A method of attaching graphene photocatalyst on stone surface
A photocatalyst and graphene technology, applied in the field of water treatment, can solve the problems of hindering river traffic and cumbersome installation of graphene photocatalytic nets, and achieve the effect of convenient material selection, simple operation, and increased water shock resistance
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Embodiment 1
[0035] According to the above-mentioned method of attaching graphene photocatalyst on stone surface, attach graphene modified nano perovskite photocatalyst on limestone surface, wherein in step S4, graphene modified nano perovskite content is graphene photocatalyst solution gross weight 55%, the content of the aluminum-based crosslinking agent is 2% of the total weight of the graphene photocatalyst solution, and the content of the polyanionic cellulose is 1% of the total weight of the graphene photocatalyst solution.
[0036] Limestone with graphene-modified nano-perovskite attached is placed on the bottom of the inferior V pond, and the upper end of the limestone is located 10 cm below the water surface, and the total specific surface area of the limestone is 20% of the pond area.
[0037] Table 1 Comparison of pond water quality before and after treatment (mg / L)
[0038]
Embodiment 2
[0040]According to the method for attaching a graphene photocatalyst to the surface of the stone, a graphene-modified nano-bismuth sulfide photocatalyst is attached to the surface of the stone, wherein the content of the graphene-modified nano-bismuth sulfide in step S4 is 63% of the total weight of the graphene photocatalyst solution %, the content of the aluminum-based crosslinking agent is the total weight of the graphene photocatalyst solution, 0.2%, and the content of polyanionic cellulose is 2% of the total weight of the graphene photocatalyst solution.
[0041] Put the top water stone attached with graphene-modified nano-bismuth sulfide on the bottom of the inferior V artificial lake, and make the upper end of the top water stone 10cm below the water surface, and the total specific surface area of the top water stone is 30% of the lake surface area .
[0042] Table 2 Comparison of lake water quality before and after treatment (mg / L)
[0043]
[0044]
Embodiment 3
[0046] According to the above-mentioned method for attaching graphene photocatalysts on the stone surface, attach graphene-modified nano-perovskites and graphene-modified nano-bismuth sulfide photocatalysts on the cobblestone surface, wherein in step S4, graphene-modified nano-perovskites, graphite The content of alkene-modified nano-bismuth sulfide is 70% of the total weight of the graphene photocatalyst solution, and the mass ratio of graphene-modified nano-perovskite and graphene-modified nano-bismuth sulfide is 1:1, and the content of aluminum-based crosslinking agent It is 3% of the total weight of the graphene photocatalyst solution, and the content of the polyanionic cellulose is 0.1% of the total weight of the graphene photocatalyst solution.
[0047] Place the pebbles attached with graphene-modified nano-perovskite and graphene-modified nano-bismuth sulfide on the upstream riverbed of the inferior V water quality river, and make the upper end of the pebbles 10cm below ...
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