High-strength ultralight cement based composite material and preparation method thereof
A composite material and ultra-lightweight technology, applied in the field of concrete, can solve the problems of unconsidered resistance to chloride ion corrosion resistance, low strength, and corrosion of steel bars, and achieve excellent chloride ion permeability resistance, good application prospects, and low effect of density
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Embodiment 1
[0029] An ultra-light cement-based composite material provided in this implementation includes the following components: cementitious material, hollow glass microspheres, polycarboxylate-based high-performance water reducer, water,
[0030] Among them, the mass ratio of gelling material, polycarboxylate high-performance water reducer and water is 100:2:100;
[0031] The volume ratio of gelling material to hollow glass microspheres is 1:5;
[0032] The cementitious material is obtained by mixing the following components in mass percentage: 62.5% of cement, 25% of floating beads, 5% of silica fume, 2.5% of phosphogypsum, and 5% of polyaluminum chloride.
[0033] The technical process of the preparation method of the above-mentioned ultra-light cement-based composite material is as follows: figure 1 As shown, the specific steps are:
[0034] (1) Place the hollow glass microspheres in a saturated lime water solution at 17-23°C and stir for 2 hours, then rinse until neutral, dry at...
Embodiment 2
[0038] An ultra-light cement-based composite material provided in this implementation includes the following components: cementitious material, hollow glass microspheres, polycarboxylate-based high-performance water reducer, water,
[0039] Among them, the mass ratio of gelling material, polycarboxylate high-performance water reducing agent and water is 100:2.5:200;
[0040] The volume ratio of gelling material to hollow glass microspheres is 1:4;
[0041] The cementitious material is obtained by mixing the following components in mass percentage: 57% of cement, 25% of floating beads, 10% of silica fume, 3% of phosphogypsum, and 5% of polyaluminum chloride.
[0042] The technical process of the preparation method of the above-mentioned ultra-light cement-based composite material is as follows: figure 1 As shown, the specific steps are:
[0043] (1) Place the hollow glass microspheres in a saturated lime water solution at 17-23°C and stir for 2 hours, then rinse until neutral...
Embodiment 3
[0047] An ultra-light cement-based composite material provided in this implementation includes the following components: cementitious material, hollow glass microspheres, polycarboxylate-based high-performance water reducer, water,
[0048] Among them, the mass ratio of gelling material, polycarboxylate high-performance water reducing agent and water is 100:1.5:160;
[0049] The volume ratio of gelling material to hollow glass microspheres is 1:7;
[0050] The cementitious material is obtained by mixing the following components in mass percentage: 69% of cement, 19.5% of floating beads, 5.5% of silica fume, 2% of phosphogypsum, and 4% of polyaluminum chloride.
[0051] The technical process of the preparation method of the above-mentioned ultra-light cement-based composite material is as follows: figure 1 As shown, the specific steps are:
[0052] (1) Place the hollow glass microspheres in a saturated lime water solution at 17-23°C and stir for 2 hours, then rinse until neut...
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