Building waste residue regenerated floor tiles and preparation method thereof
A technology of construction waste and construction waste, which is applied in the field of construction waste recycled floor tiles and its preparation, can solve the problems of high crushing index, large porosity of recycled aggregate, and large void ratio, so as to enhance hardness and strength, prevent chemical Erosion, the effect of improving the compressive strength
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Embodiment 1
[0018] Example 1: A floor tile regenerated from construction waste slag and its preparation method, including 45 parts of construction waste, 5 parts of waste rubber powder, 20 parts of blast furnace slag powder, 5 parts of river sand, 5 parts of crushed stone, 15 parts of cement, oxidized 0.03 parts of graphene nanoparticles, 0.5 parts of nano-iron, 0.01 parts of sealing and curing agent, 0.1 parts of sodium silicate, 0.1 parts of sodium fluorosilicate and 10 parts of water.
[0019] The construction waste includes waste concrete, waste glass, waste bricks and tiles, muck, crushed stones, waste mortar, mud, asphalt blocks, etc. after sorting, crushing, and magnetic separation to remove metal and other sundries. The recycled aggregate is 13.5-19.5.
[0020] The cement is composite Portland cement with a strength grade of 32.5.
[0021] Its preparation steps are as follows:
[0022] (1) The construction waste, waste rubber powder, blast furnace slag powder, river sand, gravel...
Embodiment 2
[0025] Example 2: A floor tile regenerated from construction waste slag and its preparation method, including 55 parts of construction waste, 8 parts of waste rubber powder, 25 parts of blast furnace slag powder, 8 parts of river sand, 8 parts of crushed stone, 18 parts of cement, oxidized 0.04 parts of graphene nanoparticles, 1 part of nano iron, 0.02 parts of sealing curing agent, 0.15 parts of sodium silicate, 0.15 parts of sodium fluorosilicate and 15 parts of water.
[0026] The construction waste includes waste concrete, waste glass, waste bricks and tiles, muck, crushed stones, waste mortar, mud, asphalt blocks, etc. after sorting, crushing, and magnetic separation to remove metal and other sundries. The recycled aggregate is 13.5-19.5.
[0027] The cement is composite Portland cement with a strength grade of 32.5.
[0028] Its preparation steps are as follows:
[0029] (1) The construction waste, waste rubber powder, blast furnace slag powder, river sand, gravel, cem...
Embodiment 3
[0032] Example 3: A floor tile regenerated from construction waste slag and its preparation method, including 65 parts of construction waste, 10 parts of waste rubber powder, 30 parts of blast furnace slag powder, 10 parts of river sand, 10 parts of crushed stone, 20 parts of cement, oxidized 0.05 parts of graphene nanoparticles, 1.5 parts of nano-iron, 0.03 parts of sealing curing agent, 0.25 parts of sodium silicate, 0.25 parts of sodium fluorosilicate and 20 parts of water.
[0033] The construction waste includes waste concrete, waste glass, waste bricks and tiles, muck, crushed stones, waste mortar, mud, asphalt blocks, etc. after sorting, crushing, and magnetic separation to remove metal and other sundries. The recycled aggregate is 13.5-19.5.
[0034] The cement is composite Portland cement with a strength grade of 32.5.
[0035] Its preparation steps are as follows:
[0036] (1) The construction waste, waste rubber powder, blast furnace slag powder, river sand, grave...
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