Dynamic deformation and microstructural characteristics of AA5083 under the influence of electrochemical behaviour using equal channel angular pressing

Open Access

Year : 2024 | Volume : | : | Page : –
By

    Nagendra Singh

  1. Manoj Kumar Agrawal

  1. Research Scholar, Department of Mechanical Engineering, GLA University, Mathura, Uttar Pradesh, India
  2. Associate Professor, Department of Mechanical Engineering, GLA University, Mathura, Uttar Pradesh, India

Abstract

Large-scale Equal channel angular pressing is a great engineering material that has more potential for AA5083 industrial applications. Uniaxial dynamic compressive tests across a temperature of 448 K were conducted for the ECAP technique AA5083 in order to create such a design framework. The microstructure was described using transmission electron microscopy and scanning electron microscope both before and after dynamic loading. The plastic flow behaviour of the AA5083 was described by a novel dynamic constitutive model that was built based on the experimental results. A particle swarm optimization method was used to determine the impacts of plastic strain, temperature and strain rate on the new model’s input parameters. The strong agreement between model predictions and experimental findings suggests that the predictive constitutive model used today is very good at simulating the behaviour of dynamic deformation the large-scale ECAP method AA5083. The surface characteristics of the alloy were investigated using electrochemical impedance spectroscopy in the sodium chloride solution. The acquisition of the corrosion performance, scanning electron microscopy and Raman spectroscopy were performed. As the pass number rises, the alloy’s microhardness and tensile strength get better. In ECAP technique the alloy’s wear characteristics significantly improved along with its hardness and tensile strength. The AA5083 is taken into account in the current investigation both before and after equal channel angular pressing. Comparing the material’s fracture locus with the initial material, the ECAP method revealed somewhat higher equivalent strain to fracture values.

Keywords: AA5083; Dynamic Response; ECAP; Thermal Activation; Raman Spectroscopy; Plasticity Methods; Plasticity Fracture.

How to cite this article: Nagendra Singh, Manoj Kumar Agrawal.Dynamic deformation and microstructural characteristics of AA5083 under the influence of electrochemical behaviour using equal channel angular pressing.Journal of Polymer and Composites.2024; ():-.
How to cite this URL: Nagendra Singh, Manoj Kumar Agrawal , Dynamic deformation and microstructural characteristics of AA5083 under the influence of electrochemical behaviour using equal channel angular pressing jopc 2024 {cited 2024 Apr 16};:-. Available from: https://journals.stmjournals.com/jopc/article=2024/view=143560

Full Text PDF Download

References

  1. Hosseini SA, Ranjbar K, Dehmolaei R, et al. Fabrication of Al5083 surface composites reinforced by CNTs and cerium oxide nano particles via friction stir processing. J Alloys Compd 2015;622:725–33.
  2. Dai Q-S, Deng Y-L, Tang J-G, et al. Deformation characteristics and strain-compensated constitutive equation for AA5083 aluminum alloy under hot compression. Trans Nonferrous Met Soc China 2019;29(11):2252–61.
  3. Singh, Nagendra, and Manoj Kumar Agrawal. “Effect of ECAP process on deformability, microstructure and conductivity of AA5083 under thermal effect.” MATEC Web of Conferences. Vol. 392. EDP Sciences, 2024.
  4. Segal V, Reznikov SV, Murching N, et al. Semi-continuous equal channel angular extrusion and rolling of AA5083 and AZ31 alloys. Metals 2019;9(10):1035.
  5. Huarte B, Luis CJ, Puertas I, et al. Optical and mechanical properties of an Al–Mg alloy processed by ECAE. J Mater Process Technol 2005;162-163:317–26.
  6. Singh, Nagendra, and Manoj Kumar Agrawal. “The effect of tooling design and properties of materials on fracture and deformation through equal channel angular pressing technique.” MATEC Web of Conferences. Vol. 392. EDP Sciences, 2024.
  7. Fakhar N, Fereshteh-saniee F, Mahmudi R. Significant improvements in mechanical properties of AA5083 aluminum alloy using dual equal channel lateral extrusion. Trans Nonferrous Met Soc China 2016;26(12):3081–90.
  8. Johnson GR, Cook WH. Fracture characteristics of three metals subjected to various strains, strain rates, temperatures and pressures. Eng Fract Mech 1985;21(1):31–48.
  9. Singh, Nagendra, et al. “Impact design of die parameters on Severe plastic deformation during Equal channel angular pressing: An overview.” E3S Web of Conferences. Vol. 430. EDP Sciences, 2023.
  10. Zhu Y, Wu D, Zhao L, et al. A novel shock-induced multistage phase transformation and underlying mechanism in textured Nano-Twinned Cu. Extreme Mech Lett 2021;48:101448.
  11. Shi W, Lu S, Shen J, et al. ASB induced phase transformation in high oxygen doped commercial purity Ti. Mater Sci Eng A 2022;830:142321.
  12. Voyiadjis GZ, Abed FH. Microstructural based models for bcc and fcc metals with temperature and strain rate dependency. Mech Mater 2005;37(2-3):355–78.
  13. Follansbee PS, Kocks UF. A constitutive description of the deformation of copper based on the use of the mechanical threshold stress as an internal state variable. Acta Metall 1988;36 (1):81–93.
  14. Singh, Nagendra, et al. “A review on impact route process on AA5083 of back pressure through equal channel angular pressing.” Materials Today: Proceedings (2023).
  15. Khan AS, Liu J. A deformation mechanism based crystal plasticity model of ultrafine-grained/nanocrystalline FCC polycrystals. Int J Plast 2016;86:56–69.
  16. Ibragimova O, Brahme A, Muhammad W, et al. A new ANN based crystal plasticity model for FCC materials and its application to non-monotonic strain paths. Int J Plast 2021;144:103059.
  17. Bai DN, Gao PF, Yan XG, et al. Intelligent forming technology: State-of-the-art review and perspectives. J Adv Manuf Sci Technol 2021;1(3):2021008.
  18. Xie Q, Zhu Z, Kang G. Thermal activation based constitutive model for high-temperature dynamic deformation of AZ31B magnesium alloy. Mater Sci Eng A 2019;743:24–31.
  19. Jin H, Gallerneault M, Segal VM, et al. Grain structure and texture in aluminium alloy AA5083 after equal angular channel extrusion, warm rolling and subsequent annealing. Mater Sci Technol 2011;27(4):789–92.
  20. Shen J, Chen X, Hammond V, et al. The effect of rolling on the microstructure and compression behavior of AA5083 subjected to large-scale ECAE. J Alloys Compd 2017;695:3589–97.
  21. Zhang R, Steiner MA, Agnew SR, et al. Experiment-based modelling of grain boundary beta-phase (Mg2Al3) evolution during sensitisation of aluminium alloy AA5083. Sci Rep 2017;7(1):1–14.
  22. Lucadamo G, Yang NYC, Marchi CS, et al. Microstructure characterization in cryomilled Al 5083. Mater Sci Eng A 2006;430 (1–2):230–41.
  23. Suo T, Li Y, Zhao F, et al. Compressive behavior and rate controlling mechanisms of ultrafine grained copper over wide temperature and strain rate ranges. Mech Mater 2013;61:1–10.
  24. Singh, Nagendra, et al. “Advancement and Influence of Designing of ECAP on Deformation and Microstructure Properties of the AA5083 under Thermal Effects.” International Journal on Interactive Design and Manufacturing (IJIDeM) (2023): 1-19.
  25. Meyers MA, Vo¨ hringer O, Lubarda VA. The onset of twinning in metals: a constitutive description. Acta Mater 2001;49 (19):4025–39.
  26. Lu L, Dao M, Zhu T, et al. Size dependence of rate-controlling deformation mechanisms in nanotwinned copper. Scr Mater 2009;60(12):1062–6.
  27. Klepaczko JR, Chiem CY. On rate sensitivity of fcc metals, instantaneous rate sensitivity and rate sensitivity of strain hardening. J Mech Phys Solids 1986;34(1):29–54.
  28. Kocks UF, Argon AS, Ashby MF. Thermodynamics and kinetics of slip. Prog Mater Sci 1975;19:1–281.
  29. Yuan K, Guo W, Li D, et al. Influence of heat treatments on plastic flow of laser deposited Inconel 718:Testing and microstructural based constitutive modeling. Int J Plast 2021;136:102865.
  30. Kabirian F, Khan AS, Pandey A. Negative to positive strain rate sensitivity in 5xxx series aluminum alloys: Experiment and constitutive modeling. Int J Plast 2014;55:232–46.
  31. Moc´ko W, Rodrı´guez-Martı´nez JA, Kowalewski ZL, et al. Compressive viscoplastic response of 6082–T6 and 7075–T6 aluminium alloys under wide range of strain rate at room temperature: Experiments and modelling. Strain 2012;48(6):498–509.
  32. Kenndey J. The particle swarm: social adaptation of knowledge Proceedings of 1997 IEEE International Conference on Evolutionary Computation (ICEC’97). p. 303–8.
  33. Lin, Y.C.; Li, L.T.; Xia, Y.C.; Jiang, Y.Q. Hot deformation and processing map of a typical Al–Zn–Mg–Cu alloy. J. Alloys Compd. 2013, 550, 438–445.
  34. Maximov, J.T.; Duncheva,G.V.; Anchev, A.P. A new 3 Definite element model of the spherical mandrelling process. Finite Elem. Anal. Des. 2014, 45, 1–14.
  35. Singh, Nagendra, and Manoj Kumar Agrawal. “Mechanical characteristics and crystallographic texture of AA5083 during Equal Channel Angular Pressing Technique.” E3S Web of Conferences. Vol. 505. EDP Sciences, 2024.
  36. Zhou, M.; Lin, Y.C.; Deng, J.; Jiang, Y.Q. Hot tensile deformation behaviors and constitutive model of an Al–Zn–Mg–Cu alloy. Mater. Des. 2014, 59, 141–150.
  37. Li, L.T.; Lin, Y.C.; Zhou, H.M.; Xia, Y.C.; Jiang, Y.Q. Modeling the high-temperature creep behaviors of 7075 and 2124 aluminum alloys by continuum damage mechanics model. Comput. Mater. Sci. 2013, 73, 72–78.
Ahead of Print Open Access Original Research
Volume
Received January 6, 2024
Accepted February 21, 2024
Published April 16, 2024
Views: 14