Preparation method of poly(2-phenylindole) supported catalyst electrode of fuel cell
A technology for supporting catalysts and phenylindole, applied in battery electrodes, circuits, electrical components, etc., can solve the problems of deactivation of the electrochemical activity of conductive polymers and limiting the use range of catalyst carriers
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Embodiment 1
[0018] Dissolve 0.19g of 2-phenylindole in 100mL of a mixed solution of boron trifluoride diethyl ether and diethyl ether to prepare an electrochemical solution with a molar concentration of 10mmol / L. Put the prepared electrochemical solution into the electrochemical reaction device. The device uses the matrix material carbon as the working electrode, platinum as the counter electrode, and Ag / AgCl as the reference electrode. Nitrogen is passed through the solution for 20 minutes to remove the solution. Dissolved oxygen in the medium; the constant potential method is adopted, the control potential is 0.5V (relative to the saturated calomel electrode), and the polymerization power is 65mC / cm 2 , electrodeposited poly(2-phenylindole) layers on carbon matrix materials. Using poly(2-phenylindole) modified carbon matrix material as working electrode, insert 3mmol / LH 2 PtCl 6 In an aqueous solution of +0.1mol / L KCl, under the protection of nitrogen, use a constant potential method ...
Embodiment 2
[0020] Dissolve 0.58g of 2-phenylindole in 100mL of a mixed solution of boron trifluoride diethyl ether and diethyl ether to prepare an electrochemical solution with a molar concentration of 30mmol / L. Put the prepared electrochemical solution into the electrochemical reaction device. The device uses copper matrix material as the working electrode, platinum as the counter electrode, and Ag / AgCl as the reference electrode. Nitrogen gas is passed into the solution for 20 minutes to remove the solution. Dissolved oxygen in the medium; using the constant potential method, the control potential is 1.0V (relative to the saturated calomel electrode), and the polymerization power is 70mC / cm 2 , electrodeposited a poly(2-phenylindole) layer on a copper matrix material. The copper matrix material modified by poly(2-phenylindole) was used as the working electrode, and 3mmol / LH 2 PtCl 6 In an aqueous solution of +0.1mol / L KCl, under the protection of nitrogen, use cyclic voltammetry (-0....
Embodiment 3
[0022] Dissolve 0.95g of 2-phenylindole in 100mL of a mixed solution of boron trifluoride ether and ether to prepare an electrochemical solution with a molar concentration of 50mmol / L. Put the prepared electrochemical solution into the electrochemical reaction device. The device uses iron matrix material as the working electrode, platinum as the counter electrode, and Ag / AgCl as the reference electrode. Nitrogen gas is passed into the solution for 20 minutes to remove the solution. Dissolved oxygen in the medium; using the constant potential method, the control potential is 1.5V (relative to the saturated calomel electrode), and the polymerization power is 75mC / cm 2 , electrodeposited poly(2-phenylindole) layers on iron matrix materials. Using poly(2-phenylindole) modified iron matrix material as working electrode, put 3mmol / LH 2 AuCl 6 In an aqueous solution of +0.1mol / L KCl, under the protection of nitrogen, use the constant potential method (-0.2V, relative to a saturated...
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