A platform for research: civil engineering, architecture and urbanism
Low-water-absorption ceramic tile and preparation method thereof
The invention discloses a low water absorption ceramic tile and a preparation method thereof, and the preparation method comprises the following steps: A, preparing green body raw materials including 28-37 parts of green sand with iron oxide content greater than or equal to 3.0%, 4-8 parts of high-aluminum stone powder, 10-14 parts of potassium-sodium sand, 16-24 parts of white sand, 4-6 parts of magnesia soil, 3-8 parts of edging waste residue, 8-12 parts of bentonite and 7-13 parts of bauxite; b, carrying out ball milling, iron removal and squeezing on the green sand to obtain a first mud cake; c, potassium-sodium sand and white sand are used as second-class raw materials; d, carrying out ball milling, sieving and squeezing on high-aluminum stone powder, magnesian soil, edging waste residues, bentonite and bauxite to obtain a second mud cake; e, performing vertical milling to obtain fine powder, and performing slag removal, iron removal, humidification and granulation on the fine powder to obtain powder; and F, spraying water on the powder to moisturize, pressing and firing to obtain the ceramic tile. According to the low-water-absorption ceramic tile and the preparation method thereof, on the premise of energy conservation, the production cost is reduced, and meanwhile the quality of a finished product is guaranteed.
本发明公开了一种低吸水率陶瓷砖及其制备方法,包括以下步骤:A、准备坯体原料,包括氧化铁含量≥3.0%的青砂28~37份、高铝石粉4~8份、钾钠砂10~14份、白砂16~24份、镁质土4~6份、磨边废渣3~8份、膨润土8~12份和铝矾土7~13份;B、将青砂球磨、除铁和压榨后得到第一泥饼;C、将钾钠砂和白砂作为第二类原料;D、将高铝石粉、镁质土、磨边废渣、膨润土和铝矾土球磨、过筛和压榨后得到第二泥饼;E、立磨得到细粉,再将细粉除渣、除铁和加湿造粒得到粉料;F、将粉料喷水补湿后压制和烧制得到陶瓷砖。本方案提出的一种低吸水率陶瓷砖及其制备方法,有利于兼顾节能的前提下,降低生产成本,同时保证成品品质。
Low-water-absorption ceramic tile and preparation method thereof
The invention discloses a low water absorption ceramic tile and a preparation method thereof, and the preparation method comprises the following steps: A, preparing green body raw materials including 28-37 parts of green sand with iron oxide content greater than or equal to 3.0%, 4-8 parts of high-aluminum stone powder, 10-14 parts of potassium-sodium sand, 16-24 parts of white sand, 4-6 parts of magnesia soil, 3-8 parts of edging waste residue, 8-12 parts of bentonite and 7-13 parts of bauxite; b, carrying out ball milling, iron removal and squeezing on the green sand to obtain a first mud cake; c, potassium-sodium sand and white sand are used as second-class raw materials; d, carrying out ball milling, sieving and squeezing on high-aluminum stone powder, magnesian soil, edging waste residues, bentonite and bauxite to obtain a second mud cake; e, performing vertical milling to obtain fine powder, and performing slag removal, iron removal, humidification and granulation on the fine powder to obtain powder; and F, spraying water on the powder to moisturize, pressing and firing to obtain the ceramic tile. According to the low-water-absorption ceramic tile and the preparation method thereof, on the premise of energy conservation, the production cost is reduced, and meanwhile the quality of a finished product is guaranteed.
本发明公开了一种低吸水率陶瓷砖及其制备方法,包括以下步骤:A、准备坯体原料,包括氧化铁含量≥3.0%的青砂28~37份、高铝石粉4~8份、钾钠砂10~14份、白砂16~24份、镁质土4~6份、磨边废渣3~8份、膨润土8~12份和铝矾土7~13份;B、将青砂球磨、除铁和压榨后得到第一泥饼;C、将钾钠砂和白砂作为第二类原料;D、将高铝石粉、镁质土、磨边废渣、膨润土和铝矾土球磨、过筛和压榨后得到第二泥饼;E、立磨得到细粉,再将细粉除渣、除铁和加湿造粒得到粉料;F、将粉料喷水补湿后压制和烧制得到陶瓷砖。本方案提出的一种低吸水率陶瓷砖及其制备方法,有利于兼顾节能的前提下,降低生产成本,同时保证成品品质。
Low-water-absorption ceramic tile and preparation method thereof
一种低吸水率陶瓷砖及其制备方法
ZHAO WEIPEI (author) / LONG HAIREN (author) / LIU XIANGDONG (author) / WANG QIUPING (author) / JIANG NAN (author) / ZHONG BAOMIN (author) / HE XUXU (author) / HU MING (author) / TAN YUANLIANG (author) / WU HECHENG (author)
2024-07-12
Patent
Electronic Resource
Chinese
IPC:
C04B
Kalk
,
LIME
Low-water-absorption ceramic tile and preparation method thereof
European Patent Office | 2024
|European Patent Office | 2023
|European Patent Office | 2024
|Ceramic tile dry granules, preparation method thereof, ceramic tile and preparation method thereof
European Patent Office | 2022
|European Patent Office | 2024
|