[1] Greenwood G., Deformation mechanism maps and microstructural influences. Materials Science and Engineering A, 2005, 410, 12-15.
[2] Quested P., Henderson P., and McLean M., Observations of deformation and fracture heterogeneities in a nickel-base superalloy using electron back scattering patterns, Acta Metallurgica, 1988, 36(10) 2743-2752.
[3] Unocic R., Viswanathan G., Sarosi P., Karthikeyan S., Li J., Mills M., Mechanisms of creep deformation in polycrystalline Ni-base disk superalloys, Materials Science and Engineering: A, 2008, 483, 25-32.
[4] Reed-Hill R.E., Abbaschian R., and Abbaschian R., Physical metallurgy principles, Van Nostrand New York, 1973.
[5] Maitland T., Sitzman S., Electron backscatter diffraction (EBSD) technique and materials characterization examples, Springer Berlin, 2007.
[6] Reed-Hill R.E., Abbachian R., Physical Metallurgy Principles, PWS-KENT, Boston, 1992.
[7] صادقی ف. ا.، کرمانپور ا.، رضایی م.، صرامی ن. ریاضی ح. ر.، ارزیابی تاثیر جهتگیری کریستالی یک سوپرآلیاژ پایه نیکل تک کریستال بر خواص مکانیکی دما بالا پنجمین کنفرانس بین المللی مواد و متالورژی و دهمین کنفرانس مشترک انجمن مهندسین متالورژی ایران و انجمن علمی ریختهگری 1395، شیراز.
[8] Woodford D., Frawley J., The effect of grain boundary orientation on creep and rupture of IN-738 and nichrome, Metallurgical Transactions, 1974, 5(9) 2005-2013.
[9] Liu J., Jin T., Sun X., Zhang J., Guan H., Hu Z., Anisotropy of stress rupture properties of a Ni base single crystal superalloy at two temperatures, Materials Science and Engineering: A, 2008, 479(1) 277-284.
[10] Ichitsubo T. Koumoto D., Hirao M., Tanaka K., OSawa M., Yokokawa, T., and Harada, H., Elastic anisotropy of rafted Ni-base superalloy at high temperatures, Acta Materialia, 2003, 51(16) 4863-4869.
[11] Gordon A.P., Crack initiation modeling of a directionally-solidified nickel-base superalloy, Georgia Institute of Technology, 2006.
[12] Daleo J.A., Wilson J.R., GTD111 alloy material study, Journal of Engineering for Gas Turbines and Power, 1998, 120(2) 375-382.
[13] Woodford D. A., Creep analysis of directionally solidified GTD111 based on stress relaxation testing, Materials at High Temperatures, 1997, 14(4) 413-420.
[14] Guo J., Yuan C., Yang H., Lupinc V., Maldini M., Creep-rupture behavior of a directionally solidified nickel-base superalloy, Metallurgical and Materials Transactions A, 2001, 32(5) 1103-1110.
[15] Aghaie-khafri M., Noori M., Life prediction of a Ni-base superalloy, Bulletin of Materials Science, 2011, 34, 305–309.
[16] MacLachlan D., Knowles D., Modelling and prediction of the stress rupture behaviour of single crystal superalloys, Materials Science and Engineering: A, 2001, 302(2) 275-285.
[17] Rappaz M., Modelling of microstructure formation in solidification processes, International Materials Reviews, 1989, 34(1) 93-124.
[18] Rappaz M., Gandin C.A., Probabilistic modelling of microstructure formation in solidification processes, Acta Metallurgica et Materialia, 1993, 41(2) 345-360.
[19] Torrens P. M., O'Sullivan D., Cellular automata and urban simulation: where do we go from here?, SAGE Publications Sage UK: London, England, 2001.1398T
[20] Gandin C. A., Rappaz M., West D., Adams B., Grain texture evolution during the columnar growth of dendritic alloys, Metallurgical and Materials Transactions A, 1995, 26(6) 1543-1551.
[21] Gandin C.A., DEsbiolles J.L., Rappaz M., Thevoz P., A three-dimensional cellular automation-finite element model for the prediction of solidification grain structures, Metallurgical and Materials Transactions A, 1999, 30(12) 3153-3165.
[22] Gandin C.A., Rappaz M., A 3D cellular automaton algorithm for the prediction of dendritic grain growth, Acta Materialia, 1997, 45(5) 2187-2195.
[23] May D., Gordon A., Segletes D. The application of the Norton-Bailey law for creep prediction through power law regression, ASME Turbo Expo 2013: Turbine Technical Conference and Exposition, 2013.
[24] Bråthe L., Josefson L., Estimation of Norton-Bailey parameters from creep rupture data, Metal Science, 1979, 13(12) 660-664.
[25] طرفه، م.، میرباقری م. ح.، آقازاده ج.، بررسی تاثیر ضرایب انتقال حرارت در انجماد جهتدار در سوپرآلیاژ پایه نیکل GTD111، پژوهشنامه ریختهگری، 1398، 3(1) 11-20.
[26] Dieter G.E., Bacon D.J., Mechanical metallurgy, McGraw-hill New York, 1976.
[27] Ibanez A. R., Modeling creep behavior in a directionally solidified nickel base superalloy, 2003.
[28] Shenoy M., McDowell D., Neu R., Transversely isotropic viscoplasticity model for a directionally solidified Ni-base superalloy, International journal of plasticity, 2006, 22(12) 2301-2326.
[29] Ibanez A., Srinivasan V., Saxena A., Creep deformation and rupture behaviour of directionally solidified GTD 111 superalloy, Fatigue & Fracture of Engineering Materials & Structures, 2006, 29(12) 1010-1020.
[30] Stewart C. M., Gordon A. P., Hogan E. A., and Saxena A., Characterization of the Creep Deformation and Rupture Behavior of DS GTD-111 Using the Kachanovâ€Rabotnov Constitutive Model, Journal of Engineering Materials and Technology, 2011, 133(2) 021013.
[31] Kumar K. S., ORuganti R., Chatterjee P., X-Ray Rocking Curve Measurements of Dislocation Density and Creep Strain Evolution in Gamma Prime-Strengthened Ni-Base Superalloys, Metallurgical and Materials Transactions A, 2019, 50(1) 191-198.
[32] Viswanathan R., Gas turbine blade superalloy material property handbook, Electric Power Research Institute, Palo Alto, CA, 2001.
[33] Sajjadi S.A., Nategh S., Guthrie R.I., Study of microstructure and mechanical properties of high performance Ni-base superalloy GTD-111, Materials Science and Engineering: A, 2002, 325(1-2) 484-489.
[34] Donachie M. J., Donachie S. J., Superalloys: A technical guide, ASM international, 2002.
[35] Nörtershäuser P., Frenzel J., Ludwig A., Neuking K., Eggeler G., The effect of cast microstructure and crystallography on rafting, dislocation plasticity and creep anisotropy of single crystal Ni-base superalloys, Materials Science and Engineering: A, 2015, 626, 305-312.
