Patent classifications
C04B22/0066
Geopolymer molding production method and geopolymer molding production system
This geopolymer molding production method comprises: a mixing step (S1) for mixing a first material containing aluminum and silicon with a hydrate of an alkali stimulant containing a hydrate of an alkaline hydroxide and/or a hydrate of an alkaline silicate; a compaction step (S2) for compacting the mixture obtained in the mixing step (S1) into a compacted mixture; and a curing step (S3) for curing the compacted mixture.
Geopolymer molding production method and geopolymer molding production system
This geopolymer molding production method comprises: a mixing step (S1) for mixing a first material containing aluminum and silicon with a hydrate of an alkali stimulant containing a hydrate of an alkaline hydroxide and/or a hydrate of an alkaline silicate; a compaction step (S2) for compacting the mixture obtained in the mixing step (S1) into a compacted mixture; and a curing step (S3) for curing the compacted mixture.
Concrete hardener composition
Provided is a concrete hardener composition. The concrete hardener composition includes a sodium silicate compound, an acid compound and a balance amount of solvent. The sodium silicate compound includes sodium silicate or a mixture of sodium silicate and sodium methylsilicate. The acid compound includes acetic acid, glycolic acid, ethylenediaminetetraacetic acid, tartaric acid, nitric acid, boric acid or a combination thereof. The solvent includes water or a mixed solution of water and polyol. Based on the total weight of the concrete hardener composition, the content of silicon is between 5 wt % and 15 wt %, and the content of the acid compound is between 2 wt % and 30 wt %.
CONCRETE HARDENER COMPOSITION
Provided is a concrete hardener composition. The concrete hardener composition includes a sodium silicate compound, an acid compound and a balance amount of solvent. The sodium silicate compound includes sodium silicate or a mixture of sodium silicate and sodium methylsilicate. The acid compound includes acetic acid, glycolic acid, ethylenediaminetetraacetic acid, tartaric acid, nitric acid, boric acid or a combination thereof. The solvent includes water or a mixed solution of water and polyol. Based on the total weight of the concrete hardener composition, the content of silicon is between 5 wt % and 15 wt %, and the content of the acid compound is between 2 wt % and 30 wt %.
GEOPOLYMER MOLDING PRODUCTION METHOD AND GEOPOLYMER MOLDING PRODUCTION SYSTEM
This geopolymer molding production method comprises: a mixing step (S1) for mixing a first material containing aluminum and silicon with a hydrate of an alkali stimulant containing a hydrate of an alkaline hydroxide and/or a hydrate of an alkaline silicate; a compaction step (S2) for compacting the mixture obtained in the mixing step (S1) into a compacted mixture; and a curing step (S3) for curing the compacted mixture.
GEOPOLYMER MOLDING PRODUCTION METHOD AND GEOPOLYMER MOLDING PRODUCTION SYSTEM
This geopolymer molding production method comprises: a mixing step (S1) for mixing a first material containing aluminum and silicon with a hydrate of an alkali stimulant containing a hydrate of an alkaline hydroxide and/or a hydrate of an alkaline silicate; a compaction step (S2) for compacting the mixture obtained in the mixing step (S1) into a compacted mixture; and a curing step (S3) for curing the compacted mixture.
ENGINEERED STONE AND MANUFACTURING METHOD THEREOF
In the present disclosure, a manufacturing method of an engineered stone is provided. A raw material is provided, wherein the raw material includes 45.5-80% by weight of glass particle, 15.2-47% by weight of aluminium trihydrate (ATH), 6.5-18% by weight of resin, 0.07-0.28% by weight of curing agent, and 0.05-0.3% by weight of coupling agent. The raw material is mixed and stirred to form a stone intermediate. The stone intermediate is arranged in a mold, and the mold is removed. The stone intermediate is compressed under high pressure and vacuum to form a condensed stone intermediate, wherein the air in the stone intermediate is released. The condensed stone intermediate is cured at elevated temperature to form the engineered stone.