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Nemati, Rahim, Taghiabadi, Reza, Saghafi Yazdi, Morteza, Amini, Saeid. (1404). Corrosion behavior of ultrasonic impact treated Haynes 25 superalloy. , 58(1), 67-77. doi: 10.22059/jufgnsm.2025.01.07
Rahim Nemati; Reza Taghiabadi; Morteza Saghafi Yazdi; Saeid Amini. "Corrosion behavior of ultrasonic impact treated Haynes 25 superalloy". , 58, 1, 1404, 67-77. doi: 10.22059/jufgnsm.2025.01.07
Nemati, Rahim, Taghiabadi, Reza, Saghafi Yazdi, Morteza, Amini, Saeid. (1404). 'Corrosion behavior of ultrasonic impact treated Haynes 25 superalloy', , 58(1), pp. 67-77. doi: 10.22059/jufgnsm.2025.01.07
Nemati, Rahim, Taghiabadi, Reza, Saghafi Yazdi, Morteza, Amini, Saeid. Corrosion behavior of ultrasonic impact treated Haynes 25 superalloy. , 1404; 58(1): 67-77. doi: 10.22059/jufgnsm.2025.01.07

Corrosion behavior of ultrasonic impact treated Haynes 25 superalloy

Journal of Ultrafine Grained and Nanostructured Materials
دوره 58، شماره 1، شهریور 2025، صفحه 67-77    اصل مقاله (1.7 M)
نوع مقاله: Research Paper
شناسه دیجیتال (DOI): 10.22059/jufgnsm.2025.01.07
نویسندگان
Rahim Nemati1؛ Reza Taghiabadi* 1؛ Morteza Saghafi Yazdi1؛ Saeid Amini2
1Department of Materials Science and Engineering, Imam Khomeini International University, Qazvin, Iran
2Department of Manufacturing and Production, Faculty of Mechanical Engineering, University of Kashan, Kashan, Iran
چکیده
The effect of ultrasonic impact treatment (UIT) was studied on the microstructure and corrosion behavior of Haynes 25 superalloy. The UIT was performed at a frequency of 20 kHz, tool feeding rates of 0.08, 0.12, and 0.16 mm/rev, vibration amplitudes of 10, 28, and 50% of the machine power, static pressures of 0.1 and 0.9 bar at the different number of passes (one, two, three, five, and seven). According to the results, the UIT severely deformed the surface layers up to a depth of about 100 μm and promoted the emergence of deformation bands/strain-induced martensite (-phase) up to a depth of about 400 μm. The UIT also produced ultrafine grain structure in the surface region and due to the deformation inhomogeneity developed surface compressive residual stresses. The Tafel polarization tests indicated that applying one pass UIT at the static pressures of 0.1 and 0.9 bar reduced the corrosion current (from 4.16 A/cm2 to 1.3 A/cm2 and 2.18 A/cm2, respectively), and the corrosion potential (from -0.6 V to -0.7 V and -0.8 V, respectively). This behavior was found to be due to promotion of surface oxidation and formation of protective layer on the surface. Despite increasing the surface smoothness, further increasing the UIT pass number to seven, probably due to encouraging the formation of surface pits/microcracks increased the corrosion current and corrosion rate by about 45%. According to the electrochemical impedance tests, at the static pressure of 0.9 bar, the as-received and seven-pass UITed samples showed the lowest corrosion resistance whilst one-pass and two-pass UITed samples revealed the highest corrosion resistance. The effect of tool feeding rate on the corrosion resistance was found to be minor.
کلیدواژه‌ها
Haynes 25؛ Superalloy؛ Ultrasonic impact treatment؛ Severe plastic deformation؛ Corrosion
مراجع
 

  1. Mohanty CP, Chauhan AS. Exploring the machined surface characteristics of Haynes 25 superalloy: Cost mitigation and quality enhancement perspective. Surfaces and Interfaces. 2024;52:104912.
  2. Yuan Q, Zhao H, Xi T, Yang C, Hao W, Yang K. Cold deformation behavior and microstructure evolution of biomedical Cu-containing L605 alloy. Journal of Alloys and Compounds. 2024;984:174005.
  3. Catanio Bortolan C, Paternoster C, Turgeon S, Paoletti C, Cabibbo M, Lecis N, Mantovani D. Plasma-immersion ion implantation surface oxidation on a cobalt-chromium alloy for biomedical applications. Biointerphases. 2020;15(4).
  4. Mohammadzehi S, Mirzadeh H. Grain refinement of austenitic stainless steels by cross rolling and annealing treatment: A review. Journal of Ultrafine Grained and Nanostructured Materials. 2024;57(2):112-9.
  5. Yuan Y, Li R, Bi X, Yan M, Cheng J, Gu J. Review on numerical simulation of ultrasonic impact treatment (UIT): Present situation and prospect. Journal of Materials Research and Technology. 2024;30:1319-1340.
  6. Asgari M, Honarpisheh M, Mansouri H. Experimental and Numerical Investigation of Mechanical Properties in the Ultrasonic Assisted constraint groove pressing process of copper sheets. Journal of Ultrafine Grained and Nanostructured Materials. 2020;53(1);48-59.
  7. Cho IH, Song GH, Kim CS, Combs A, Park J, Suh CM, Park JH, Pyoun YS. Nano structured surface modification of tool steel and its beneficial effects in mechanical properties. Journal of mechanical science and technology. 2005;19:2151-2156.
  8. Zaporozhets OI, Mordyuk BN, Mykhailovskyi VA, Halkina AA, Dordienko MO, Burmak AP, Langi E, Zhao LG. Tailoring elastic, mechanical and texture properties of Cu-37Zn brass by ultrasonic impact treatment applied at ambient and cryogenic temperatures. Materials Today Communications. 2024 Mar 1;38:108325.
  9. Gu B, Yang Y, Wang Y, Lai J, Xu G, Gao L, Hu Y, Luo F. Study on the effects and mechanisms of ultrasonic impact treatment on impact toughness of Q345 steel welded joints. Engineering Fracture Mechanics. 2025;315:110754.
  10. Gu B, Wang Y, Gao L, Xu G, Liu L, Sun S. Effects of ultrasonic impact treatment on the tensile properties of DH36 steel welded joints. Engineering Fracture Mechanics. 2025;315:110798.
  11. Sebdani RM, Bilan HK, Gale JD, Wanni J, Madireddy G, Sealy MP, Achuthan A. Ultrasonic Impact Treatment (UIT) combined with powder bed fusion (PBF) process for precipitation hardened martensitic steels. Additive Manufacturing. 2024;84:104078.
  12. Kavyani M, Ebrahimi GR, Ezatpour HR, Jahazi M. Microstructure refinement, mechanical and biocorrosion properties of Mg–Zn–Ca–Mn alloy improved by a new severe plastic deformation process. Journal of Magnesium and Alloys. 2022;10(6):1640-62.
  13. Palumbo G, Thorpe SJ, Aust KT. On the contribution of triple junctions to the structure and properties of nanocrystalline materials. Scripta metallurgica et materialia. 1990;24(7):1347-1350.
  14. Splinter SJ, Rofagha R, McIntyre NS, Erb U. XPS characterization of the corrosion films formed on nanocrystalline Ni–P alloys in sulphuric acid. Surface and Interface Analysis: An International Journal devoted to the development and application of techniques for the analysis of surfaces, interfaces and thin films. 1996;24(3):181-186.
  15. Ralston KD, Birbilis N. Effect of grain size on corrosion: a review. Corrosion. 20101;66(7):075005.
  16. Lee S, White HS. Dissolution of the native oxide film on polycrystalline and single-crystal aluminum in NaCl solutions. Journal of The Electrochemical Society. 2004;151(8):B479.
  17. Petrov YN, Prokopenko GI, Mordyuk BN, Vasylyev MA, Voloshko SM, Skorodzievski VS, Filatova VS. Influence of microstructural modifications induced by ultrasonic impact treatment on hardening and corrosion behavior of wrought Co-Cr-Mo biomedical alloy. Materials Science and Engineering: C. 2016;58:1024-1035.
  18. Kim KT, Kim YS. The effect of the static load in the UNSM process on the corrosion properties of alloy 600. Materials. 2019;12(19):3165.
  19. Nemati R, Taghiabadi R, Yazdi MS, Amini S. Ultrasonic impact treatment of CoCrWNi superalloys for surface properties improvement. Materials Testing. 2025;67(2):372-385.
  20. Favre J. Recrystallization of L-605 cobalt superalloy during hot-working process (Doctoral dissertation, INSA de Lyon; Tōhoku Daigaku (Sendai, Japon)).
  21. Tao NR, Lu J, Lu K. Surface nanocrystallization by surface mechanical attrition treatment. Materials science forum. 2008;579;91-108.
  22. Luna-Manuel JC, Lagar-Quinto S, Ramirez-Ledesma AL, Juarez-Islas JA. Thermomechanical and annealing processing effect on a rapid solidified Co–20 wt.% Cr alloy. Journal of Physics: Conference Series 2021;1723(1):012002.
  23. Luo J, Wu S, Lu Y, Guo S, Yang Y, Zhao C, Lin J, Huang T, Lin J. The effect of 3 wt.% Cu addition on the microstructure, tribological property and corrosion resistance of CoCrW alloys fabricated by selective laser melting. Journal of Materials Science: Materials in Medicine. 2018;29:1-6.
  24. Zhu ZY, Meng L, Chen L. Strain-induced martensitic transformation in biomedical Co–Cr–W–Ni alloys. Rare Metals. 2020;39(3):241-249.
  25. Sembiring JP, Amanov A, Pyun YS. Artificial neural network-based prediction model of residual stress and hardness of nickel-based alloys for UNSM parameters optimization. Materials Today Communications. 2020;25:101391.
  26. Abbasi A, Amini S, Shikhzade G. Investigation of experimental and numerical simulation of residual stresses distribution of rolling mill rolls in ultrasonic peening technology. Modares Mechanical Engineering. 2017;17(7):316-324.
  27. Majidabad MA, Rezaei AR, Sabour MR, Faraji G. Mechanical properties and pitting corrosion behavior of Al5085 alloy processed via equal channel angular pressing (ECAP). Journal of Ultrafine Grained and Nanostructured Materials. 2023;1:9-14.
  28. Sohrabi MJ, Dehghanian C, Mirzadeh H. Corrosion behavior of cold rolled and continuously heated SUS 304L stainless steel. Journal of Ultrafine Grained and Nanostructured Materials. 2024;57(1):19-27.
  29. Chaudhari GP. Corrosion of nanostructured and ultrafine-grained metallic implant materials. Materials Technology. 2016 Nov 9;31(13):812-7.
  30. Li ZX, Zhang LM, Udoh II, Ma AL, Zheng YG. Deformation-induced martensite in 304 stainless steel during cavitation erosion: Effect on passive film stability and the interaction between cavitation erosion and corrosion. Tribology International. 2022;167:107422.
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