Precursor solution, porous anti-fouling interface, battery electrode, battery and preparation method
A technology of precursor solution and battery, which is applied in the fields of battery and preparation, precursor solution, porous anti-fouling interface, and battery electrode, and can solve problems such as enzyme shedding and biological pollution, and achieve improved enzyme fixation, high power output, and improved The effect of bioelectrocatalytic performance
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[0060] A method for preparing a high-power implanted biofuel cell with a porous antifouling interface provided by the present invention, the specific steps are as follows:
[0061] Coat the upper half of the carbon nanotube fiber with Dow Corning DC184 polydimethylsiloxane, and react in a blast oven at 85-95° C. for 1-2 hours to form a uniform insulating polydimethylsiloxane film. The remaining part without insulation treatment is subjected to cyclic voltammetry scanning in an ice-water bath and deoxygenated 2-aminoanthracene diazonium cation solution to obtain a carbon nanotube / 2-aminoanthracene composite fiber. Coating 15-30 μL of the precursor solution of the porous anti-fouling interface containing bilirubin oxidase on the carbon nanotube / 2-aminoanthracene composite fiber, and forming a porous anti-fouling interface after ultraviolet irradiation at room temperature to obtain a biopositive electrode;
[0062] The carbon nanotube fiber is immersed in a methylene blue solutio...
Embodiment 1
[0090] Preparation of porous antifouling interface. Add 0.05 g of polyvinyl alcohol into 10 mL of deionized water, stir and dissolve at 97°C to obtain a polyvinyl alcohol solution; add 0.05 g of poly(vinyl alcohol)-N-methyl -4(4'-formylstyryl)pyridinium methylsulfate acetal was mixed into deionized water with a volume of 1mL, stirred and dissolved to obtain poly(vinyl alcohol)-N-methyl-4(4'-formyl Styryl) pyridinium methylsulfate acetal mixed solution; enzyme (bilirubin oxidase or flavin adenine dinucleotide-dependent glucose dehydrogenase) with phosphate buffer solution or tris (hydroxymethyl) amino Methane buffer solution mixed to obtain 300U·mL -1 or 25U·mL -1 Enzyme solution; 0.7mL polyvinyl alcohol solution, 0.3mL poly(vinyl alcohol)-N-methyl-4(4'-formylstyryl)pyridinium methylsulfate acetal solution and 0.1mL The enzyme solution was mixed and stirred at room temperature to obtain the precursor solution of the porous antifouling interface. A precursor solution with a vo...
Embodiment 2
[0094] Preparation of porous antifouling interface. Add 0.07 g of polyvinyl alcohol into 14 mL of deionized water, stir and dissolve at 85°C to obtain a polyvinyl alcohol solution; add 0.06 g of poly(vinyl alcohol)-N-methyl -4(4'-formylstyryl)pyridinium methylsulfate acetal was mixed into deionized water with a volume of 1.5mL, stirred and dissolved to obtain poly(vinyl alcohol)-N-methyl-4(4'-methyl Acylstyryl)pyridinium methylsulfate acetal mixed solution; enzyme (bilirubin oxidase or flavin adenine dinucleotide-dependent glucose dehydrogenase) with phosphate buffer solution or tris(hydroxymethyl) Aminomethane buffer solution was mixed to obtain 250U·mL -1 or 20U·mL -1 Enzyme solution; mix 0.9mL of polyvinyl alcohol solution, 0.4mL of poly(vinyl alcohol)-N-methyl-4(4'-formylstyryl)pyridinium methylsulfate acetal solution and 0.15mL of The enzyme solution was mixed and stirred at room temperature to obtain the precursor solution of the porous antifouling interface. A precu...
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