Get 20M+ Full-Text Papers For Less Than $1.50/day. Start a 14-Day Trial for You or Your Team.

Learn More →

A modified Arrhenius model for as-quenched Al-Mg-Si alloy considering the effect of cooling rate

A modified Arrhenius model for as-quenched Al-Mg-Si alloy considering the effect of cooling rate Accurate prediction of residual stress requires precise knowledge of the constitutive behavior of as-quenched material. This study aims to model the flow stress behavior for as-quenched Al-Mg-Si alloy.Design Methodology ApproachIn the present work, the flow behavior of as-quenched Al-Mg-Si alloy is studied by the hot compression tests at various temperatures (573–723 K), strain rates (0.1–1 s−1) and cooling rates (1–10 K/s). Flow stress behavior is then experimentally observed, and an Arrhenius model is used to predict the flow behavior. However, due to the fact that materials parameters and activation energy do not remain constant, the Arrhenius model has an unsatisfied prediction for the flow behavior. Considering the effects of temperatures, strain rates and cooling rates on constitutive behavior, a revised Arrhenius model is developed to describe the flow stress behavior.FindingsThe experimental results show that the flow stress increases by the increasing cooling rate, increasing strain state and decreasing temperature. In comparison to the experimental data, the revised Arrhenius model has an excellent prediction for as-quenched Al-Mg-Si alloy.Originality ValueWith the revised Arrhenius model, the flow behaviors at different quenching conditions can be obtained, which is an essential step to the residual stress prediction when the model is implemented in a finite element code, e.g. ABAQUS, in the future. http://www.deepdyve.com/assets/images/DeepDyve-Logo-lg.png Engineering Computations Emerald Publishing

A modified Arrhenius model for as-quenched Al-Mg-Si alloy considering the effect of cooling rate

Guo, Ruichao; Wu, Jianjun; Ren, Yinxiang
Engineering Computations , Volume 38 (5): 21 – Jun 30, 2021
Download PDF
21 pages

Loading next page...
 
/lp/emerald-publishing/a-modified-arrhenius-model-for-as-quenched-al-mg-si-alloy-considering-4se98U7bzp
Publisher
Emerald Publishing
Copyright
© Emerald Publishing Limited
ISSN
0264-4401
DOI
10.1108/ec-03-2020-0159
Publisher site
See Article on Publisher Site

Abstract

Accurate prediction of residual stress requires precise knowledge of the constitutive behavior of as-quenched material. This study aims to model the flow stress behavior for as-quenched Al-Mg-Si alloy.Design Methodology ApproachIn the present work, the flow behavior of as-quenched Al-Mg-Si alloy is studied by the hot compression tests at various temperatures (573–723 K), strain rates (0.1–1 s−1) and cooling rates (1–10 K/s). Flow stress behavior is then experimentally observed, and an Arrhenius model is used to predict the flow behavior. However, due to the fact that materials parameters and activation energy do not remain constant, the Arrhenius model has an unsatisfied prediction for the flow behavior. Considering the effects of temperatures, strain rates and cooling rates on constitutive behavior, a revised Arrhenius model is developed to describe the flow stress behavior.FindingsThe experimental results show that the flow stress increases by the increasing cooling rate, increasing strain state and decreasing temperature. In comparison to the experimental data, the revised Arrhenius model has an excellent prediction for as-quenched Al-Mg-Si alloy.Originality ValueWith the revised Arrhenius model, the flow behaviors at different quenching conditions can be obtained, which is an essential step to the residual stress prediction when the model is implemented in a finite element code, e.g. ABAQUS, in the future.

Journal

Engineering Computations – Emerald Publishing

Published: Jun 30, 2021

Keywords: Flow behavior; Constitutive equation; Arrhenius model; As-quenched Al-Mi-Si alloy

References

  • Characterisation of precipitation upon cooling of an AA2618 Al–Cu–Mg alloy
    Chobaut, N.; Carron, D.; Drezet, J.M.
  • Quench induced residual stress prediction in heat treatable 7xxx aluminium alloy thick plates using Gleeble interrupted quench tests
    Chobaut, N.; Carron, D.; Arsène, S.; Schloth, P.; Drezet, J.M.
  • The influence of the distance between the plate and the top nozzles during the soft quenching process of the 6061 Aluminium alloy plates
    Dobra, G.; Sava, I.; Stănică, C.N.; Petre, M.; Ducu, C.; Moga, S.; Florescu, C.N.
  • Recent developments in advanced aircraft aluminium alloys
    Dursun, T.; Soutis, C.
  • Constitutive behaviour of A356 during the quenching operation
    Estey, C.M.; Cockcroft, S.L.; Maijer, D.M.; Hermesmann, C.
  • Dislocation density based model for Al-Cu-Mg alloy during quenching with considering the quench-induced precipitates
    Guo, R.C.; Wu, J.J.
  • Distortion caused by residual stresses in machining aeronautical Aluminum alloy parts: recent advances
    Li, J.G.; Wang, S.Q.
  • A modified Johnson-Cook model of as-quenched AA2219 considering negative to positive strain rate sensitivities over a wide temperature range
    Li, Z.X.; Zhan, M.; Fan, X.G.; Tan, J.Q.
  • Constitutive model over wide temperature range and considering negative-to-positive strain rate sensitivity for as-Quenched AA2219 sheet
    Li, Z.X.; Zhan, M.; Fan, X.G.; Wang, J.W.
  • Hot deformation behavior and processing map of Al–Si–Mg alloys containing different amount of Silicon based on gleebe-3500 hot compression simulation
    Liao, H.; Wu, Y.; Zhou, K.; Yang, J.
  • Study on TTP curve of 6XXX series aluminum alloy online quenching
    Liu, L.L.
  • A critical review of experimental results and constitutive descriptions for metals and alloys in hot working
    Lin, Y.C.; Chen, X.M.
  • Effects of interface bonding on the residual stresses in cold-sprayed Al-6061: a numerical investigation
    Lin, E.; Chen, Q.; Ozdemir, O.C.; Champagne, V.K.; Müftü, S.
  • Constitutive analysis in hot working
    McQueen, H.J.; Ryan, N.D.
  • Continuous cooling precipitation diagrams of Al-Mg-Si alloys
    Milkereit, B.; Wanderka, N.; Schick, C.; Kessler, O.
  • Modified constitutive analysis and activation energy evolution of a low-density steel considering the effects of deformation parameters
    Mohamadizadeh, A.; Zarei-Hanzaki, A.; Abedi, H.R.
  • Mechanical properties of undercooled Aluminium alloys and their implementation in quenching simulation
    Reich, M.; Kessler, O.
  • 50th anniversary article: the origin and management of residual stress in heat-treatable Aluminium alloys
    Robinson, J.S.; Tanner, D.A.; Truman, C.E.
  • The influence of quench sensitivity on residual stresses in the Aluminium alloys 7010 and 7075
    Robinson, J.S.; Tanner, D.A.; Truman, C.E.; Paradowska, A.M.; Wimpory, R.C.
  • Quench-induced precipitates in Al-Si alloys: Calorimetric determination of solute content and characterisation of microstructure
    Schumacher, P.; Pogatscher, S.; Starink, M.J.; Schick, C.; Mohles, V.; Milkereit, B.
  • On the mechanism of hot deformation
    Sellars, C.M.; Mctegart, W.J.
  • The high temperature flow behavior modeling of NiTi shape memory alloy employing phenomenological and physical based constitutive models: a comparative study
    Shamsolhodaei, A.; Zarei-Hanzaki, A.; Ghambari, M.; Moemeni, S.
  • Evolution of activation energy during hot deformation of AA7150 aluminum alloy
    Shi, C.; Mao, W.; Chen, X.G.
  • Hot deformation behavior of as-quenched 7005 Aluminum alloy
    Wang, M.; Jin, P.; Wang, J.; Han, L.
  • Simulation of temperature and stress in 6061 Aluminum alloy during online quenching process
    Wang, M.J.; Yang, G.; Huang, C.Q.; Chen, B.
  • Temperature-dependent constitutive behavior with consideration of microstructure evolution for as-quenched Al-Cu-Mn alloy
    Wang, W.; Wang, G.; Hu, Y.; Guo, G.; Zhou, T.; Rong, Y.
  • Constitutive behavior for quenching of Al–Cu–Mg alloy with consideration of precipitation
    Wu, J.J.; Guo, R.C.
  • Constitutive behaviour in as quenched Al–5Cu–0·4Mn alloy during hot deformation
    Yang, X.W.; Zhu, J.C.; Li, W.Y.
  • Hot compressive deformation behavior of the as-quenched A357 aluminum alloy
    Yang, X.W.; Lai, Z.H.; Zhu, J.C.; Liu, Y.; He, D.
  • Effect of strain rate upon plastic flow of steel
    Zener, C.; Hollomon, J.H.
  • Quench-induced precipitates in Al-Si alloys: calorimetric determination of solute content and characterisation of microstructure
    Philipp, S.; Stefan, P.; Marco, J.S.; Christoph, S.; Volker, M.