Abstract
Magnetron sputtering using aluminium as a target material was employed on Fe–Ni–Cr containing austenitic Alloy 800 substrates. Electron microscopic examination with elemental analysis on magnetron-sputtered substrates indicated formation of ~1.0 µm thick oxygen-rich Al–Fe–Ni–Cr containing layer just below the uppermost aluminium-rich deposited layer. Magnetron-sputtered + thermally–treated (1273 K for 18 h) substrates revealed formation of thin (~5 µm) aluminide layers at the upper surface comprising primarily Fe–Al rich layer with adjoining layers of Fe–Ni-Cr–Al type followed by Ni–Al rich layer. Thin multilayered alloy substrate exhibited microhardness value of ~405 (±15) Vickers hardness number (VHN) while for alloy substrate, that was recorded as 310 (±10) VHN. The scratch test conducted on thin multilayered alloy substrate in the load range of 1–10 N indicated friction coefficient and penetration depth of ~0.1 and 11 µm, respectively. A good adherence was recorded for thin layers as no peeling off was noticed, which was confirmed by acoustic emission signals. The exposure of magnetron-sputtered + thermally treated alloy substrates to 70% K2SO4 + 30% KCl salts at 973 K in air revealed retention of surface oxide predominantly composed of Al–Fe–Cr–Ni type oxide layer indicating its good resistance to aggressive environment.
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References
Goward GW (1998) Progress in coatings for gas turbine airfoils. Surf Coat Technol 108–109:73–79
Sunder RR, Baligidad RG, Prasad YVRK, Sastry DH (1998) Processing of iron aluminides. Mater Sci Eng, A 258:219–228
Stoloff NS (1998) Iron aluminides: present status and future prospects. Mater Sci Eng, A 258:1–14
Houngniou C, Chevalier S, Larpin JP (2004) Synthesis and characterisation of pack cemented aluminide coatings on metals. Appl Surf Sci 236(1):256–269
Dutta RS, Majumdar S, Laik A, Singh K, Kulkarni UD, Sharma IG, Dey GK (2011) Formation and characterization of aluminide coatings on alloy 800 substrate. Surf CoatS Technol 205(19):4720–4725
Dutta RS, Singh K, Vishwanadh B, Dey GK (2017) Aluminide formation on Alloy 800 by plasma spraying and heat treatment. Mater Manuf Process 32(16):1845–1850
Deevi SC, Sikka VK (1996) Nickel and iron aluminides: an overview on properties, processing and applications. Intermetallics 4:357–375
Checchetto R, Tocello C, Miotello A, Principi G (2001) Structural evolution of Fe–Al multilayer thin films for different annealing temperatures. J Phys: Condens Matter 13:811–821
Xia J, Li CX, Dong H (2005) Thermal oxidation treatment of B2 iron aluminide for improved wear resistance. Wear 258:1804–1812
Chen Y, Wang HM (2006) Microstructure and wear resistance of laser-melted TiC reinforced nickel aluminide dual-phase matrix in situ composite. Intermetallics 14(3):325–331
Li D, Xu Y, Lin D (2001) Oxidation behavior of FeAl alloys with and without titanium. J Mater Sci 36:979–983
Tacikowski M, Sitek R, Sikorski K, Wierzchoń T (2009) Structure of Al–Ni intermetallic composite layers produced on the Inconel 600 by the glow discharge enhanced-PACVD method. Intermetallics 17(12):1098–1104
Kamal S, Jayaganthan R, Prakash S (2010) Hot corrosion behaviour of D-gun sprayed NiCoCrAlYTa coated superalloys at 900 ℃ in molten salt environment. Surf Eng 26:453–462
Mahesh RA, Jayaganthan R, Prakash S (2010) Evaluation of hot corrosion behaviour of HVOF sprayed Ni–5Al and NiCrAl coatings in coal fired boiler environment. Surf Eng 26(6):413–421
Klöwer J, Brill U, Heubner U (1999) High temperature corrosion behaviour of nickel aluminides: effects of chromium and zirconium. Intermetallics 7(10):1183–1194
Cho H, Lee BW (2015) High temperature stability of aluminide-coated Inconel 617. Modern Phy Lett B 29(6&7):1–5)
Bateni MR, Shaw S, Wei P, Petric P (2009) Deposition of Fe–Al intermetallic coatings on solid oxide fuel cell (SOFC) interconnects by pack cementation. Mat Manuf Proc 24(6):626–632
Thirumalaikumarasamy D, Shanmugam K, Balasubramanian V (2012) Effect of atmospheric plasma spraying parameters on porosity level of alumina coatings. Surf Eng 28(10):759–766
Thiyagarajan TK, Anantha padmanabhan PV, Sreekumar KP, Chakravarthy Y, Das AK, Gantayet LM, Selvan B, Ramachandran K (2012) Experimental and simulation approach to plasma spray deposition of yttrium oxide. Surf Eng 28(9):646–656
Karaoglanli1 AC, Turk A, Ozdemir I, Ustel F (2015) Comparison of oxidation and thermal shock performance of thermal barrier coatings. Mat Manuf Proc 30(6):717–723
Chen QY, Li CX, Zhao JZ, Yang GJ, Li CJ (2016) Microstructure of YSZ coatings deposited by PS-PVD using 45 kW shrouded plasma torch. Mat Manuf Proc 31(9):1183–1191
Stanciu EM, Pascu A, Ţierean MH, Voiculescu I, Roată IC, Croitoru C, Hulka I (2016) Dual Coating Laser Cladding of NiCrBSi and Inconel 718. Mat Manuf Proc 31(12):1556–1564
Murtaza Q, Pandey SM, Niranjan SM (2016) A novel manufacturing route for automobile parts through two-wire-arc thermal spray process. Mat Manuf Proc 31(11):1424–1432
Dhineshkumar SR, Duraiselvam MM, Natarajan S, Panwar SS, Jana T, Khan MA (2017) Effect of laser glazing on the thermo-mechanical properties of plasma-sprayed LaTi2Al9O19 thermal barrier coatings. Mat Manuf Proc 32(14):1573–1580
Vinoth E, Gowrishankar S, Gopalakrishnan N (2017) RF magnetron sputtered Cd doped ZnO thin films for gas-sensing applications. Mat Manuf Proc 32(4):377–382
Ashja M, Verdian MM (2017) Al–Cu–Fe coatings manufactured by the flame spraying process. Mat Manu Proc 32(4):383–388
Ghadai RK, Kalita K, Mondal SC, Swain BP (2018) PECVD process parameter optimization: towards increased hardness of diamond-like carbon thin films. Mat Manu Proc 33(16):1905–1913
Vetrivendan E, Madhura B, Rao CJ, Ningshen S (2019) Pack cemented silicon carbide interlayer for plasma sprayed yttria over graphite. Mat Manu Proc34(6):681–688
Goud V, Ramasamy A, Das A, Kalyanasundaram D (2019) Box-Behnken technique based multi-parametric optimization of electrostatic spray coating in the manufacturing of thermoplastic composites. Mat Manu Proc 34(14): 1638–1645
Special Metals, Alloy 800, Retrieved from www.specialmetals.com
Dutta RS (2009) Corrosion aspects of Ni–Cr–Fe based and Ni–Cu based steam generator tube materials. J Nuclear Mat 393(2):343–349
Miller DM, Kung SC, Scarberry SD, Rapp RA (1988) Simultaneous Chromizing-Aluminizing Coating of Austenitic Stainless Steels. Oxidation of Metals 29(3):239–254
Haanappel VAC, Geerdink B, Fransen T, Gellings PJ (1991) The corrosion and mechanical behaviours of aluminide, FeCrA1Y and CoCrA1Y coatings in aggressive environments. Mat Sci Engi A 148(1):131–139
Vokál V, Rohr V, Pomeroy MJ, Schütze M (2008) Corrosion of alloys and their diffusion aluminide coatings by KCl: K2SO4 deposits at 650 ℃ in air. Mat Corr 59(5):374–379
Kattner UR, Burton BP (1993) In: Okamoto H (ed) Phase Diagrams of Binary Iron Alloys. ASM International, Materials Park, OH, pp 12–28
Okamoto H (1993) J Phase Equlibria 14(2):257–259
Murray JL (1998) J Phase Equlibria 19(4):368–375
Dutta RS, Arya A, Yusufali C, Vishwanadh B, Tewari R, Dey GK (2013) Formation of aluminides on Ni-based superalloy 690 substrate, their characterization and first-principle Ni(111)/NiAl(110) interface simulations. Surf Coat Technol 235:741–747
Kumar S, Selvarajan V, Padmanabhan PVA, Sreekumar KP (2006) Characterization and comparison between ball milled and plasma processed iron-aluminium thermal spray coatings. Surf Coatings Tech 201(3–4):1267–1275
Acknowledgements
The authors wish to thank AD, Materials Group, Head, MSD, and Head, MP&CED, Bhabha Atomic Research Centre, Trombay, Mumbai, India, for their supports during this work.
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The work was funded by DAE, Government of India.
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Dutta, R.S., Mishra, P., Singh, V., Singh, K. (2021). Development of Thin Aluminide Coatings on Alloy 800 Substrate. In: Ghosal, P., Carter, C.B., Vinothkumar, K.R., Sarkar, R. (eds) Applications of Microscopy in Materials and Life Sciences. Springer Proceedings in Materials, vol 11. Springer, Singapore. https://doi.org/10.1007/978-981-16-2982-2_2
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