Thermal shock resistant composite ceramic material
A multiphase ceramic and thermal shock resistance technology, applied in the field of ceramic materials, can solve the problem that the strength of alumina-zirconia-mullite composite ceramics cannot be improved, and the thermal shock resistance and mechanical properties of the thermal shock resistance ceramic materials are not specified. The problem of low strength, etc., achieves the effects of high density, good thermal shock resistance, and improved flexural strength and fracture toughness.
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Embodiment 1
[0035] The mass percentage of the thermal shock-resistant composite ceramic material blank in this example is: alumina 60%, mullite 25%, zirconia 15%, adding an appropriate amount of deionized water, wet ball milling for 5 hours, and then drying in a drying box for 10 hours After sieving, granulation, dry pressing at 31MPa, sintering at a temperature of 1600°C for 2 hours, and cooling in a furnace to obtain an alumina-based composite material. The relevant data are shown in Table 1.
Embodiment 2
[0037] The mass percentage of the thermal shock-resistant composite ceramic material blank in this example is: alumina 61%, mullite 18%, zirconia 21%, adding an appropriate amount of deionized water, wet ball milling for 5 hours, and then drying in a drying oven for 10 hours After sieving, granulation, dry pressing at 31MPa, sintering at a temperature of 1600°C for 2 hours, and cooling in a furnace to obtain an alumina-based composite material. The relevant data are shown in Table 1.
Embodiment 3
[0039] The mass percentage of the thermal shock-resistant composite ceramic material blank in this example is: alumina 65%, mullite 17%, zirconia 18%, adding an appropriate amount of deionized water, wet ball milling for 3 hours, and then drying in a drying oven for 10 hours After sieving, granulation, dry pressing at 40MPa, sintering at 1610°C for 2 hours, and cooling with the furnace to obtain an alumina-based composite material. The relevant data are shown in Table 1.
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