One-step synthesis of the hydrophobic conical Co-Fe structures-the comparison of their active areas and electrocatalytic properties

•Conical Co-Fe alloys can be modified with an applied magnetic field.•Conical Co-Fe structures allows the increase in catalytic properties of the coating.•The determined development of the modified surface depends on the used method. Enhancement of the surface of the catalyst is desirable in the int...

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Veröffentlicht in:Electrochimica acta 2022-05, Vol.415, p.140127, Article 140127
Hauptverfasser: Skibińska, Katarzyna, Kornaus, Kamil, Yang, Xuegeng, Kutyła, Dawid, Wojnicki, Marek, Żabiński, Piotr
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container_start_page 140127
container_title Electrochimica acta
container_volume 415
creator Skibińska, Katarzyna
Kornaus, Kamil
Yang, Xuegeng
Kutyła, Dawid
Wojnicki, Marek
Żabiński, Piotr
description •Conical Co-Fe alloys can be modified with an applied magnetic field.•Conical Co-Fe structures allows the increase in catalytic properties of the coating.•The determined development of the modified surface depends on the used method. Enhancement of the surface of the catalyst is desirable in the interest of mass transport maximizing. However, without a well-defined method of determination of its active surface, catalyst deposited with different conditions cannot be accurately compared. In this work, Co-Fe alloy cones were synthesized from the electrolyte containing ammonium chloride as a crystal modifier. It controls the direction of the deposit growth, and consequently, develops the active surface area. Moreover, the influence of the direction of the applied magnetic field on the ferromagnetic Co-Fe alloy was investigated. It affected noticeably the morphology and composition of layers and therefore, the catalytic activity of the samples in the Hydrogen Evolution Reaction (HER). Linear Sweep Voltammetry (LSV) measurements were used to test the catalytic activity in 1 M NaOH electrolyte. The expected development of the real active surface area was determined using two different methods: Brunauer-Emmett-Teller (BET) and Helmholtz Double-Layer Capacitance (DLC). Results show that no specific value of the sample surface multiplication can be found based on these methods. All conical structures were hydrophobic.
doi_str_mv 10.1016/j.electacta.2022.140127
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Enhancement of the surface of the catalyst is desirable in the interest of mass transport maximizing. However, without a well-defined method of determination of its active surface, catalyst deposited with different conditions cannot be accurately compared. In this work, Co-Fe alloy cones were synthesized from the electrolyte containing ammonium chloride as a crystal modifier. It controls the direction of the deposit growth, and consequently, develops the active surface area. Moreover, the influence of the direction of the applied magnetic field on the ferromagnetic Co-Fe alloy was investigated. It affected noticeably the morphology and composition of layers and therefore, the catalytic activity of the samples in the Hydrogen Evolution Reaction (HER). Linear Sweep Voltammetry (LSV) measurements were used to test the catalytic activity in 1 M NaOH electrolyte. The expected development of the real active surface area was determined using two different methods: Brunauer-Emmett-Teller (BET) and Helmholtz Double-Layer Capacitance (DLC). Results show that no specific value of the sample surface multiplication can be found based on these methods. 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The expected development of the real active surface area was determined using two different methods: Brunauer-Emmett-Teller (BET) and Helmholtz Double-Layer Capacitance (DLC). Results show that no specific value of the sample surface multiplication can be found based on these methods. 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Enhancement of the surface of the catalyst is desirable in the interest of mass transport maximizing. However, without a well-defined method of determination of its active surface, catalyst deposited with different conditions cannot be accurately compared. In this work, Co-Fe alloy cones were synthesized from the electrolyte containing ammonium chloride as a crystal modifier. It controls the direction of the deposit growth, and consequently, develops the active surface area. Moreover, the influence of the direction of the applied magnetic field on the ferromagnetic Co-Fe alloy was investigated. It affected noticeably the morphology and composition of layers and therefore, the catalytic activity of the samples in the Hydrogen Evolution Reaction (HER). Linear Sweep Voltammetry (LSV) measurements were used to test the catalytic activity in 1 M NaOH electrolyte. 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subjects Active surface area
Ammonium chloride
Catalysts
Catalytic activity
Co-Fe cones
Cobalt base alloys
Cones
Conical bodies
Crystal modifier
Electrolytes
Ferromagnetism
Hydrogen evolution reaction
Hydrogen evolution reactions
Hydrophobicity
Iron
Magnetic field
Mass transport
Multiplication
Surface area
title One-step synthesis of the hydrophobic conical Co-Fe structures-the comparison of their active areas and electrocatalytic properties
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