Preparation method for Palladium-copper-tin ternary alloy nano-catalyst and thereof
A nano-catalyst and ternary alloy technology, applied in chemical instruments and methods, metal/metal oxide/metal hydroxide catalysts, physical/chemical process catalysts, etc., can solve the problem of poor utilization of precious metals, low electrocatalytic activity, etc. Problems, to achieve high-efficiency electrocatalytic activity, simple process, and reduce production costs
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example 1
[0039] A palladium-copper-tin ternary alloy nanocatalyst, the catalyst is a multi-walled carbon nanotube as a carrier, and the supported alloy nanoparticle is an alloy of palladium, copper and tin, and the content of the alloy nanoparticle in the catalyst is about 25wt.%. The content of the nanotube is about 75wt.%, and the atomic ratio of palladium, copper and tin in the alloy nanoparticles is 1:1:1.
[0040] A kind of preparation method of palladium-copper-tin ternary alloy nano-catalyst is as follows:
[0041] The first step, pickling surface functionalization treatment of carbon nanotubes:
[0042] Place an appropriate amount of multi-walled carbon nanotubes with a diameter of 60nm in concentrated nitric acid with a concentration of 60%, magnetically stir and boil for 30min, filter, wash, and dry at 50°C;
[0043] The second step, the preparation of carbon nanotube supported palladium-copper-tin ternary alloy nanocatalyst:
[0044] A, palladium, copper, tin molar ratio i...
example 2
[0051] A palladium-copper-tin ternary alloy nanocatalyst, the catalyst is a multi-walled carbon nanotube as a carrier, and the loaded alloy nanoparticle is an alloy of palladium, copper and tin, and the content of the alloy nanoparticle in the catalyst is about 20wt.%. The content of the nanotube is about 80wt.%, and the atomic ratio of palladium, copper and tin in the alloy nanoparticle is 1:1:1.
[0052] The first step, pickling surface functionalization treatment of carbon nanotubes:
[0053] Place an appropriate amount of multi-walled carbon nanotubes with a diameter of 20nm in concentrated nitric acid with a concentration of 70%, magnetically stir and boil for 30min, filter, wash, and dry at 60°C;
[0054] The second step, the preparation of carbon nanotube supported palladium-copper-tin ternary alloy nanocatalyst:
[0055] A, palladium, copper, tin molar ratio is 1: 1: 1 palladium chloride, cupric sulfate, stannous chloride are added in the ethylene glycol, ultrasonic s...
example 3
[0061] A palladium-copper-tin ternary alloy nanocatalyst, the catalyst is a single-walled carbon nanotube as a carrier, and the supported alloy nanoparticle is an alloy of palladium, copper and tin, and the content of the alloy nanoparticle in the catalyst is about 50wt.%. The content of the nanotube is about 50wt.%, and the atomic ratio of palladium, copper and tin in the alloy nanoparticles is 1:1:1.
[0062] The first step, pickling surface functionalization treatment of carbon nanotubes:
[0063] Place an appropriate amount of single-walled carbon nanotubes with a diameter of 100nm in concentrated nitric acid with a concentration of 40%, magnetically stir and boil for 60min, filter, wash, and dry at 20°C;
[0064] The second step, the preparation of carbon nanotube supported palladium-copper-tin ternary alloy nanocatalyst:
[0065] A. Add palladium chloride, copper sulfate, and stannous chloride with palladium, copper, and tin molar ratios of 1:1:1 into ethylene glycol, a...
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