Electrodeposition and characterization of zinc–nickel–iron alloy from sulfate bath: influence of plating bath temperature

Abou–Krisha, Mortaga M.; Assaf, F. H.; El-Naby, S. A.

doi:10.1007/s10008-008-0620-5

Cited by 23 publications

(10 citation statements)

References 22 publications

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“…This behavior could be attributed to the additional phase (γ -Ni 5 Zn 21 ) in the composite matrix. [19,20] It should be added that corrosion parameters determined for the cadmium electrode clearly suggest that the annealed Zn-Ni-P+Ni composite coatings exhibit better corrosion resistance.…”

Section: Polarization Curvesmentioning

confidence: 99%

Corrosion resistance of ZnNiP+Ni composite coatings

Kubisztal¹,

Niedbała²,

Budniok³

2010

Surface & Interface Analysis

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Zn-Ni-P+Ni composite coatings were prepared by embedding nickel particles into Zn-Ni-P alloy using ammonia solution in which Ni powder was suspended by stirring. Such coatings have been deposited on a 0H18N9 stainless steel substrate under galvanostatic conditions (j = −40 mA cm −2 ), and at a temperature of 293 K. In order to investigate corrosion properties of the as-deposited and annealed (593 K for 2 h in argon atmosphere) Zn-Ni-P+Ni composite coatings in 5% NaCl environment potentiodynamic technique and electrochemical impedance spectroscopy (EIS) were used. It was stated that thermal treatment strongly improved the corrosion parameters of the examined Zn-Ni-P+Ni composite coatings, and also that better corrosion properties result from i) improved corrosion properties of the oxide layer; and ii) the presence of new γ Ni 5 Zn 21 phase in composite matrix.

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Section: Polarization Curvesmentioning

confidence: 99%

Corrosion resistance of ZnNiP+Ni composite coatings

Kubisztal¹,

Niedbała²,

Budniok³

2010

Surface & Interface Analysis

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“…Corrosion resistance followed the opposite trend (PRC offering the best). Abou-Krisha et al 6 studied the electrodeposition of Zn-Ni-Fe in an acidic sulphate bath, making comparison to Zn-Fe. A marked inhibition of Ni and Fe deposition was found in the presence of Zn 2z ions.…”

Section: Applications Corrosion Resistance Including CD Replacementmentioning

confidence: 99%

Recent trends in metal alloy electrolytic and electroless plating research: a review

Larson¹,

Smith

2011

Transactions of the IMF

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A short review of the recent electrolytic and electroless plating research trends for a variety of metal alloys deposited to improve corrosion resistance, wear characteristics and hardness, magnetic behaviour, catalytic properties and for other application areas, is presented. The review contains key references from the period 2008 to the present (mid 2011), although it is not exhaustive. One finding is that most of the studies highlighted appear to be focused on one or more application areas, rather than being mechanistic deposition process studies. In addition, applications other than corrosion and wear resistance seem to have inspired significantly more effort than hitherto.

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“…Hence, Zn alloy coatings, particularly Zn-Ni and Zn-Fe coatings are largely used for enhanced anti-corrosive performance and high mechanical strength [2][3][4]. It has been also shown that co-deposition of Fe with Zn-Ni alloy to form ZnNiFe co-deposit further enhances the corrosion resistance, mechanical strength and coating surface uniformity [5][6][7].…”

Section: Introductionmentioning

confidence: 99%

Effect of graphene addition on composition, morphology and corrosion behavior of ZnNiFe-graphene composite coatings

Kumar

Ray

Srivastava

2020

Diamond and Related Materials

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Graphene reinforced, Zn-rich, Zinc-Nickel-Iron (ZnNiFe-G) coatings were deposited on mild steel substrate by electrolyzing the Zn-Ni-Fe acidic sulphate bath containing different amounts of dispersed graphene layers. Effect of graphene incorporation on composition, microstructure, morphology and electrochemical corrosion performance of coatings was investigated. X-ray diffraction studies revealed ZnNiFe coatings consists η Zn, γ Ni2Zn11 and Fe phases but the concentration of γ Ni2Zn11 phase increased with increasing graphene content in the coating.

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Electrodeposition and characterization of zinc–nickel–iron alloy from sulfate bath: influence of plating bath temperature

Cited by 23 publications

References 22 publications

Corrosion resistance of ZnNiP+Ni composite coatings

Corrosion resistance of ZnNiP+Ni composite coatings

Recent trends in metal alloy electrolytic and electroless plating research: a review

Effect of graphene addition on composition, morphology and corrosion behavior of ZnNiFe-graphene composite coatings

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