Effect of Nickel Content on Delta Solvus Temperature and Mechanical Properties of Alloy 718

N.A. Wilkinson, “Forging of 718–Importance of T.M.P.,” Superalloy 718-Metallurgy and Applications, ed. E. A. Loria, TMS, 1989, 119–133.
Google Scholar
J.F. Radavich, “The Physical Metallurgy of Cast and Wrought Alloy 718,” Superalloy 718-Metallurgy and Applications, ed. E. A. Loria, TMS, 1989, 229–240.
Google Scholar
R.E. Schafrik, D.D. Ward, and J.R. Groh, “Application of Alloy 718 in GE Aircraft Engines: Past, Present and Next Five Years,” Superalloys 718, 625, and Various Derivatives, ed. E. A. Loria, TMS, 2001, 1–11.
Google Scholar
E.L. Raymond, “Effect of Chemistry and Processing on the Structure and Mechanical Properties of Inconel Alloy 718,” Superalloys 718, 625, and Various Derivatives, ed. E. A. Loria, TMS, 1989, 577–587.
Google Scholar
J.R. Groh and J.F. Radavich, “Effects of Iron, Nickel, and Cobalt on Precipitation Hardening of Alloy 718,” Superalloys 718, 625, and Various Derivatives, ed. E. A. Loria, TMS, 1991, 351–361.
Google Scholar
W.D. Cao, “Solidification And Solid State Phase Transformation Of Allvac® 718Plus® Alloy,” Superalloys 718, 625, and Various Derivatives, ed. E. A. Loria, TMS, 2005, 165–177.
Google Scholar
N. Saunders, M. Fahrmann and C.J. Small, “ The Application of CALPHAD Calculations to Ni-Based Superalloys,” Superalloys 2000, eds. K.A. Green, T.M. Pollock and R.D. Kissinger, TMS, 2000, 803–811.
Google Scholar
http://www.computherm.com/databases.html, CompuTherm LLC, 2008.
Google Scholar
J.-C. Zhao and M.F. Henry, “The Thermodynamic Prediction of Phase Stability in Multi-Component Superalloys,” JOM, 54 (1) (2002), 37–41.
10.1007/BF02822603
CAS Web of Science® Google Scholar
G.B. Olson, H.-J. Jou, J. Jung, J.T. Sebastian, A. Misra, I. Locci, and D. Hull, “Precipitation Model Validation in 3^rd Generation Aeroturbine Disc Alloys,” Superalloys 2008, ed. R.C Reed et al, TMS, 2008, 923–932.
Google Scholar
L. Yang, K. Chang, S. Mannan, and J. DeBarbadillo, “A New DTA Approach for Verifying Precipitate Solvus in Inconel Alloy 718,” Superalloys 718, 625, 706, and Various Derivatives, ed. E. A. Loria, TMS, 1997, 353–365.
Google Scholar
N.B. Dahotre, M.H. McCay, T.D. McCay, C.R. Hubbard, W.D. Porter, and O.B. Cavin, “Effect of Grain Structure on Phase Transformation Events in the Inconel 718,” Scripta Metallurgica et Materialia, 28 (11) (1993), 1359–1364.
10.1016/0956-716X(93)90482-8
CAS Web of Science® Google Scholar
M.J. Cieslak, G.A. Knorovsky, T.J. Headley and AD. Romig Jr., “Solidification Metallurgy of Alloy 718 and Other Nb-containing Superalloys,” Superalloy 718-Metallurgy and Applications, ed. E. A. Loria, TMS, 1989, 59–68.
Google Scholar
G.K. Bouse, “Application of a Modified Phase Diagram to the Production of Cast Alloy 718 Components,” Superalloy 718-Metallurgy and Applications, ed. E. A. Loria, TMS, 1989, 69–78.
Google Scholar

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Effect of Nickel Content on Delta Solvus Temperature and Mechanical Properties of Alloy 718

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Effect of Nickel Content on Delta Solvus Temperature and Mechanical Properties of Alloy 718

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