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On an approach to the thermo-elasto-plastic failure based on the Burzynski criterion

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Języki publikacji
EN
Abstrakty
EN
In this paper the comparison of material eort models: the classic Huber-Mises-Hencky approach and the Burzynski condition was presented. Burzynski yield condition is pressure sensitive and naturally takes into account the strength dierential eect, which has been observed in nickel-base super alloys such as Inconel 718. Investigation was performed during thermal-uidstructure interaction analysis of a power turbine guide vane of turbine helicopter engine PZL- 10W. Firstly, computational uid dynamics conjugate heat transfer analysis was carried out, then stress analysis was performed with boundary conditions obtained via computational uid dynamics analysis. During stress analysis, two mentioned above equivalent stress denitions were applied and dierence in material eort modelling by them was shown.
Rocznik
Tom
Strony
65--76
Opis fizyczny
Bibliogr. 34 poz., rys., tab.
Twórcy
autor
  • Institute of Fluid-Flow Machinery, Polish Academy of Sciences, Fiszera 14, 80-231 Gdańsk, Poland
autor
  • Institute of Fluid-Flow Machinery, Polish Academy of Sciences, Fiszera 14, 80-231 Gdańsk, Poland
Bibliografia
  • [1] Badur J., Karcz M., Kucharski R., Wisniewski A., Kekana M.: Coupled modelling of the cooling processes and the induced thermo-corrosive fatigue within a gas turbine. Cracow TU, 2003, 19-30.
  • [2] Badur J., Ziółkowski P., Sławiński D., Kornet S.: An approach for estimation of water wall degradation within pulverized-coal boilers. Energy 92(2015), 142-152.
  • [3] Banaszkiewicz M.: Numerical investigation of creep behaviour of high-temperature steam turbine components. Trans. Inst. Fluid-Flow Mach. 124(2012), 5-15.
  • [4] Banaś K., Badur J.: Infuence of turbulence RANS models on heat transfer coefficients and stress distribution during thermal-FSI analysis of power turbine guide vane of helicopter turbine engine PZL-10W taking into account convergence of heat flux. Progress in Computational Fluid Dynamics, 2017.
  • [5] Banaszkiewicz M.: Online determination of transient thermal stresses in critical steam turbine components using a two-step algorithm. J. Therm. Stresses 6(2017), 690-703.
  • [6] Banaszkiewicz M.: On-line monitoring and control of thermal stresses in steam turbine rotors. Appl. Therm. Eng. 94(2016), 763-776.
  • [7] Staroselsky A., Martin T.J., Cassenti B.: Transient thermal analysis and viscoplastic damage model for life prediction of turbine components. J. Eng. Gas Turb. Power 137(2015), 042501.
  • [8] Taler J., Weglowski B., Sobota T., Jaremkiewicz M., Taler D.: Inverse Space Marching Method for Determining Temperature and Stress Distributions in Pressure Components. In: Development in Heat Transfer (M.A.D.S. Bernardes, Ed.), In Tech, Rijeka 2011, ISBN: 978-953-307-569-3.
  • [9] Duda P.: Inverse Method for stress monitoring in pressure components of steam generators. In: Proc. 17th Int. Conf. on Structural Mechanics in Reactor Technology, 2003.
  • [10] Burzyński W.: Selected passages from Włodzimierz Burzynski's doctoral dissertation: Study of material effort hypotheses. Eng. Trans. 57(2009), 185-215.
  • [11] Spitzig W.A., Sober R.J, Richmond O.: Pressure dependence of yielding and associated volume expansion in tempered martensite. Acta Metallurgica 7(1975), 885-893.
  • [12] Spitzig W.A., Sober R.J., Richmond O.: The Effect of Hydrostatic Pressure on the Deformation Behavior of Maraging and HY-80 Steels and its Implications for Plasticity Theory. Metall. Trans. 11(1976), 377-386.
  • [13] Richmond O., Spitzig W.A.: Pressure dependence and dilatancy of plastic flow. In: Proc. IUTAM Conf., North-Holland, 1980, 377-386.
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  • [15] Wilson C.D.: A critical reexamination of classical metal plasticity. J. Appl Mech. 69(2002), 63-68.
  • [16] Iyer S.K., Lissenden C.J.: Multiaxial constitutive model accounting for the strengthdi erential in Inconel 718. Int. J. Plasticity 19(2003), 2055-2081.
  • [17] Bai Y., Wierzbicki T.: A new model of metal plasticity and fracture with pressure and Lode dependence. Int. J. Plast. 24(2008), 1071-1096.
  • [18] Vadillo G., Fernandez-Saez J., Pecherski R.B.: Some applications of Burzynski yield condition in metal plasticity. Mat. Des. 32(2011), 628-635.
  • [19] Gil C.M., Lissenden C.J., Lerch B.A.: Yield of Inconel 718 by axial-torsional loading at temperature up to 649 C. J. Test. Eval. 27(1999), 327-336.
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  • [22] Hu L.W., Bratt J.F.: Effect of tensile plastic deformation on yield condition. J. Appl. Mech. 25(1958), 411.
  • [23] Hu L.W.: Plastic Stress-Strain Relations and Hydrostatic Stress. In: Proc. 2nd Symp. on Naval Structural Mechanics: Plasticity, Brown University, Rhode Island 1960, 194-201.
  • [24] Burzynski W.: Theoretical foundations of the hypotheses of material effort. Czasopismo Techniczne 47(1929), 141.
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  • [27] Lewandowski J.J., Wesseling P., Prabhu N.S., Larose J., Lerch B.A.: Strength differential measurements in IN 718: Effects of superimposed pressure. Metall. Mater. Trans. A 8(2003), 1736-1739.
  • [28] Raniecki B., Mroz Z.: Yield or martensitic phase transformation conditions and dissipation functions for isotropic, pressure-insensitive alloys exhibiting SD effect. Acta Mechanica 195(2008), 81-102.
  • [29] Sengoz K.: Development of A Generalized Isotropic Yield Surface for Pressure Insensitive Metal Plasticity Considering Yield Strength Differential Effect in Tension, Compression and Shear Stress States. Phd thesis, George Washington University, Washington DC 2017.
  • [30] Zyczkowski M.: Discontinuous bifurcations in the case of the Burzynski-Torre yield condition. Acta Mech. 132(1999), 19-35.
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  • [33] Hongjun Z., Zhengping Z., Yu L., Jian Y., Songhe Y.: Conjugate heat transfer investigations of turbine vane based on transition models. Chinese J. Aeronaut. 26(2013), 890-897.
  • [34] Lin G., Kusterer K., Ayed A.H., Bohn D., Sugimoto T.: Conjugate heat transfer analysis of convection-cooled turbine vanes using
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-689e1b78-cc7b-4065-8875-d80ff8481b8e
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