High-temperature wear-resistance brick and casting method thereof
A high-temperature wear-resistant and high-temperature-resistant technology, applied in the field of wear-resistant bricks, can solve the problems of poor wear resistance and thermal shock resistance of refractory products, and achieve the effects of extending service life, slowing cracks, and excellent anti-wear performance.
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Embodiment 1
[0026] A high-temperature wear-resistant brick, the weight of raw materials is calculated according to the following chemical composition, expressed in parts by weight based on oxides: Al 2 o 3 : 70, SiO 2 : 17, ZrO 2 +Hf 2 O: 5, Na 2 O: 0.9, Fe 2 o 3 +TiO 2 +CaO+MgO: 2, Al 2 o 3 Derived from bauxite clinker, Al 2 o 3 The particle size of the raw material is 30mm; ZrO 2 +Hf 2 O originates from ZrO 2 +Hf 2 O≥65.5% zircon sand; Na 2 O comes from Na 2 CO 3 ≥99% first grade industrial sodium carbonate, CaO is derived from calcite with CaO≥55.5%, 500kg is added to each furnace, and one furnace is produced every 60 minutes.
[0027] The melting and casting method of high temperature wear-resistant bricks, its steps are as follows:
[0028] (1) mixing the raw materials in a mixer to form a batch;
[0029] (2) Add the batch material into the electric arc furnace and melt it for 60 minutes at 2500°C to form a melt;
[0030] (3) Cast the high-temperature melt into a ...
Embodiment 2
[0032] A high-temperature wear-resistant brick, the weight of raw materials is calculated according to the following chemical composition, expressed in parts by weight based on oxides: Al 2 o 3 : 75, SiO 2 : 22, ZrO 2 +Hf 2 O: 7, Na 2 O: 1.2, Fe 2 o 3 +TiO 2 +CaO+MgO: 5, Al 2 o 3 Derived from kaolinite clinker, Al 2 o 3 The particle size of the raw material is 1mm; ZrO 2 +Hf 2 O originates from ZrO 2 +Hf 2 O≥98.5% desiliconized zirconium; Na 2 O comes from Na 2 CO 3 ≥99% first grade industrial sodium carbonate; CaO is derived from calcite with CaO≥55.5%, each furnace feeds 1200kg, and produces one furnace every 130 minutes.
[0033] The melting and casting method of high temperature wear-resistant bricks, its steps are as follows:
[0034] (1) Mixing the raw materials to form a batch;
[0035] (2) Add the batch material into the electric arc furnace and melt it at 1800°C for 60-150 minutes to form a melt;
[0036] (3) Cast the high-temperature melt into a g...
Embodiment 3
[0038] A high-temperature wear-resistant brick, the weight of raw materials is calculated according to the following chemical composition, expressed in parts by weight based on oxides: Al 2 o 3 : 72, SiO 2 : 18, ZrO 2 +Hf 2 O: 6, Na 2 O: 1.0, Fe 2 o 3 +TiO 2 +CaO+MgO: 3, Al 2 o 3 Derived from synthetic mullite, Al 2 o 3 The particle size of the raw material is 5mm; ZrO 2 +Hf 2 O originates from ZrO 2 +Hf 2 O≥98.5% desiliconized zirconium, Na 2 O comes from Na 2 CO 3 ≥99% primary industrial sodium carbonate; the CaO is derived from calcite with CaO≥55.5%, and 500kg is added to each furnace, and one furnace is produced every 60 minutes.
[0039] The melting and casting method of high temperature wear-resistant bricks, its steps are as follows:
[0040] (1) Mixing the raw materials to form a batch;
[0041] (2) Add the batch material into the electric arc furnace and melt it for 100 minutes at 2000°C to form a melt;
[0042] (3) Cast the high-temperature molten ...
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