Carbide self-supporting electro-catalysis electrode with waste plant fiber textile fabric as matrix and preparation method of carbide self-supporting electro-catalysis electrode
A plant fiber and carbide technology, applied in electrodes, electrolysis process, electrolysis components, etc., can solve the problems of difficult collection and high cost of carbon nanotubes
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[0039] image 3 It is a schematic flow chart of the preparation method of the electrocatalytic electrode in the embodiment of the present invention. Such as image 3 As shown, this embodiment provides a method for preparing a carbide self-supporting electrocatalytic electrode based on waste plant fiber textiles. In this embodiment, the plant fiber fabric is used as raw material, and a self-supporting high-performance transition metal carbide electrode without binder is produced in one step by "soaking-curing-baking". The method is simple and easy to operate, does not generate harmful substances in the process, and can prepare an electrocatalytic electrode with excellent performance in a green and environmentally friendly manner. The method for preparing an electrocatalytic electrode may comprise the steps of:
[0040] Step S1: Raw material preparation: raw material components by mass percentage, precursor powder 15-40%, waste plant fiber fabric 55-80%, phenolic resin 0-5%; ...
Embodiment 1
[0061] Step S1: raw material preparation: the raw material components are calculated by mass percentage, 15% of ammonium molybdate powder, 80% of waste plant fiber fabric, and 5% of phenolic resin.
[0062] Step S2: Pour the ammonium molybdate powder into 30ml of deionized water, and stir thoroughly to form a precursor solution in which ammonium molybdate is dissolved.
[0063] Step S3: Put the waste plant fiber fabric into the precursor solution, so that the waste plant fiber fabric is completely submerged in deionized water. The precursor was obtained after stirring at a constant speed with a magnetic stirring device for two hours; during this process, the waste plant fiber fabric could be fully loaded with ammonium molybdate.
[0064] Step S4: Put the precursor in an oven at 75° C. for 4 hours to completely cure the wet precursor to form a cured precursor. During this solidification process, the ammonium molybdate attached to the waste plant fiber fabric will be fixed on t...
Embodiment 2
[0067] Step S1: Raw material preparation: raw material components by mass percentage, ammonium molybdate powder 40%, waste plant fiber fabric 55%, phenolic resin 5%.
[0068] Step S2: Pour the ammonium molybdate powder into 30ml of deionized water, and stir thoroughly to form a precursor solution in which ammonium molybdate is dissolved.
[0069] Step S3: Putting waste plant fiber fabrics into the precursor solution, so that the plant fiber fabrics are completely submerged in deionized water. The precursor was obtained after stirring at a constant speed with a magnetic stirring device for 4 hours; during this process, the waste plant fiber fabric could be fully loaded with ammonium molybdate.
[0070] Step S4: Put the precursor in an oven at 110° C. for 2 hours to completely cure the wet precursor to form a cured precursor.
[0071] Step S5: Coating the phenolic resin on the cured precursor so that the cured precursor can be completely covered by the phenolic resin. The cure...
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