Portable efficient seawater desalting material and preparation and use method thereof
A portable, high-efficiency technology for chemical instruments and methods, seawater treatment, general water supply conservation, etc., to achieve the effect of reduced possibility, low cost, and overall weight reduction
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Embodiment 1
[0029] A preparation method of a portable high-efficiency seawater desalination material, the method comprising the following steps:
[0030] Step 1: Add 0.5-3 mg of photothermal material and 5-10 mg of sodium alginate to each milliliter of water, and obtain mixed liquid A after ultrasonication; the photothermal material is graphene or carbon nanotube or graphite or carbon black or redox graphene or copper sulfide nanoparticles or carbon nanoparticles or nickel or cobalt-nickel alloy nanoparticles;
[0031] Step 2: Spread the mixed solution A on the base material according to the ratio of 800-4000 ml of mixed solution A loaded on the base material per square meter;
[0032] Step 3: Freeze-dry the base material loaded with mixed solution A and then soak it in a calcium chloride solution with a mass fraction of 5% to obtain composite material B;
[0033] Step 4: Wrap the composite material B on the sponge, absorbent cotton or hydrogel to obtain a portable high-efficiency seawat...
Embodiment 2
[0037] A preparation method of a portable high-efficiency seawater desalination material, the method comprising the following steps:
[0038] Step 1: Add 0.5-3 mg of photothermal material to a solvent with a volume ratio of 8:1-3:1 per milliliter of water and ethanol, and ultrasonically prepare a homogeneous mixture E; the photothermal material is graphene or carbon nanotubes or graphite or carbon black or redox graphene or copper sulfide nanoparticles or carbon nanoparticles or nickel or cobalt-nickel alloy nanoparticles;
[0039] Step 2: Add 7.5-15 mg of agarose and 80-150 mg of urea to each ml of mixed solution E to obtain mixed solution F. Heating the mixed solution F to 80 degrees Celsius for 30 minutes to obtain the mixed solution G;
[0040] Step 3: According to the ratio of 800-4000 ml of mixed solution G loaded on the base material per square meter, pour the mixed solution G at 80-90 degrees Celsius on the base material, cool and freeze-dry the obtained material, and...
Embodiment 3
[0043] This embodiment is basically the same as Embodiment 1 and Embodiment 2, and it is characterized in that the described water-absorbing inner core material is sponge or absorbent cotton or hydrogel; the described cotton textile material or the hydrophilic material with channel structure is cotton towel Composite material or cotton pad or cotton cloth or bamboo fiber paper; the portable high-efficiency seawater desalination material is cylindrical, with a diameter of 1-10 cm and a height of 5-20 cm.
[0044]Technical description: The experimental test shows that the core material can absorb and store seawater 6-20 times its own weight. The shape of the portable high-efficiency seawater desalination material has an important impact on determining the efficiency of receiving sunlight and whether the material can be used continuously. Salt particles will precipitate on the surface only when the salt concentration in the entire 3D photothermal water storage material reaches sat...
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