, and unqualified level real-time ceramic slurry quality for product class n. The data on the range of ceramic slurry grades corresponding to different types of ceramic products include: The range of ceramic slurry indexes for normal grade of product n, the range of ceramic slurry indexes for first adjustment grade of product n, the range of ceramic slurry indexes for second adjustment grade of product n, and the range of ceramic slurry indexes for unqualified grade of product n. The index range of the normal grade ceramic slurry for n-type products includes: the standard viscosity range of the normal grade ceramic slurry for n-type products and the light curing time range of the normal grade ceramic slurry for n-type products. The index range of the first adjustment level ceramic slurry for the n-type product includes: the viscosity range of the first adjustment level ceramic slurry for the n-type product and the light curing time range of the first adjustment level ceramic slurry for the n-type product. The index ranges of the second adjustment level ceramic slurry for the n-type product include: the viscosity range of the second adjustment level ceramic slurry for the n-type product and the light curing time range of the second adjustment level ceramic slurry for the n-type product. The specified range of ceramic slurry indicators for the unqualified grade of n-type products includes: the viscosity range of the ceramic slurry for the unqualified grade of n-type products and the light curing time range of the ceramic slurry for the unqualified grade of n-type products.

6. The method for high-throughput production control of ceramic materials by 3D printing according to claim 5, characterized in that, The 3D printing process corresponding to different types and levels of real-time ceramic slurry includes: The 3D printing molding process for normal-grade ceramic slurry of product type n is specifically the standard preparation process for 3D printing of product type n; the standard preparation process for 3D printing of product type n includes: standard light intensity and standard exposure time. The 3D printing process for the first adjustment level ceramic slurry of product type n includes: 105-120% of standard light intensity and 105-120% of standard exposure time. The 3D printing molding process corresponding to the second adjustment level ceramic slurry for product type n includes: 90-95% of standard light intensity; The 3D printing process for non-conforming ceramic slurry products of type n includes: stopping 3D printing.

7. The high-throughput production control method for preparing ceramic materials by 3D printing according to claim 1, characterized in that, The real-time ceramic body information data includes the ceramic body strength and ceramic body dimensions of the n-type products; Different types of real-time ceramic body quality levels include: n-class product normal level ceramic body, n-class product adjustment level ceramic body, and n-class product unqualified level ceramic body; The data on the range of ceramic body grades corresponding to different types of ceramic products include: The range of ceramic body indicators for normal grade of product n, the range of ceramic body indicators for adjusted grade of product n, and the range of ceramic body indicators for unqualified grade of product n. The index range of the normal grade ceramic green body for the n-type product includes: the standard strength range and the size range of the normal grade ceramic green body for the n-type product. The range of ceramic green body indicators for the n-type product adjustment level includes: the standard strength range and the size range of the n-type product adjustment level ceramic green body. The range of ceramic body indicators for the n-type product non-conforming grades includes: the strength range and the size range of ceramic body for the n-type product non-conforming grades.

8. The high-throughput production control method for preparing ceramic materials by 3D printing according to claim 7, characterized in that, The sintering processes corresponding to different types and levels of real-time ceramic green bodies include: sintering processes corresponding to normal level ceramic green bodies of type n products, sintering processes corresponding to adjustment level ceramic green bodies of type n products, and sintering processes corresponding to unqualified level ceramic green bodies of type n products. The sintering process for normal-grade ceramic green bodies of type n products is specifically the standard sintering process for ceramic green bodies of type n products; the standard sintering process for ceramic green bodies of type n products includes: standard heating rate and standard maximum sintering temperature. The sintering process corresponding to the ceramic green body of the n-type product adjustment level includes: 90-95% of the standard heating rate and 105-120% of the standard maximum sintering temperature; The sintering process for ceramic blanks of type n (non-conforming grade) includes: stopping sintering.

9. The high-throughput production control method for preparing ceramic materials by 3D printing according to claim 1, characterized in that, Ceramic product information data includes the ceramic product strength and ceramic product dimensions for n types of products; The quality levels of different types of real-time ceramic products include: Class n products, Level 1 ceramic products, Class n products, Level 2 ceramic products, and Class n products, unqualified ceramic products. Data on the grade ranges of different types of ceramic products include: The range of indicators for Class n first-level ceramic products, the range of indicators for Class n second-level ceramic products, and the range of indicators for Class n non-conforming ceramic products. The product index range for Class n Grade I ceramic products includes: the strength range and the size range of Class n Grade I ceramic products. The product index range for Class n secondary ceramic products includes: the strength range and the size range of Class n secondary ceramic products. The range of non-compliant ceramic product indicators for category n includes: the strength range and the size range of non-compliant ceramic products for category n.

10. The high-throughput production control method for preparing ceramic materials by 3D printing according to claim 6, characterized in that, The standard preparation process for 3D printing of the n types of products also includes: standard ceramic slurry temperature; The 3D printing process for the first adjustment level ceramic slurry of product type n also includes: the ceramic slurry temperature is 105-120% of the standard ceramic slurry temperature.