WO2018171517A1 - 一种利用墨水吸光装饰的半透光陶瓷薄板及其制备方法 - Google Patents

一种利用墨水吸光装饰的半透光陶瓷薄板及其制备方法 Download PDF

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WO2018171517A1
WO2018171517A1 PCT/CN2018/079269 CN2018079269W WO2018171517A1 WO 2018171517 A1 WO2018171517 A1 WO 2018171517A1 CN 2018079269 W CN2018079269 W CN 2018079269W WO 2018171517 A1 WO2018171517 A1 WO 2018171517A1
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semi
ink
glaze
achromatic
layer
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PCT/CN2018/079269
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English (en)
French (fr)
Inventor
萧礼标
潘利敏
范周强
刘一军
董军乐
黄玲艳
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蒙娜丽莎集团股份有限公司
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Priority to JP2019552218A priority Critical patent/JP6846536B2/ja
Priority to US16/496,025 priority patent/US11001534B2/en
Priority to EP18770647.8A priority patent/EP3604258B1/en
Publication of WO2018171517A1 publication Critical patent/WO2018171517A1/zh

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    • C—CHEMISTRY; METALLURGY
    • C04—CEMENTS; CONCRETE; ARTIFICIAL STONE; CERAMICS; REFRACTORIES
    • C04B—LIME, MAGNESIA; SLAG; CEMENTS; COMPOSITIONS THEREOF, e.g. MORTARS, CONCRETE OR LIKE BUILDING MATERIALS; ARTIFICIAL STONE; CERAMICS; REFRACTORIES; TREATMENT OF NATURAL STONE
    • C04B2235/00—Aspects relating to ceramic starting mixtures or sintered ceramic products
    • C04B2235/70—Aspects relating to sintered or melt-casted ceramic products
    • C04B2235/96—Properties of ceramic products, e.g. mechanical properties such as strength, toughness, wear resistance
    • C04B2235/9646—Optical properties
    • C04B2235/9653—Translucent or transparent ceramics other than alumina

Definitions

  • the invention relates to the technical field of architectural ceramics, in particular to a translucent ceramic plate decorated with ink absorbing and a preparation method thereof.
  • Patent Application No 201610208026.4 is a magic cloth machine, a semi-transparent blank and an opaque blank, which form a bright and dark decorative effect by different light absorption.
  • the disadvantage is that the semi-transparent blank and the opaque blank are uneven in cloth, the detail expression is not clear, the decorative pattern is not rich in layers, the technology is complicated, the flexibility is poor, and the opaque billet is 20-30 ° C higher than the semi-transparent billet, two The poor bonding performance after firing results in poor thermal stability and cannot meet production and decoration requirements.
  • the invention solves the problem that the intermediate layer of the translucent ceramic thin plate blank in the prior art has no decoration, or the decorative pattern is not rich in layers and the process is complicated.
  • the invention provides a semi-transparent ceramic thin plate blank decorated with ink light absorption, which has better light transmission performance, uniform blank, rich intermediate layer level details, simple process, and flexible intermediate layer decorative pattern. .
  • the present invention provides a semi-transmissive ceramic sheet decorated with ink absorbing, comprising: a semi-transmissive blank, infiltrating into the middle of the semi-transparent body from an upper surface of the semi-transparent body An inkjet pattern layer, a decolorizing glaze layer on the upper surface of the semi-transmissive blank, and a surface pattern layer on the achromatic glaze layer.
  • the achromatic glaze layer in the present invention is a decolorizing glaze layer capable of decolorizing the ink of the intermediate inkjet pattern layer
  • the semi-transmissive ceramic thin plate of the present invention has an achromatic glaze layer on the surface of the green body, so that the intermediate inkjet pattern
  • the inkjet decoration of the layer cannot be displayed on the surface, so the decorative pattern of the surface is only the surface pattern layer, and the intermediate inkjet pattern layer is completely in the intermediate layer of the blank.
  • the semi-transparent ceramic thin plate blank of the invention has uniform heat stability, and the intermediate layer of the green body has rich details, can be formed by inkjet, has simple process, and can freely adjust the detail pattern change, and has high flexibility and passes through the pattern.
  • the absorption of light by different gray scales forms a bright and dark, layered decorative effect.
  • the depth of penetration of the intermediate pattern layer in the semi-transparent body may be 1 to 2 mm.
  • the intermediate pattern layer of the present invention penetrates into a semi-transparent green body to a certain depth, and a decorative effect with a richer layer can be obtained.
  • the achromatic glaze layer has a thickness of 0.04 to 0.1 mm.
  • the present invention provides a method of preparing the above semi-transmissive ceramic sheet, comprising the steps of:
  • a second inkjet non-permeable ink is applied to the achromatic glaze and then fired to obtain the semi-transmissive ceramic sheet.
  • the achromatic glaze can decolorize the first inkjet bleed ink, so that the inkjet decoration of the first inkjet bleed ink cannot be displayed on the surface.
  • the second ink-jet non-permeable ink (second ink-jet ordinary ceramic ink) has no decoloring effect, so the decorative pattern on the surface thereof is only the second ink-jet ordinary ceramic ink (which is a common ceramic ink, non-permeability, non- The decorative pattern formed by the penetration of the ink, and the decorative pattern formed by the first inkjet bleed ink is completely in the intermediate layer of the blank.
  • the pattern decoration of the middle layer adopts the inkjet process, so the detail pattern change can be adjusted at will, the flexibility is high, and the light is absorbed by the different gray scales of the pattern to form a bright and dark layer, and the layer is rich in decorative effect. Moreover, it is not necessary to introduce other blanks different from the base material in the green body, and thus the thermal stability is excellent.
  • the semi-transparent green body is formulated as: ultra-white kaolin: 0-9, C30 soil (C30 soil is a highly viscous kaolin with a plasticity index of ⁇ 17.
  • C30 soil is a highly viscous kaolin with a plasticity index of ⁇ 17.
  • the agent is a green body reinforcing agent, for example, purchased from Bonide (Shanghai) Ceramic Glaze Co., Ltd.): 1 to 4, nano quartz 2 to 8.
  • the semi-transparent body formed from this formulation has excellent wet strength, color-improving properties, and light-transmitting properties.
  • the formula of the achromatic glaze is: ultra-white kaolin: 0-9, C30 soil: 8-15, quartz: 15-35, fused silica: 2-20, calcined talcum powder: 8-20, potassium Feldspar powder: 20 ⁇ 35, bentonite: 3 ⁇ 7, nano zinc oxide: 0.5 ⁇ 5.
  • the achromatic glaze contains nano zinc oxide, which reacts with the metal iron-based oxide in the ink at a high temperature to lose color development properties and achieve complete color eradication.
  • the primary particle diameter of the nano zinc oxide is less than 800 nm, preferably 50 nm to 300 nm. According to the present invention, an excellent decolorizing effect can be obtained at a low cost.
  • the first inkjet bleed ink is an inkjet bleed brown ink.
  • the metal iron-based oxide in the ink-jet bleed brown ink at high temperature has strong activity, and is easily reacted with the achromatic glaze and the nano-zinc oxide under the coating without nano-quartz, and is reduced or converted into other substances to lose color development performance.
  • the moisture of the semi-transparent body is controlled to be 0.4% or less.
  • the firing temperature is from 1150 to 1230 °C.
  • the invention provides a semi-transparent ceramic thin plate blank decorated with ink light absorption, which has better light transmission performance, uniform blank, rich intermediate layer level details, simple process, and flexible intermediate layer decorative pattern. .
  • 1 is a cross-sectional view of a translucent ceramic plate decorated with ink absorbing.
  • FIG. 1 is a cross-sectional view showing a translucent ceramic plate decorated with ink absorbing according to the present invention.
  • the semi-transmissive ceramic plate comprises: a semi-transparent green body (green body), and an intermediate ink-jet pattern layer penetrating into the semi-transparent green body from an upper surface of the semi-transparent green body ( Inkjet decoration 1), a decolorizing glaze layer (achromatic glaze) on the upper surface of the semi-transmissive green body, and a surface pattern layer (inkjet decoration 2) on the achromatic glaze layer.
  • the "semi-light transmission" in the present invention means that the light transmittance is between 10% and 45%.
  • the semi-transmissive ceramic plate of the present invention and a method for producing the same will be specifically described.
  • the formulation of the semi-transparent body can be: by weight, ultra-white kaolin: 0-9, C30 soil: 8-15, quartz: 15-35, fused silica: 2-20, calcined talcum powder: 8-20 , potassium feldspar powder: 20 ⁇ 35, bentonite: 3 ⁇ 7, W enhancer: 1 ⁇ 4, nano quartz: 2 ⁇ 8.
  • C30 soil is introduced into the formulation, which has strong plasticity and can quickly increase the wet strength of the green body.
  • C30 soil is a highly viscous kaolin with a plasticity index of ⁇ 17.
  • the chemical analysis of C30 soil is: IL: 5.62, SiO 2 : 67.28, Al 2 O 3 : 17.83, Fe 2 O 3 : 0.45, TiO 2 : 0.01, CaO: 0.13, MgO: 0.55, K 2 O: 1.34, Na 2 O: 0.36.
  • the content of C30 soil is 8-15 parts by weight, which can effectively improve the wet strength of the blank, and it is not easy to cause cracking of the blank during the subsequent drying of the spray glaze.
  • nano-quartz refers to quartz having a particle size of nanometer order, for example, having a particle diameter of 1 nm to 100 nm and a specific surface area of more than 150 m 2 /g.
  • the content of nano-quartz is 2-8 parts by weight, which can improve the color forming performance of the brown ink, making the brown ink deeper and redder.
  • fused silica is added to the blank.
  • the fused silica preferentially forms a liquid phase in the quartz, and the fused silica in the liquid phase envelops and dissolves the quartz, thereby promoting the melting of the quartz, and thus the transmittance. increase.
  • the fused silica has a low expansion coefficient, which reduces the deformation problem caused by the mismatch of the expansion coefficient of the glaze.
  • the content of fused silica is 2 to 20 parts by weight, which can effectively reduce the expansion coefficient of the green body and increase the light transmittance of the green body.
  • W reinforcing agent refers to a green body reinforcing agent which can increase the strength of the green body.
  • the green body of the ceramic thin plate is prepared and dried according to a conventional blanking method (for example, sequential mixing, granulation, molding, etc.).
  • the drying temperature is 150 to 165 ° C, and the drying time is 45 to 60 minutes. After drying, the moisture can be controlled below 0.4%.
  • the present invention can provide a semi-transmissive ceramic sheet, and therefore the thickness of the semi-transparent body is preferably 6 mm or less.
  • Achromatic glaze is applied to the semi-transparent blank to form a decolorizing glaze layer.
  • the designed decorative pattern is printed on the achromatic glaze layer using the first ink jet bleed ink.
  • the achromatic glaze refers to a glaze capable of decolorizing the first ink jet bleed ink. Since the achromatic glaze can decolorize the first inkjet bleed ink, the color of the first inkjet bleed ink is not displayed at the achromatic glaze layer. Moreover, the first ink jet bleed ink can penetrate into the green body through the achromatic glaze layer, so that the color and pattern of the first ink jet bleed ink can be exhibited in the green body, that is, the intermediate ink jet pattern layer is formed.
  • the pattern decoration of the intermediate layer adopts an inkjet process, so that the detail pattern change can be arbitrarily adjusted, and the flexibility is high, and the light absorption by the different gray scales of the pattern is formed to form a bright and dark phase and a rich layer of decorative effect.
  • the achromatic glaze can decolorize the first ink bleed ink.
  • the formula of the achromatic glaze is: by weight, ultra-white kaolin: 0-9, C30 soil: 8-15, quartz: 15-35, fused silica: 2-20, calcined talcum powder: 8 ⁇ 20, potassium feldspar powder: 20 ⁇ 35, bentonite: 3 ⁇ 7, nano zinc oxide: 0.5 ⁇ 5.
  • the first inkjet bleed ink is selected to be inkjet bleed brown ink.
  • the inkjet bleed brown ink ensures the stable formation of the metallic iron-based oxide in the ink at a high temperature due to the wrapping of the nano-quartz.
  • the nano-quartz is not added to the achromatic glaze.
  • the nano-zinc oxide is added to the achromatic glaze, and it can react with the metal iron-based oxide in the ink at a high temperature to lose the coloring property and completely eliminate the color.
  • the primary particle size of the nano zinc oxide may be less than 800 nm, preferably 50 nm to 300 nm.
  • the primary particle size refers to the particle size of the primary particles in the agglomerated particles in the nanomaterial.
  • the specific surface area of the nano zinc oxide may be greater than 30 m 2 /g, preferably greater than 150 m 2 /g.
  • the nanoporous zinc oxide has a pore size of less than 400 nm, preferably less than 100 nm.
  • the nano zinc oxide having the above-described particle diameter has high reactivity with the metal iron-based oxide in the ink, the color reduction effect can be achieved with a small content (0.5 to 5 parts by weight, preferably 0.5 to 2.5 parts by weight).
  • the primary particle size of nano zinc oxide is greater than 800 When nm is added and the amount is less than 2.5%, the reactivity with the metal iron-based oxide in the ink is lowered, and complete color reduction cannot be achieved. When the amount is more than 2.5%, complete achromatic color reduction can be achieved, but the raw material cost is increased, so nano zinc oxide having a primary particle diameter of less than 800 nm is selected.
  • the nano zinc oxide category mainly includes gas phase nano zinc oxide, precipitated nano zinc oxide, nano zinc oxide aerogel and molecular sieve, but is not limited thereto, and includes all nano zinc oxide prepared by using different production principles and processes.
  • achromatic glaze layer The achromatic glaze is sprayed onto the dried body.
  • the fineness of the achromatic glaze is required to be 0.5 to 0.8 of the 325 mesh sieve, and the specific gravity can be 1.78 to 1.87.
  • the glaze weight can be 280-400 g/m 2 , and the glaze specific gravity can be 1.5-1.55.
  • the thickness after firing can be controlled to be 0.04 to 0.1 mm, preferably 0.07 to 0.09 mm. If the thickness is too small, the brown ink color in the green layer cannot be completely covered; if the thickness is too large, the moisture of the glaze layer is difficult to dry, and the glaze layer is too cracked when dried.
  • the drying temperature can be 80-120 ° C, and the drying time can be 10-20 minutes. After drying, the moisture is controlled below 0.8%.
  • the ceramic thin plate body to which the achromatic glaze is applied is printed with a decorative pattern by a digital ink jet printer.
  • the ink (first ink jet bleed ink) may be an ink jet bleed brown ink and a penetration enhancer.
  • the relationship between the ink and the penetration of the penetration enhancer can be 100% of the gray level of the ink plus the penetration aid.
  • the ink adopts multi-channel inkjet printing, so that the amount of ink is increased, the ink completely penetrates the achromatic glaze layer, and penetrates into the blank layer, and the permeable layer can penetrate 1 to 2 mm. Under the illumination of the light, the brown ink in the middle layer of the blank absorbs the light to form a deep, light and dark layer, and the detail is rich in decorative patterns.
  • the blank After application of the first ink jet bleed ink, the blank can be allowed to stand for 3 minutes or more, for example 3 to 5 minutes, to ensure its penetration depth.
  • the ink (second ink jet ordinary ceramic ink) is not particularly limited, and for example, a common ceramic ink supplied by a commercially available ink company can be used.
  • the colors provided are mainly brown, orange, yellow, blue, and black.
  • the second spray is a common ceramic ink, which has no penetrating properties and only forms a color on the surface of the achromatic glaze.
  • the firing temperature can be from 1150 to 1230 °C.
  • the firing time can be from 45 to 75 minutes.
  • the semi-finished semi-transparent ceramic sheet is prepared by firing, and after being graded by grinding, it can be packaged into the warehouse.
  • the inkjet decoration of the first inkjet bleed ink cannot be displayed on the surface, so the decorative pattern on the surface is only the inkjet decorative pattern of the second inkjet ordinary ceramic ink. And the decorative pattern of the first inkjet bleed ink is completely in the middle layer of the blank.
  • the pattern decoration of the middle layer adopts the inkjet process, so the detail pattern change can be adjusted at will, the flexibility is high, and the light is absorbed by the different gray scales of the pattern to form a bright and dark layer, and the layer is rich in decorative effect.
  • the semi-transparent ceramic thin plate body obtained by the ink absorption decoration obtained by the invention has better light transmission performance, unified blank material, rich intermediate layer details of the blank body, simple process, and the decorative pattern of the middle layer of the blank body can be flexibly changed.
  • the semi-transmissive ceramic thin plate body of the present invention may have a specification of (800 to 1600) mm ⁇ (1200 to 2400) mm ⁇ (3 to 6) mm.
  • Water absorption rate The measurement of water absorption in the third part of GB/T3810.3-2006 ceramic tile test method
  • Particle size The particle size of the particles was measured by a KW510 wet automatic laser particle size analyzer
  • Stacking pore size measured by 3H-2000PS2 type nano material specific surface area and pore size analyzer
  • Transmittance It is detected by 77C-1 intelligent porcelain tire transmittance meter.
  • C30 soil is introduced into the formulation, which has strong plasticity and can quickly increase the wet strength of the green body.
  • the chemical analysis of C30 soil is: IL: 5.62, SiO 2 : 67.28, Al 2 O 3 : 17.83, Fe 2 O 3 , 0.45, TiO 2 : 0.01, CaO: 0.13, MgO: 0.55, K 2 O: 1.34, Na 2 O: 0.36.
  • the raw materials of wollastonite, calcium carbonate, barium carbonate, alumina, zinc oxide and the like are not added to the raw material of the raw material, and the nano quartz is a red ink red coloring agent in the formula raw material, and the nano quartz is purchased from the nano quartz.
  • Shanghai Meigao Color Co., Ltd., model NMSIO900 has a particle size of 10 ⁇ 25nm.
  • fused silica is added to the blank.
  • the fused silica preferentially forms a liquid phase in the quartz, and the fused silica in the liquid phase envelops and dissolves the quartz, thereby promoting the melting of the quartz, and thus the transmittance. increase.
  • the fused silica has a low expansion coefficient, which reduces the deformation problem caused by the mismatch of the expansion coefficient of the glaze.
  • the raw materials are mixed according to the formulation of the semi-transparent green body, then sprayed, pressed into a ceramic thin plate green body and dried, the drying temperature is 155 ° C, and the drying time is 55 minutes. After drying, the moisture is controlled at 0.4%.
  • the resulting green body had a thickness of 5.6 mm.
  • achromatic glaze Formula: ultra-white kaolin: 9, C30 soil: 12, quartz: 30, fused silica: 15, calcined talcum powder: 18, potassium feldspar powder: 22, bentonite 4, nano zinc oxide 2 , its chemical analysis: IL: 4.45, SiO 2 : 73.08, Al 2 O 3 : 13.66, Fe 2 O 3 , 0.13, TiO 2 : 0.14, CaO: 0.63, MgO: 4.66, K 2 O: 2.34, Na 2 O: 0.66.
  • the fineness of the achromatic glaze requires a 325 mesh sieve residue of 0.5 to 0.8, and a specific gravity of 1.78 to 1.87.
  • the inkjet bleed brown ink ensures the stable formation of the metallic iron-based oxide in the ink at a high temperature due to the wrapping of the nano-quartz. In order to achieve the color-removing effect, no nano-quartz is added here. In order to make the achromatic color more thorough, at this time, nano zinc oxide is added, which can react with the metal iron-based oxide in the ink at a high temperature to lose the coloring property and achieve complete color elimination.
  • the nano zinc oxide is purchased from Shanghai Meigao Color Co., Ltd., model NMZN003, and has a primary particle diameter of 400 nm, a specific surface area of 165 m 2 /g, and a pore size of the packed pores of 75 nm.
  • Inkjet middle layer inkjet decoration The ceramic thin plate body prepared in step 5 is printed with a digital inkjet machine to design a decorative pattern, and the ink is inkjet oozing brown provided by Shanghai Meigao Color Co., Ltd. Ink (Model: INKMET L253MB1) and penetration enhancer (model: MET FLUID BS).
  • the metal iron-based oxide in the inkjet bleed brown ink at high temperature Due to the high activity of the metal iron-based oxide in the inkjet bleed brown ink at high temperature, it is easily reacted with the achromatic glaze and nano-zinc oxide under the coating without nano-quartz, and is reduced or converted into other substances to lose color development performance. .
  • the ink-jet bleed blue or yellow or black ink does not react with the achromatic glaze or the nano-zinc oxide at high temperatures due to its stable metal oxide, so that the achromatic glaze cannot be achromatic. Therefore, only inkjet bleed brown ink is used at this time.
  • the ink is printed with 4 channels of brown ink and 2 channels of penetration enhancer, so that the amount of ink is increased, the ink completely penetrates the achromatic glaze layer, and penetrates into the green layer, in the green body.
  • the layer can be permeable to 1 ⁇ 2mm.
  • the brown ink in the middle layer of the blank absorbs light to form a deep, light and dark layer, and the detail is rich in decorative patterns.
  • the relationship between the ink and the penetration of the penetration enhancer is 100% of the gray level of the ink plus the penetration enhancer.
  • Inkjet decoration again The porcelain tile body obtained in the step 7 was again printed with the designed decorative pattern by a digital inkjet machine.
  • the ink is made of ordinary ceramic ink supplied by Fulu (Suzhou) New Materials Co., Ltd.
  • the colors provided are mainly brown (model: BR-601), orange (model: BE-201), yellow (model: YE-401), blue (model: BL-511), black (model: BK- 301).
  • the ceramic thin plate body obtained in the step 8 was fired, the firing temperature was 1195 ° C, and the firing time was 65 minutes to obtain a semi-transparent ceramic thin plate semi-finished product, which was classified by edging and packaged into a storage.
  • the made translucent ceramic sheet has a specification of 900 Mm ⁇ 1800 mm ⁇ 5.5 mm.
  • the translucent ceramic sheet of the present invention is a porcelain brick having a water absorption ratio of 0.1% or less.
  • step 4 sprays a layer of achromatic glaze on the surface of the blank
  • the inkjet decoration of step 6 cannot be displayed on the surface, so the decorative pattern on the surface is only the inkjet decorative pattern of step 7, and the decorative pattern of step 6 is It is completely in the middle layer of the blank.
  • the pattern decoration of the middle layer adopts the inkjet process, so the detail pattern change can be adjusted at will, the flexibility is high, and the light is absorbed by the different gray scales of the pattern to form a bright and dark layer, and the layer is rich in decorative effect.
  • the translucent ceramic sheet obtained had a light transmittance of 20%.
  • Example 2 Basically the same as Example 1, except that the nano zinc oxide was supplied by Guangdong Dow Technology Co., Ltd., and its primary particle diameter was 320 nm, the specific surface area was 204 m 2 /g, and the pore diameter of the packed pores was 65 nm.
  • a semi-transmissive ceramic sheet having a light transmittance of 20% was obtained, and the decorative pattern on the surface was only the ink-jet decorative pattern of the step 7, and the decorative pattern of the step 6 was completely in the intermediate layer of the blank.
  • Example 2 Basically the same as Example 1, except that the formula of the achromatic glaze is: ultra-white kaolin: 9, C30 soil: 12, quartz: 25, fused silica: 20, calcined talcum powder: 18, potassium feldspar powder: 22, bentonite 4, nano zinc oxide 2 .
  • a semi-transmissive ceramic sheet having a light transmittance of 22% was obtained, and the decorative pattern on the surface was only the ink-jet decorative pattern of the step 7, and the decorative pattern of the step 6 was entirely in the intermediate layer of the green body.
  • Example 2 Basically the same as Example 1, except that the formula of the green body is: ultra-white kaolin: 9, C30 soil: 12, quartz: 25, fused silica: 20, calcined talcum powder: 13, potassium feldspar powder: 22, bentonite 4 , W enhancer: 2, nano quartz 4.
  • the formula of the green body is: ultra-white kaolin: 9, C30 soil: 12, quartz: 25, fused silica: 20, calcined talcum powder: 13, potassium feldspar powder: 22, bentonite 4 , W enhancer: 2, nano quartz 4.
  • a semi-transmissive ceramic sheet having a light transmittance of 27% was obtained, and the decorative pattern on the surface was only the ink-jet decorative pattern of the step 7, and the decorative pattern of the step 6 was entirely in the intermediate layer of the blank.
  • Example 2 Basically the same as Example 1, except that the thickness of the achromatic glaze layer was 0.05 mm. As a result, a semi-transmissive ceramic sheet having a transmittance of 21% was obtained, and the decorative pattern on the surface was only the ink-jet decorative pattern of the step 7, and the decorative pattern of the step 6 was completely in the intermediate layer of the blank.
  • Example 2 Basically the same as Example 1, except that the thickness of the green body layer was 4.0 mm. As a result, a semi-transmissive ceramic sheet having a transmittance of 28% was obtained, and the decorative pattern on the surface was only the ink-jet decorative pattern of the step 7, and the decorative pattern of the step 6 was completely in the intermediate layer of the blank.

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Abstract

一种利用墨水吸光装饰的半透光陶瓷薄板及其制备方法，该半透光陶瓷薄板包括：半透光坯体、从半透光坯体的上表面渗入该半透光坯体中的中间喷墨图案层、位于半透光坯体的上表面上的消色釉层、以及位于消色釉层上的表面图案层。该消色釉层是能够使中间喷墨图案层的墨水消色的消色釉层，半透光陶瓷薄板由于在坯体表面具有消色釉层，使得中间喷墨图案层的喷墨装饰在表面无法显示，因此其表面的装饰图案只为表面图案层，而中间喷墨图案层则完全在坯体中间层。

Description

一种利用墨水吸光装饰的半透光陶瓷薄板及其制备方法 技术领域
本发明涉及建筑陶瓷技术领域，特别是涉及一种利用墨水吸光装饰的半透光陶瓷板及其制备方法。
 背景技术
半透光陶瓷薄板，因其特殊的半透光性能，在一些特殊场合深受消费者喜爱。目前市面上的半透光陶瓷薄板坯体中间层无装饰或者装饰图案简单，如专利申请号 201010122751.2坯体中间层无装饰。专利申请号 201610208026.4为采用魔术布料机，布半透光坯料与不透光坯料，通过对光线的吸收不同而形成明暗相间的装饰效果。其缺点为半透光坯料与不透光坯料布料不均匀，细节表达不清晰，装饰图案层次不丰富，技术复杂，灵活性差，且不透光坯料比半透光坯料高温20～30℃，两者在烧成后的结合性能上差，造成热稳定性能差，无法满足生产以及装饰需求。
 技术问题
本发明解决的是现有技术中半透光陶瓷薄板坯体中间层无装饰，或装饰图案层次不丰富，工艺复杂的问题。本发明提供了一种利用墨水吸光装饰的半透光陶瓷薄板坯体，其透光性能更好，坯料统一，坯体中间层层次细节丰富，工艺简单，坯体中间层装饰图案可灵活多变。
 技术解决方案
一方面，本发明提供一种利用墨水吸光装饰的半透光陶瓷薄板，其包括：半透光坯体、从所述半透光坯体的上表面渗入所述半透光坯体中的中间喷墨图案层、位于所述半透光坯体的上表面上的消色釉层、以及位于所述消色釉层上的表面图案层。
本发明中的消色釉层是能够使中间喷墨图案层的墨水消色的消色釉层，本发明的半透光陶瓷薄板由于在坯体表面具有消色釉层，使得中间喷墨图案层的喷墨装饰在表面无法显示，因此其表面的装饰图案只为所述表面图案层，而中间喷墨图案层则完全在坯体中间层。本发明的半透光陶瓷薄板坯料统一，热稳定性能优异，且该坯体中间层层次细节丰富，通过喷墨即可形成，工艺简单，并可随意调整细节图案变化，灵活性高，通过图案不同的灰度对光线的吸收从而形成明暗相间，层次丰富的装饰效果。
所述中间图案层在所述半透光坯体中的渗入深度可为1～2mm。本发明的中间图案层在半透光坯体中渗入一定的深度，可以获得层次更丰富的装饰效果。
较佳地，所述消色釉层的厚度为0.04～0.1mm。
另一方面，本发明提供上述半透光陶瓷薄板的制备方法，其包括以下步骤：
制备半透光坯体；
在半透光坯体上施消色釉；
在消色釉上施第一喷墨渗花墨水，其中，所述消色釉能够使在消色釉层中的所述第一喷墨渗花墨水消色；以及
待第一喷墨渗花墨水完全穿透消色釉后，在消色釉上施第二喷墨非渗透墨水，然后烧成，即得所述半透光陶瓷薄板。
本发明中，由于在坯体表面施加了一层消色釉，该消色釉能够使第一喷墨渗花墨水消色，使得第一喷墨渗花墨水的喷墨装饰在表面无法显示，且对第二喷墨非渗透墨水（第二喷墨普通陶瓷墨水）无消色作用，因此其表面的装饰图案只为第二喷墨普通陶瓷墨水（其为普通陶瓷墨水，无渗透性能，非渗透墨水）形成的装饰图案，而第一喷墨渗花墨水形成的装饰图案则完全在坯体中间层。中间层的图案装饰采用喷墨工艺，因此可随意调整细节图案变化，灵活性高，通过图案不同的灰度对光线的吸收从而形成明暗相间，层次丰富的装饰效果。而且，坯体中无需引入不同于基料的其它坯料，因而热稳定性优异。
较佳地，所述半透光坯体的配方为：超白高岭土：0～9，C30土（C30土为一种高黏性的高岭土，其可塑性指数≧17。例如购于佛山市石易金陶瓷原料有限公司）：8～15，石英：15～35，熔融石英：2～20，煅烧滑石粉：8～20，钾长石粉：20～35，膨润土：3～7，W增强剂（W增强剂为一种坯体增强剂，例如购于博耐德（上海）陶瓷釉料有限公司）：1～4，纳米石英2～8。由该配方形成的半透光坯体具有优异的湿强度、助色性能和透光性能。
较佳地，所述消色釉的配方为：超白高岭土：0～9，C30土：8～15，石英：15～35，熔融石英：2～20，煅烧滑石粉：8～20，钾长石粉：20～35，膨润土：3～7，纳米氧化锌：0.5～5。该消色釉中含有纳米氧化锌，其在高温下能和墨水中的金属铁系氧化物反应，使其失去发色性能，达到彻底消色。
较佳地，所述纳米氧化锌的原生粒径小于800 nm，优选为50nm～300nm。根据本发明，可以以较低的成本获得优异的消色效果。
较佳地，所述第一喷墨渗花墨水为喷墨渗花棕色墨水。高温下喷墨渗花棕色墨水中的金属铁系氧化物活性强，在无纳米石英的包裹下，易与消色釉和纳米氧化锌反应，被还原或转化成其他物质而失去发色性能。
较佳地，半透光坯体的水分控制在0.4%以下。
较佳地，烧成温度为1150～1230℃。
 有益效果
本发明提供了一种利用墨水吸光装饰的半透光陶瓷薄板坯体，其透光性能更好，坯料统一，坯体中间层层次细节丰富，工艺简单，坯体中间层装饰图案可灵活多变。
 附图说明
图1为一种利用墨水吸光装饰的半透光陶瓷板的截面图。
 本发明的最佳实施方式
以下结合附图和下述实施方式进一步说明本发明，应理解，附图及下述实施方式仅用于说明本发明，而非限制本发明。如无特别说明，本发明中述及的含量均指质量（重量）百分含量。
图1示出根据本发明的一种利用墨水吸光装饰的半透光陶瓷板的截面图。如图1所示，半透光陶瓷板具备：半透光坯体（坯体）、从所述半透光坯体的上表面渗入所述半透光坯体中的中间喷墨图案层（喷墨装饰1）、位于所述半透光坯体的上表面上的消色釉层（消色釉）、以及位于所述消色釉层上的表面图案层（喷墨装饰2）。本发明中的“半透光”是指透光率在 10％～ 45％之间。以下，具体说明本发明的半透光陶瓷板及其制备方法。
半透光坯体
半透光坯体的配方可为：按重量份计，超白高岭土：0～9，C30土：8～15，石英：15～35，熔融石英：2～20，煅烧滑石粉：8～20，钾长石粉：20～35，膨润土：3～7，W增强剂：1～4，纳米石英：2～8。其化学全分析：IL（烧失）：3.8～4.52，SiO 2：67.68～80.34，Al 2O 3：10.1～15.5，Fe 2O 3，0.10～0.45，TiO 2：0.31～1.4，CaO：0.1～0.7，MgO：2.1～3.8，K 2O：2.5～4.2，Na 2O：0.7～1.5。
因配方中的原料主要为脊性料，压制成型后的湿强度差，在釉线上易造成烂砖。因此在配方中引入C30土，其可塑性强，可快速提高坯体的湿强度。C30土为一种高黏性的高岭土，其可塑性指数≧17。C30土的化学全分析为：IL：5.62，SiO 2：67.28，Al 2O 3：17.83，Fe 2O 3：0.45，TiO 2：0.01，CaO：0.13，MgO：0.55，K 2O：1.34，Na 2O：0.36。C30土的含量为8～15重量份，这样可以有效提高坯体湿强度，在后续喷釉烘干时，不易造成坯体开裂。
为提高墨水的发色性能，坯体原料中不加入硅灰石、碳酸钙、碳酸钡、氧化铝、氧化锌等常用原料，配方原料中纳米石英为棕色墨水助红剂。本发明中，纳米石英是指粒径为纳米级的石英，例如其粒径可为1nm～100nm，比表面积大于 150m 2/g。纳米石英的含量为2～8重量份，这样可以提高棕色墨水的成色性能，使棕色墨水更深，更红。
为进一步提高坯体的透光度，坯料中加入熔融石英，在高温烧成时，熔融石英优先石英形成液相，液相的熔融石英包裹并溶解石英，促进了石英的熔融，因此透光度增加。另外熔融石英的膨胀系数低，减少了因坯釉膨胀系数不匹配造成的变形问题。熔融石英的含量为2～20重量份，这样可以有效降低坯体膨胀系数，并提高坯体透光率。
W增强剂是指坯体增强剂，其可以增加坯体的强度。
坯体的制备及烘干：按常规制坯方法（例如依次混料、造粒、成型等）制备陶瓷薄板生坯并烘干。例如烘干温度为 150 ～ 165℃，烘干时间为 45 ～ 60 分钟。烘干后水分可控制在0.4%以下。本发明可提供一种半透光陶瓷薄板，因此半透光坯体的厚度优选为6mm以下。
消色釉层和中间喷墨图案层
在半透光坯体上施消色釉以形成消色釉层。采用第一喷墨渗花墨水在消色釉层上喷印已设计好的装饰图案。本发明中，消色釉是指能够使第一喷墨渗花墨水消色的釉料。由于消色釉能够使第一喷墨渗花墨水消色，因此消色釉层处不会显示出第一喷墨渗花墨水的颜色。而且第一喷墨渗花墨水可穿过消色釉层渗入坯体中，因此在坯体中可显示出第一喷墨渗花墨水的颜色和图案，即形成中间喷墨图案层。本发明中，中间层的图案装饰采用喷墨工艺，因此可随意调整细节图案变化，灵活性高，通过图案不同的灰度对光线的吸收从而形成明暗相间，层次丰富的装饰效果。
关于消色釉和第一喷墨渗花墨水的选择，只要消色釉能够使第一喷墨渗花墨水消色即可。在一个示例中，消色釉的配方为：按重量份计，超白高岭土：0～9，C30土：8～15，石英：15～35，熔融石英：2～20，煅烧滑石粉：8～20，钾长石粉：20～35，膨润土：3～7，纳米氧化锌：0.5～5。其化学全分析：IL：3.8～4.52，SiO 2：60.68～75.34，Al 2O 3：10.1～15.5，Fe 2O 3：0.10～0.45，TiO 2：0.31～1.4，CaO：0.1～0.7，MgO：2.1～3.8，K 2O：2.5～4.2，Na 2O：0.7～1.5，ZnO：0.5～5。第一喷墨渗花墨水选择喷墨渗花棕色墨水。
喷墨渗花棕色墨水由于纳米石英的包裹而保障墨水中的金属铁系氧化物在高温下能稳定成色，本发明中，为达到消色效果，消色釉中不加纳米石英。为使消色更彻底，消色釉中加入纳米氧化锌，其在高温下能和墨水中的金属铁系氧化物反应，使其失去发色性能，达到彻底消色。
纳米氧化锌的原生粒径可小于800 nm，优选为50nm～300nm。原生粒径指纳米材料中的团聚颗粒中一次颗粒的粒径。纳米氧化锌的比表面积可大于 30m 2/g，优选大于 150m 2/g。纳米氧化锌的堆积孔孔径可小于 400 nm，优选小于 100 nm。
具备上述粒径的纳米氧化锌与墨水中的金属铁系氧化物反应活性较高，因此以较少的含量（0.5～5重量份，优选为0.5～2.5重量份）即可达到消色效果。纳米氧化锌的原生粒径大于800 nm，且加入量低于2.5%时，其与墨水中的金属铁系氧化物反应活性降低，不能达到完全消色。当加入量高于2.5%时，可达到完全消色，但增加了原料成本，因此选用原生粒径小于800 nm的纳米氧化锌。
纳米氧化锌类别主要包括气相纳米氧化锌、沉淀纳米氧化锌、纳米氧化锌气凝胶以及分子筛，但不限于此，包括所有应用不同生产原理和工艺而制得的纳米氧化锌。
消色釉层的制备：将消色釉喷在烘干的坯体上。消色釉出球细度要求325目筛余0.5～0.8，比重可为1.78～1.87。喷釉重可为280～400 g/m 2，釉比重可为1.5～1.55。烧成后的厚度可控制在0.04～0.1mm，优选为0.07～0.09mm。若厚度过小，则不能完全覆盖坯体层中棕色墨水颜色；若厚度过大，则釉层水份较难烘干，且太厚釉层烘干时易开裂。施加消色釉层后，可再次烘干，烘干温度可为80～120℃，烘干时间可为10～20分钟。烘干后水分控制在0.8%以下。
中间喷墨图案层的制备：将施有消色釉的陶瓷薄板坯体用数码喷墨机喷印已设计好的装饰图案。墨水（第一喷墨渗花墨水）可采用喷墨渗花棕色墨水以及助渗剂。墨水与助渗剂的喷量关系可为墨水灰度加助渗剂灰度为100%。为达到丰富的坯体中间层装饰效果，墨水采用多通道喷墨打印，使得墨量加大，墨水完全穿透消色釉层，且渗透到坯体层，在坯体层可渗透1～2mm，在光线的照射下，坯体中间层的棕色墨水吸收光线形成深浅明暗层次凸显，细节丰富的装饰图案。
施加第一喷墨渗花墨水后，可将坯体静置3分钟或以上，例如3～5分钟，以保证其渗透深度。
待第一喷墨渗花墨水完全穿透消色釉后，在消色釉上再次用数码喷墨机喷印已设计好的装饰图案。墨水（第二喷墨普通陶瓷墨水）没有特别限制，例如可采用市面上墨水公司提供的普通陶瓷墨水。其提供的颜色主要为棕色、桔黄、黄色、蓝色、黑色。第二次喷的是普通陶瓷墨水，无渗透性能，只在消色釉表面成色。
施加第二喷墨普通陶瓷墨水后，进行烧成。烧成温度可为1150～1230℃。烧成时间可为45～75分钟。烧成制得半透明陶瓷薄板半成品，经磨边分级后及可打包入库。
由于在坯体表面喷了一层消色釉，使得第一喷墨渗花墨水的喷墨装饰在表面无法显示，因此其表面的装饰图案只为第二喷墨普通陶瓷墨水的喷墨装饰图案，而第一喷墨渗花墨水的装饰图案则完全在坯体中间层。中间层的图案装饰采用喷墨工艺，因此可随意调整细节图案变化，灵活性高，通过图案不同的灰度对光线的吸收从而形成明暗相间，层次丰富的装饰效果。本发明得到的利用墨水吸光装饰的半透光陶瓷薄板坯体，其透光性能更好，坯料统一，坯体中间层层次细节丰富，工艺简单，坯体中间层装饰图案可灵活多变。本发明的半透光陶瓷薄板坯体的规格可为（800～1600）mm×（1200～2400）mm×（3～6）mm。
下面进一步例举实施例以详细说明本发明。同样应理解，以下实施例只用于对本发明进行进一步说明，不能理解为对本发明保护范围的限制，本领域的技术人员根据本发明的上述内容作出的一些非本质的改进和调整均属于本发明的保护范围。下述示例具体的工艺参数等也仅是合适范围中的一个示例，即本领域技术人员可以通过本文的说明做合适的范围内选择，而并非要限定于下文示例的具体数值。
测试方法：
吸水率：采用GB/T3810.3-2006 陶瓷砖试验方法第3部分中吸水率的测定；
粒径：采用KW510型湿法全自动激光粒度分析仪测定粒子的粒径；
比表面积：采用3H-2000PS2型纳米材料比表面积及孔径测定仪测定；
堆积孔孔径：采用3H-2000PS2型纳米材料比表面积及孔径测定仪测定；
透光度：采用77C-1智能瓷胎透光度仪检测。
实施例1：
1：半透光陶瓷薄板坯料的制备：半透光坯体的配方为：超白高岭土：9，C30土（购于佛山市石易金陶瓷原料有限公司）：12，石英：30，熔融石英：15，煅烧滑石粉：13，钾长石粉：22，膨润土4，W增强剂（购于博耐德（上海）陶瓷釉料有限公司）：2，纳米石英4。其化学全分析：IL：4.25，SiO 2：74.98，Al 2O 3：13.4，Fe 2O 3，0.15，TiO 2：0.14，CaO：0.46，MgO：3.56，K 2O：2.29，Na 2O：0.72。
因配方中的原料主要为脊性料，压制成型后的湿强度差，在釉线上易造成烂砖。因此在配方中引入C30土，其可塑性强，可快速提高坯体的湿强度。C30土的化学全分析为：IL：5.62，SiO 2：67.28，Al 2O 3：17.83，Fe 2O 3，0.45，TiO 2：0.01，CaO：0.13，MgO：0.55，K 2O：1.34，Na 2O：0.36。
为提高墨水的发色性能，坯体原料中不加入硅灰石，碳酸钙，碳酸钡，氧化铝，氧化锌等常用原料，配方原料中纳米石英为棕色墨水助红剂，该纳米石英购自上海美高色料有限公司，型号NMSIO900，其粒径为10~25nm。
为进一步提高坯体的透光度，坯料中加入熔融石英，在高温烧成时，熔融石英优先石英形成液相，液相的熔融石英包裹并溶解石英，促进了石英的熔融，因此透光度增加。另外熔融石英的膨胀系数低，减少了因坯釉膨胀系数不匹配造成的变形问题。
2：坯体的制备及烘干：按半透光坯体的配方将各原料混匀后喷粉、压制成陶瓷薄板生坯并烘干，烘干温度为155℃，烘干时间为55分钟，烘干后水分控制在0.4%。制得的坯体的厚度为5.6mm。
3：消色釉的制备：配方为：超白高岭土：9，C30土：12，石英：30，熔融石英：15，煅烧滑石粉：18，钾长石粉：22，膨润土4，纳米氧化锌2，其化学全分析：IL：4.45，SiO 2：73.08， Al 2O 3：13.66，Fe 2O 3，0.13，TiO 2：0.14，CaO：0.63，MgO：4.66，K 2O：2.34，Na 2O：0.66。消色釉细度要求325目筛余0.5~0.8，比重1.78~1.87，备用。
喷墨渗花棕色墨水由于纳米石英的包裹而保障墨水中的金属铁系氧化物在高温下能稳定成色，为达到消色效果，此处不加纳米石英。为使消色更彻底，此时加入纳米氧化锌，其在高温下能和墨水中的金属铁系氧化物反应，使其失去发色性能，达到彻底消色。
本实施例中，纳米氧化锌购自上海美高色料有限公司，型号NMZN003，其原生粒径为400nm，比表面积为165m 2/g，堆积孔孔径为75nm。
4：喷消色釉，将步骤3制得的消色釉喷在步骤2烘干的坯体上。喷釉重330±3 g/m 2，釉比重1.52，烧成后的厚度控制在0.08mm。
5：再次烘干：将步骤4制得的陶瓷薄板坯体再次烘干，烘干温度为95℃，烘干时间为15分钟，水分控制在0.65%。
6：坯体中间层喷墨装饰：将步骤5制得的陶瓷薄板坯体用数码喷墨机喷印已设计好的装饰图案，墨水采用上海美高色料有限公司提供的喷墨渗花棕色墨水（型号：INKMET L253MB1）以及助渗剂（型 号：MET FLUID BS）。
由于高温下喷墨渗花棕色墨水中的金属铁系氧化物活性强，在无纳米石英的包裹下，易与消色釉和纳米氧化锌反应，被还原或转化成其他物质而失去发色性能。而喷墨渗花蓝色或黄色或黑色墨水因其稳定的金属氧化物，在高温下不与消色釉或纳米氧化锌反应，使得消色釉无法起到消色作用。因而此时只用喷墨渗花棕色墨水。
为达到丰富的坯体中间层装饰效果，墨水采用4通道棕色墨水和2通道助渗剂打印，使得墨量加大，墨水完全穿透消色釉层，且渗透到坯体层，在坯体层可渗透1～2mm，在光线的照射下，坯体中间层的棕色墨水吸收光线形成深浅明暗层次凸显，细节丰富的装饰图案。墨水与助渗剂的喷量关系为墨水灰度加助渗剂灰度为100%。
7：将步骤6制得的陶瓷薄板砖坯体静置3分钟，以保证其渗透深度。
8：再次喷墨装饰：将步骤7制得的瓷质砖坯体再次用数码喷墨机喷印已设计好的装饰图案。墨水采用福禄（苏州）新型材料有限公司提供的普通陶瓷墨水。其提供的颜色主要为棕色（型号 ：BR-601）、桔黄（型号 ：BE-201）、黄色（型号 ：YE-401）、蓝色（型号 ：BL-511）、黑色（型号 ：BK-301）。
9：烧成：将步骤8制得的陶瓷薄板坯体烧成，烧成温度为1195℃，烧成时间65分钟制得半透明陶瓷薄板半成品，经磨边分级后及可打包入库。制得的半透明陶瓷薄板的规格为900 mm×1800 mm×5.5mm。本发明的半透明陶瓷薄板是一种瓷质砖，其吸水率为0.1%以下。
由于步骤4在坯体表面喷了一层消色釉，使得步骤6的喷墨装饰在表面无法显示，因此其表面的装饰图案只为步骤7的喷墨装饰图案，而步骤6的装饰图案则完全在坯体中间层。中间层的图案装饰采用喷墨工艺，因此可随意调整细节图案变化，灵活性高，通过图案不同的灰度对光线的吸收从而形成明暗相间，层次丰富的装饰效果。制得的半透明陶瓷薄板透光率为20%。
实施例2：
基本同实施例1，不同之处在于纳米氧化锌为广东道氏技术股份有限公司提供，其原生粒径为320nm，比表面积为204m 2/g，堆积孔孔径为65nm。结果得到了半透光陶瓷薄板，透光率为20%，其表面的装饰图案只为步骤7的喷墨装饰图案，而步骤6的装饰图案则完全在坯体中间层。
实施例3：
基本同实施例1，不同之处在于消色釉的配方为：超白高岭土：9，C30土：12，石英：25，熔融石英：20，煅烧滑石粉：18，钾长石粉：22，膨润土4，纳米氧化锌2。结果得到了半透光陶瓷薄板，透光率为22%，其表面的装饰图案只为步骤7的喷墨装饰图案，而步骤6的装饰图案则完全在坯体中间层。
实施例5：
基本同实施例1，不同之处在于坯体的配方为：超白高岭土：9，C30土：12，石英：25，熔融石英：20，煅烧滑石粉：13，钾长石粉：22，膨润土4，W增强剂：2，纳米石英4。结果得到了半透光陶瓷薄板，透光率为27%，其表面的装饰图案只为步骤7的喷墨装饰图案，而步骤6的装饰图案则完全在坯体中间层。
实施例6：
基本同实施例1，不同之处在于消色釉层的厚度为0.05mm。结果得到了半透光陶瓷薄板，透光度为21%，其表面的装饰图案只为步骤7的喷墨装饰图案，而步骤6的装饰图案则完全在坯体中间层。
实施例7：
基本同实施例1，不同之处在于坯体层的厚度为4.0mm。结果得到了半透光陶瓷薄板，透光度为28%，其表面的装饰图案只为步骤7的喷墨装饰图案，而步骤6的装饰图案则完全在坯体中间层。

Claims (9)

  1. 一种利用墨水吸光装饰的半透光陶瓷薄板，其特征在于，包括：半透光坯体、从所述半透光坯体的上表面渗入所述半透光坯体中的中间喷墨图案层、位于所述半透光坯体的上表面上的消色釉层、以及位于所述消色釉层上的表面图案层。
  2. 根据权利要求1所述的半透光陶瓷薄板，其特征在于，所述中间图案层在所述半透光坯体中的渗入深度为1～2mm。
  3. 根据权利要求1或2所述的半透光陶瓷薄板，其特征在于，所述消色釉层的厚度为0.04～0.1mm。
  4. 一种权利要求1至3中任一项所述的半透光陶瓷薄板的制备方法，其特征在于，包括以下步骤：
    制备半透光坯体；
    在半透光坯体上施消色釉；
    在消色釉上施第一喷墨渗花墨水，其中，所述消色釉能够使在消色釉层中的所述第一喷墨渗花墨水消色；以及
    待第一喷墨渗花墨水完全穿透消色釉后，在消色釉上施第二喷墨非渗透墨水，然后烧成，即得所述半透光陶瓷薄板。
  5. 根据权利要求4所述的制备方法，其特征在于，所述半透光坯体的配方为：按重量份计，超白高岭土：0～9，C30土：8～15，石英：15～35，熔融石英：2～20，煅烧滑石粉：8～20，钾长石粉：20～35，膨润土：3～7，W增强剂：1～4，纳米石英：2～8。
  6. 根据权利要求4或5所述的制备方法，其特征在于，所述消色釉的配方为：按重量份计，超白高岭土：0～9，C30土：8～15，石英：15～35，熔融石英：2～20，煅烧滑石粉：8～20，钾长石粉：20～35，膨润土：3～7，纳米氧化锌：0.5～5。
  7. 根据权利要求6所述的制备方法，其特征在于，所述纳米氧化锌的原生粒径小于800 nm，优选为50nm～300nm。
  8. 根据权利要求4至7中任一项所述的制备方法，其特征在于，所述第一喷墨渗花墨水为喷墨渗花棕色墨水。
  9. 一种半透光陶瓷材料，其特征在于，所述半透光陶瓷材料的配方为：按重量份计，超白高岭土：0～9，C30土：8～15，石英：15～35，熔融石英：2～20，煅烧滑石粉：8～20，钾长石粉：20～35，膨润土：3～7，W增强剂：1～4，纳米石英：2～8。
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