Nano/inorganic composite material and preparation method thereof
An inorganic composite and nanotechnology, applied in the field of inorganic material science, to achieve the effects of convenient mechanized construction, excellent anti-static, and excellent mechanical properties
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Embodiment 1
[0030] The preparation of embodiment 1 complex of the present invention
[0031] (1) Distribute ingredients according to the following components:
[0032] Component A: 30 parts by weight of calcium oxide
[0033] Aluminum oxide 15 parts by weight
[0034] Kaolin 5 parts by weight
[0035] Calcium sulfate 60 parts by weight
[0036] 10 parts by weight of iron sulfate
[0037] Component B: 1.5 parts by weight of multi-walled carbon nanotubes
[0038] (2) After calcining component A at 1000°C-1300°C for 1-3 hours, cool to room temperature under drying;
[0039] (3) Add component B to the calcined component A, mix evenly, and grind with a Raymond mill until the particle size is less than 500 mesh.
Embodiment 2
[0040] The preparation of embodiment 2 complexes of the present invention
[0041] (1) Distribute ingredients according to the following components:
[0042] Component A: 60 parts by weight of quicklime
[0043] Aluminum oxide 30 parts by weight
[0044] Calcium sulfate 130 parts by weight
[0045] Component B: 10% w / w carbon nanotube mica filler 25 parts by weight
[0046] (2) After calcining component A at 1000°C-1300°C for 1-3 hours, cool to room temperature under drying;
[0047] (3) Add component B to the calcined component A, mix evenly, and grind with a Raymond mill until the particle size is less than 500 mesh.
Embodiment 3
[0048] The preparation of embodiment 3 complexes of the present invention
[0049] (1) Distribute ingredients according to the following components:
[0050] Component A: 28 parts by weight of calcium oxide
[0051] Kaolin 18 parts by weight
[0052] Aluminum oxide 12 parts by weight
[0053] Magnesium oxide 4 parts by weight
[0054] Calcium sulfate 70 parts by weight
[0055] Iron sulfate 6 parts by weight
[0056] Component B: 10% w / w carbon nanotube titanium dioxide filler 15 parts by weight
[0057] (2) After calcining component A at 1000°C-1300°C for 1-3 hours, cool to room temperature under drying;
[0058] (3) Add component B to the calcined component A, mix evenly, and grind with a Raymond mill until the particle size is less than 500 mesh.
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