High temperature bright red glaze and its preparation process
A bright red, high-temperature technology, applied in the field of high-temperature bright red glaze and its preparation, can solve the problems of application limitations, high temperature resistance, poor thermal stability, etc., achieve pure and saturated hue, reduce decomposition speed, and increase active energy.
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Embodiment approach 1
[0008] 1. Preparation of active negative catalyst: slowly add sodium hydroxide solution to the potassium fluorotantalate solution, and stir at the same time until the precipitation no longer increases, let it stand for a while, then filter, wash with water until the effluent is close to neutral, and wash the The material is dried at a temperature of 150° C. to obtain a negative catalyst, tantalum pentoxide. In order to further improve the inhibitory effect of the negative catalyst, carry out active treatment to the negative catalyst: mix and grind according to the negative catalyst: magnesium oxide: zinc oxide weight ratio of 10: 0.2: 0.2, rapidly heat to 1200 ° C, and then quench , that is, an active negative catalyst is obtained.
[0009] Two, get the above-mentioned active negative catalyst 8, lead silicate 49, magnesium oxide 2, calcium oxide 5, sodium oxide 5, cadmium sulfur selenide 8, cerium dioxide 4, lanthanum oxide 3, lithium silicate 1, three by weight % Diboron ox...
Embodiment approach 2
[0012] 1. Preparation of active negative catalyst: slowly add sodium hydroxide solution to the potassium fluorotantalate solution, and stir at the same time until the precipitation no longer increases, let it stand for a while, then filter, wash with water until the effluent is close to neutral, and wash the The material is dried at a temperature of 150° C. to obtain a negative catalyst, tantalum pentoxide. In order to further improve the inhibitory effect of the negative catalyst, carry out active treatment to the negative catalyst: mix and grind according to the negative catalyst: magnesium oxide: zinc oxide weight ratio of 10: 0.5: 0.4, rapidly heat to 1250 ° C, and then quench , that is, an active negative catalyst is obtained.
[0013] Two, get the above-mentioned active negative catalyst 10, lead silicate 47, magnesium oxide 2, calcium oxide 5, sodium oxide 5, cadmium sulfur selenide 10, cerium dioxide 3, lanthanum oxide 3, lithium silicate 1, three by weight % Diboron ...
Embodiment approach 3
[0016] 1. Preparation of active negative catalyst: slowly add sodium hydroxide solution to the potassium fluorotantalate solution, and stir at the same time until the precipitation no longer increases, let it stand for a while, then filter, wash with water until the effluent is close to neutral, and wash the The material is dried at a temperature of 200°C to obtain a negative catalyst, tantalum pentoxide. In order to further improve the inhibitory effect of the negative catalyst, the negative catalyst is then subjected to active treatment: mix and grind the negative catalyst: magnesium oxide: zinc oxide weight ratio of 10:1:2, rapidly heat to 1300 ° C, and then quench , that is, an active negative catalyst is obtained.
[0017] Two, get the above-mentioned active negative catalyst 6, lead silicate 52, magnesium oxide 3, calcium oxide 6, sodium oxide 4, cadmium sulfur selenide 7, cerium dioxide 2, lanthanum oxide 2, lithium silicate 1, three by weight % Diboron oxide 16, potas...
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Abstract
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