The formation, microstructure and hot corrosion behaviour of slurry aluminide coating modified by Ni/Ni-Co electrodeposited layer on Ni-base superalloy

In this research, microstructure and hot corrosion behaviour of a modified aluminide coating were studied. The coating was formed via a two-step process, Ni/Ni-Co electrodeposition on Ni-base superalloy, Hastelloy-X, followed by slurry aluminising. The obtained coatings with 140 ± 5 μm thickness wer...

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Published inSurface & coatings technology Vol. 402; p. 126283
Main Authors Masoumi Balashadehi, M., Nourpour, P., Sabour Rouh Aghdam, A., Allahyarzadeh, M.H., Heydarzadeh, A., Hamdi, M.
Format Journal Article
LanguageEnglish
Published Lausanne Elsevier B.V 25.11.2020
Elsevier BV
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Abstract In this research, microstructure and hot corrosion behaviour of a modified aluminide coating were studied. The coating was formed via a two-step process, Ni/Ni-Co electrodeposition on Ni-base superalloy, Hastelloy-X, followed by slurry aluminising. The obtained coatings with 140 ± 5 μm thickness were characterised by an X-ray diffractometer (XRD) and scanning electron microscope (SEM) equipped with energy-dispersive X-ray spectroscope (EDS) and elemental mapping before and after the corrosion tests. The results showed the β-NiAl for simple and pure Ni pre-plated, and the β-(Ni,Co)Al for NiCo pre-plated aluminised samples were formed definitely as a predominant phase. The initial electrodeposited layer performed as a Ni reservoir to reinforce aluminide formation. Besides, it reduced outward diffusion of alloying elements such as Cr, Fe, and Mo from substrate alloy as a diffusion retardant. Accordingly, the chemical composition of substrate alloy in pre-plated samples remained almost constant rather than its simple aluminised counterpart during the diffusion coating process. After the hot corrosion test carried out in the salt mixture of Na2SO4/NaCl environment, the results indicated that the presence of Co was beneficial and improved corrosion resistance of the obtained coating even in the Cl-containing salt mixture. [Display omitted] •The efficient technique of the electrodeposition was used as one of coating steps.•The deposited layer was performed as a diffusion retardant for alloying elements.•The corrosion resistance of coating was improved even in Cl-containing environment.
AbstractList In this research, microstructure and hot corrosion behaviour of a modified aluminide coating were studied. The coating was formed via a two-step process, Ni/Ni-Co electrodeposition on Ni-base superalloy, Hastelloy-X, followed by slurry aluminising. The obtained coatings with 140 ± 5 μm thickness were characterised by an X-ray diffractometer (XRD) and scanning electron microscope (SEM) equipped with energy-dispersive X-ray spectroscope (EDS) and elemental mapping before and after the corrosion tests. The results showed the β-NiAl for simple and pure Ni pre-plated, and the β-(Ni,Co)Al for Nisingle bondCo pre-plated aluminised samples were formed definitely as a predominant phase. The initial electrodeposited layer performed as a Ni reservoir to reinforce aluminide formation. Besides, it reduced outward diffusion of alloying elements such as Cr, Fe, and Mo from substrate alloy as a diffusion retardant. Accordingly, the chemical composition of substrate alloy in pre-plated samples remained almost constant rather than its simple aluminised counterpart during the diffusion coating process. After the hot corrosion test carried out in the salt mixture of Na2SO4/NaCl environment, the results indicated that the presence of Co was beneficial and improved corrosion resistance of the obtained coating even in the Cl-containing salt mixture.
In this research, microstructure and hot corrosion behaviour of a modified aluminide coating were studied. The coating was formed via a two-step process, Ni/Ni-Co electrodeposition on Ni-base superalloy, Hastelloy-X, followed by slurry aluminising. The obtained coatings with 140 ± 5 μm thickness were characterised by an X-ray diffractometer (XRD) and scanning electron microscope (SEM) equipped with energy-dispersive X-ray spectroscope (EDS) and elemental mapping before and after the corrosion tests. The results showed the β-NiAl for simple and pure Ni pre-plated, and the β-(Ni,Co)Al for NiCo pre-plated aluminised samples were formed definitely as a predominant phase. The initial electrodeposited layer performed as a Ni reservoir to reinforce aluminide formation. Besides, it reduced outward diffusion of alloying elements such as Cr, Fe, and Mo from substrate alloy as a diffusion retardant. Accordingly, the chemical composition of substrate alloy in pre-plated samples remained almost constant rather than its simple aluminised counterpart during the diffusion coating process. After the hot corrosion test carried out in the salt mixture of Na2SO4/NaCl environment, the results indicated that the presence of Co was beneficial and improved corrosion resistance of the obtained coating even in the Cl-containing salt mixture. [Display omitted] •The efficient technique of the electrodeposition was used as one of coating steps.•The deposited layer was performed as a diffusion retardant for alloying elements.•The corrosion resistance of coating was improved even in Cl-containing environment.
ArticleNumber 126283
Author Nourpour, P.
Heydarzadeh, A.
Allahyarzadeh, M.H.
Masoumi Balashadehi, M.
Sabour Rouh Aghdam, A.
Hamdi, M.
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Keywords Electrodeposition
Aluminide coating
Hastelloy-X
Hot corrosion
Cobalt
Slurry
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Snippet In this research, microstructure and hot corrosion behaviour of a modified aluminide coating were studied. The coating was formed via a two-step process,...
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StartPage 126283
SubjectTerms Alloying elements
Aluminide coating
Aluminum
Chemical composition
Chromium
Coated electrodes
Cobalt
Corrosion resistance
Corrosion tests
Diffusion coating
Electrodeposition
Hastelloy (trademark)
Hastelloy-X
Hot corrosion
Intermetallic compounds
Microstructure
Molybdenum
Nickel aluminides
Nickel base alloys
Nickel compounds
Protective coatings
Slurries
Slurry
Sodium sulfate
Substrates
Superalloys
Title The formation, microstructure and hot corrosion behaviour of slurry aluminide coating modified by Ni/Ni-Co electrodeposited layer on Ni-base superalloy
URI https://dx.doi.org/10.1016/j.surfcoat.2020.126283
https://www.proquest.com/docview/2486550688
Volume 402
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