A Liquid-Liquid Separation Method Based on the Differential Force Field of Fiber Bundle Solid Surface
A solid surface, fiber bundle technology, applied in separation methods, immiscible liquid separation, liquid separation, etc., can solve problems such as device blockage, and achieve the effect of increasing the separation area and increasing the separation effect.
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Embodiment 1
[0030] Fiber bundle A is made of copper fiber bundle, which is mixed with NaOH and K 2 S 2 o 8 After soaking in the solution, a uniform needle-shaped copper hydroxide film is formed on the surface of Cu, and then soaked in ethanol solution of n-dodecyl mercaptan to obtain copper fiber bundles with superhydrophobicity and superlipophilicity. The contact angle between copper fiber bundle and water is 151°.
[0031] For fiber bundle B, choose stainless steel fiber bundles, and coat the surface with a thermosetting resin solution. After the solvent evaporates, spray silicon carbide powder on the surface, and heat and cure to form a silicon carbide hydrophilic and oleophobic surface coating.
[0032] According to the technical principle and scheme of this patent, the fiber bundles A and B after surface modification are figure 1 The relative arrangement allows the oil-water mixture to pass between the fiber bundles A and B. Due to the difference in the surface force field of the ...
Embodiment 2
[0034] Fiber bundle A uses copper fiber bundles, etches them with 4mol / L nitric acid solution for 4min, and then soaks them in cetyl mercaptan with a concentration of 1mmol / L for 1hr to make superhydrophobic and superoleophilic copper The contact angle between the net and the copper fiber bundle and water is kept above 150°.
[0035] For fiber bundle B, select stainless steel fiber bundles, and coat the surface with a thermosetting resin solution. After the solvent evaporates, spray silicon dioxide powder on the surface, heat and cure to form a silicon dioxide hydrophilic and oleophobic surface coating.
[0036] According to the technical principle and scheme of this patent, the fiber bundles A and B after surface modification are figure 1 The relative arrangement allows the oil-water mixture to pass between the fiber bundles A and B. Due to the difference in the surface force field of the surface of A and B to the oil and water, different adhesion forces are generated, and th...
Embodiment 3
[0038] Fiber bundle A is made of stainless steel fiber bundles, and a layer of vertically arranged carbon nanotubes is deposited on the stainless steel by thermal chemical vapor deposition. Since the carbon nanotubes themselves are hydrophobic, they have superhydrophobicity.
[0039] For fiber bundle B, ABS resin fiber bundles are selected, and the surface is sprayed with polyvinylpyrrolidone solution to form a hydrophilic and oleophobic surface coating.
[0040] According to the technical principle and scheme of this patent, the fiber bundles A and B after surface modification are figure 1 The relative arrangement allows the oil-water mixture to pass between the fiber bundles A and B. Due to the difference in the surface force field of the surface of A and B to the oil and water, different adhesion forces are generated, and the liquid that passes through is collected and rested to achieve oil-water separation.
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