A copper-based superhydrophobic composite film with low friction coefficient and preparation method thereof
A low friction coefficient and composite film technology, which is applied in chemical instruments and methods, superimposed layer plating, liquid chemical plating, etc., can solve the problems of poor film bearing capacity, failure to achieve super-hydrophobic performance, and easy damage. Achieve the effects of reducing the rolling angle, good super-hydrophobic performance, and improving the static contact angle
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Embodiment 1
[0032] (1) Take the copper sheet (produced by Sinopharm Group) with a thickness of 0.15~0.20mm and a purity of 99.99% as the copper-based material, with 1mol·L -1 The nitric acid is deoxidized film treatment, then washed with deionized water, dried with nitrogen, and set aside.
[0033] (2) Wash the copper sheet treated in step (1) with deionized water, and then soak it in 4mol·L at 10℃ -1 Perform in-situ oxidation reaction in 1d sodium hydroxide solution to obtain a solid surface with micron-sized cuprous oxide crystal structure;
[0034] (3) Soak the copper sheet treated in step (2) in 0.0001mol·L at 10℃ -1 In the silver nitrate solution for 10 hours, clean with deionized water to obtain a copper sheet with a rough surface and a composite structure of micron-level cuprous oxide crystals and sub-micron-level metallic silver particles;
[0035] (4) Put the copper sheet with the composite structure of micron-level cuprous oxide crystals and sub-micron-level metallic silver particles on...
Embodiment 2
[0038] (1) Take the copper sheet (produced by Sinopharm Group) with a thickness of 0.15~0.20mm and a purity of 99.99% as a copper-based material, with 1mol·L -1 Deoxidize the nitric acid film for 10 seconds, then wash with deionized water, blow dry with nitrogen, and set aside.
[0039] (2) Wash the copper sheet treated in step (1) with deionized water, and then soak in 2mol·L at 23℃ -1 2d in-situ oxidation reaction in the sodium hydroxide solution to obtain a solid surface with micron-sized cuprous oxide crystal structure;
[0040] (3) Soak the copper sheet treated in step (2) in 0.001mol·L at 23℃ -1 In the silver nitrate solution for 1 hour, wash with deionized water to obtain a copper sheet with a rough surface and a composite structure of micron-level cuprous oxide crystals and sub-micron-level metallic silver particles;
[0041] (4) Put the copper sheet with the composite structure of micron-level cuprous oxide crystals and sub-micron level metallic silver particles on the surfac...
Embodiment 3
[0044] (1) Take the copper sheet (produced by Sinopharm Group) with a thickness of 0.15~0.20mm and a purity of 99.99% as the copper-based material, with 1mol·L -1 Deoxidize the nitric acid film for 10 seconds, then wash with deionized water, blow dry with nitrogen, and set aside.
[0045] (2) Wash the copper sheet treated in step (1) with deionized water, and then soak it in 1mol·L at 35℃ -1 3d in-situ oxidation reaction in the sodium hydroxide solution to obtain a solid surface with micron-sized cuprous oxide crystal structure;
[0046] (3) Soak the copper sheet treated in step (2) in 0.00025mol·L at 35℃ -1 In the silver nitrate solution for 1 hour, wash with deionized water to obtain a copper sheet with a rough surface and a composite structure of micron-level cuprous oxide crystals and sub-micron-level metallic silver particles;
[0047] (4) Put the copper sheet with the composite structure of micron-level cuprous oxide crystals and sub-micron-level metallic silver particles on the...
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