Features of hydrogen evolution during electrodeposition of loose deposits of copper, nickel and zinc

Features of hydrogen evolution during electrodeposition of dendritic copper, zinc and nickel deposits were studied in the present paper. Data on the changes in hydrogen current density and its differential current efficiency as well as porosity of copper, zinc and nickel deposits during electrolysis...

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Veröffentlicht in:Journal of electroanalytical chemistry (Lausanne, Switzerland) Switzerland), 2020-08, Vol.870, p.114230, Article 114230
Hauptverfasser: Nikitin, V.S., Ostanina, T.N., Rudoi, V.M., Kuloshvili, T.S., Darintseva, A.B.
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container_title Journal of electroanalytical chemistry (Lausanne, Switzerland)
container_volume 870
creator Nikitin, V.S.
Ostanina, T.N.
Rudoi, V.M.
Kuloshvili, T.S.
Darintseva, A.B.
description Features of hydrogen evolution during electrodeposition of dendritic copper, zinc and nickel deposits were studied in the present paper. Data on the changes in hydrogen current density and its differential current efficiency as well as porosity of copper, zinc and nickel deposits during electrolysis were obtained. It was shown that the potential during the formation of dendritic metal deposits is determined by the kinetic parameters of hydrogen reduction. Experimental data (the change in the electrode potential during electrodeposition and volume of evolved hydrogen) and hydrogen evolution kinetic parameters allowed to calculate the surface area available for hydrogen evolution during electrodeposition of loose metals. It was found that surface area available for hydrogen evolution increases during electrodeposition of loose metal under galvanostatic conditions. Morphology of dendrite particles and deposit growth rate are determined by metal nature, but properties of loose deposits (change in porosity along the deposit thickness) depend on the intensity of hydrogen evolution during electrolysis. •Porosity of dendritic Zn, Cu and Ni deposits decreases along its thickness•Kinetics of hydrogen evolution determines the potential at loose deposits formation•The surface available for hydrogen evolution is much lower than that of loose deposit•The intensity of hydrogen evolution determines porosity of dendritic metal deposits
doi_str_mv 10.1016/j.jelechem.2020.114230
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Data on the changes in hydrogen current density and its differential current efficiency as well as porosity of copper, zinc and nickel deposits during electrolysis were obtained. It was shown that the potential during the formation of dendritic metal deposits is determined by the kinetic parameters of hydrogen reduction. Experimental data (the change in the electrode potential during electrodeposition and volume of evolved hydrogen) and hydrogen evolution kinetic parameters allowed to calculate the surface area available for hydrogen evolution during electrodeposition of loose metals. It was found that surface area available for hydrogen evolution increases during electrodeposition of loose metal under galvanostatic conditions. 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Data on the changes in hydrogen current density and its differential current efficiency as well as porosity of copper, zinc and nickel deposits during electrolysis were obtained. It was shown that the potential during the formation of dendritic metal deposits is determined by the kinetic parameters of hydrogen reduction. Experimental data (the change in the electrode potential during electrodeposition and volume of evolved hydrogen) and hydrogen evolution kinetic parameters allowed to calculate the surface area available for hydrogen evolution during electrodeposition of loose metals. It was found that surface area available for hydrogen evolution increases during electrodeposition of loose metal under galvanostatic conditions. 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source Elsevier ScienceDirect Journals
subjects Copper
Current efficiency
Dendritic deposits
Dendritic structure
Deposits
Electrodeposition
Electrolysis
Hydrogen
Hydrogen evolution
Hydrogen reduction
Morphology
Nickel
Parameters
Porosity
Surface area
Zinc
title Features of hydrogen evolution during electrodeposition of loose deposits of copper, nickel and zinc
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