[1] Reed R. C., The superalloys: Fundamentals and applications, Cambridge University Press, 2008.
[2] Donachie M. J., Donachie S. J., Superalloys: A technical guide, ASM International, 2002.
[3] Geddes B., Leon H., Huang X., Superalloys: alloying and performance, ASM International, 2010.
[4] Sato J., Omori T., Oikawa K., Ohnuma I., Kainuma R., Ishida K., Cobalt-base high-temperature alloys, Science, 2006, 312(5770)90-91.
[5] Titus M. S., Suzuki A., Pollock T. M., Creep and directional coarsening in single crystals of new γ–γ′ cobalt-base alloys, Scripta Materialia, 2012, 66(8)574-577.
[6] Tanaka K., Ooshima M., Tsuno N., Sato A., Inui H., Creep deformation of single crystals of new Co–Al–W-based alloys with FCC/L12 two-phase microstructures, Philosophical Magazine, 2012, 92(32)4011-4027.
[7] Xue F., Zenk C., Freund L., Hoelzel M., Neumeier S., Göken M., Double minimum creep in the rafting regime of a single-crystal Co-base superalloy, Scripta Materialia, 2018, 142, 129-132.
[8] Neumeier S., Freund L., Göken M., Novel wrought γ/γ′ cobalt base superalloys with high strength and improved oxidation resistance, Scripta Materialia, 2015, 109, 104-107.
[9] Bauer A., Neumeier S., Pyczak F., Singer R., Göken M., Creep properties of different γ′-strengthened Co-base superalloys, Materials Science and Engineering: A, 2012, 550, 333-341.
[10] Suzuki A., Pollock T. M., High-temperature strength and deformation of γ/γ′ two-phase Co–Al–W-base alloys, Acta Materialia, 2008, 56(6)1288-1297.
[11] Xue F., Zhou H., Chen X., Shi Q., Chang H., Wang M., Ding X., Feng Q., Creep behavior of a novel Co-Al-W-base single crystal alloy containing Ta and Ti at 982 ∘C, MATEC Web of Conferences, 2014.
[12] Kobayashi S., Tsukamoto Y., Takasugi T., Chinen H., Omori T., Ishida K., Zaefferer S., Determination of phase equilibria in the Co-rich Co–Al–W ternary system with a diffusion-couple technique, Intermetallics, 2009, 17(12)1085-1089.
[13] Lass E. A., Williams M. E., Campbell C. E., Moon K.-W., Kattner U. R., γ′ phase stability and phase equilibrium in ternary Co-Al-W at 900° C, Journal of Phase Equilibria and Diffusion, 2014, 35(6)711-723.
[14] Tsukamoto Y., Kobayashi S., Takasugi T., The stability of γ’-Co3 (Al, W) phase in Co-Al-W ternary system, Materials Science Forum, 2010, 654, 448-451.
[15] Yan H.-Y., Coakley J., Vorontsov V. A., Jones N. G., Stone H. J., Dye D., Alloying and the micromechanics of Co–Al–W–X quaternary alloys, Materials Science and Engineering: A, 2014, 613, 201-208.
[16] Kobayashi S., Tsukamoto Y., Takasugi T., Phase equilibria in the Co-rich Co-Al-W-Ti quaternary system, Intermetallics, 2011, 19(12)1908-1912.
[17] Shinagawa K., Omori T., Sato J., Oikawa K., Ohnuma I., Kainuma R., Ishida K., Phase equilibria and microstructure on γ′ phase in Co-Ni-Al-W system, Materials Transactions, 2008, 49(6)1474-1479.
[18] Yan H.-Y., Vorontsov V., Dye D., Alloying effects in polycrystalline γ′ strengthened Co–Al–W base alloys, Intermetallics, 2014, 48, 44-53.
[19] Lopez‐Galilea I., Zenk C., Neumeier S., Huth S., Theisen W., Göken M., The thermal stability of intermetallic compounds in an as‐cast SX Co‐base superalloy, Advanced Engineering Materials, 2015, 17(6)741-747.
[20] Koßmann J., Zenk C. H., Lopez-Galilea I., Neumeier S., Kostka A., Huth S., Theisen W., Göken M., Drautz R., Hammerschmidt T., Microsegregation and precipitates of an as-cast Co-based superalloy-microstructural characterization and phase stability modelling, Journal of Materials Science, 2015, 50(19)6329-6338.
[21] Shi L., Yu J., Cui C., Sun X., Temperature dependence of deformation behavior in a Co–Al–W-base single crystal superalloy, Materials Science and Engineering: A, 2015, 620, 36-43.
[22] Zhao J.-C., Henry M. F., The thermodynamic prediction of phase stability in multicomponent superalloys, Journal of Metals, 2002, 54(1)37-41.
[23] Dupin N., Sundman B., A thermodynamic database for Ni‐base superalloys, Scandinavian Journal of Metallurgy, 2001, 30(3)184-192.
[24] Masoumi F., Jahazi M., Shahriari D., Cormier J., Coarsening and dissolution of γ′ precipitates during solution treatment of AD730™ Ni-based superalloy: Mechanisms and kinetics models, Journal of Alloys and Compounds, 2016, 658, 981-995.
[25] Saunders N., Guo U., Li X., Miodownik A., Schillé J.-P., Using JMatPro to model materials properties and behavior, JOM, 2003, 55(12)60-65.
[26] Zschau H. E., Masset P., Schütze M., Oxidation protection of Ni‐base superalloys by halogen treatment, Materials and Corrosion, 2011, 62(7)687-694.
[27] Wang B., Zhang F., Chen S., Kou S., Computational simulation of diffusion process in multicomponent and multiphase systems in diffusion bonding, Science and Technology of Welding and Joining, 2013, 18(6)451-457.
[28] Cornish L., Süss R., Watson A., Prins S., Building a thermodynamic database for platinum-based superalloys: part I, Platinum Metals Review, 2007, 51(3)104-115.
[29] Watson A., Süss R., Cornish L., Building a thermodynamic database for platinum-based superalloys: Part II, Platinum Metals Review, 2007, 51(4)189-198.
[30] Zhu J., Titus M., Pollock T., Experimental investigation and thermodynamic modeling of the co-rich region in the Co-Al-Ni-W quaternary system, Journal of Phase Equilibria and Diffusion, 2014, 35(5)595-611.
[31] Cullity B., Elements of XRD, Prentice Hall, Ohaio, 1978.
[32] Shinagawa K., Omori T., Oikawa K., Kainuma R., Ishida K., Ductility enhancement by boron addition in Co–Al–W high-temperature alloys, Scripta Materialia, 2009, 61(6)612-615.
[33] Sims C. T., Stoloff N.S., Hagel W. C., Superalloys II, 1987.
[34] Zhou Y., Volek A., Effect of carbon additions on hot tearing of a second generation nickel-base superalloy, Materials Science and Engineering: A, 2008, 479(1)324-332.
[35] Tsunekane M., Suzuki A., Pollock T. M., Single-crystal solidification of new Co–Al–W-base alloys, Intermetallics, 2011, 19(5)636-643.
[36] Shinagawa K., Omori T., Sato J., Oikawa K., Ohnuma I., Kainuma R., Ishida K., Phase Equilibria and Microstructure on γ' Phase in Co-Ni-Al-W System, Materials Transactions, 2008, 49(6)1474-1479.
[37] Goodhew P. J., Humphreys J., Beanland R., Electron microscopy and analysis, CRC Press, Liverpool, 2000.
[38] Wei C.-N., Bor H.-Y., Chang L., The effects of carbon content on the microstructure and elevated temperature tensile strength of a nickel-base superalloy, Materials Science and Engineering: A, 2010, 527(16)3741-3747.
[39] Gong L., Chen B., Du Z., Zhang M., Liu R., Liu K., Investigation of solidification and segregation characteristics of cast Ni-Base superalloy K417G, Journal of Materials Science & Technology, 2018, 34(3)541-550.
[40] Berthod P., Michon S., Aranda L., Mathieu S., Gachon J., Experimental and thermodynamic study of the microstructure evolution in cobalt-base superalloys at high temperature, Calphad, 2003, 27(4)353-359.
[41] Pyczak F., Bauer A., Göken M., Lorenz U., Neumeier S., Oehring M., Paul J., Schell N., Schreyer A., Stark A., Symanzik F., The effect of tungsten content on the properties of L1 2-hardened Co–Al–W alloys, Journal of Alloys and Compounds, 2015, 632, 110-115.
[42] Bocchini P. J., Sudbrack C. K., Noebe R. D., Dunand D. C., Seidman D. N., Effects of titanium substitutions for aluminum and tungsten in Co-10Ni-9Al-9W (at%) superalloys, Materials Science and Engineering: A, 2017, 705, 122-132.
[43] Sponseller D., Differential thermal analysis of nickel-base superalloys, Superalloys, 1996, 1996, 259-70.
[44] Jahangiri M., Boutorabi S., Arabi H., Study on incipient melting in cast Ni base IN939 superalloy during solution annealing and its effect on hot workability, Materials Science and Technology, 2012, 28(12)1402-1413.
[45] Long F., Yoo Y., Jo C., Seo S., Song Y., Jin T., Hu Z., Formation of η and σ phase in three polycrystalline superalloys and their impact on tensile properties, Materials Science and Engineering: A, 2009, 527(1)361-369.
[46] Hegde S., Kearsey R., Beddoes J., Designing homogenization–solution heat treatments for single crystal superalloys, Materials Science and Engineering: A, 2010, 527(21)5528-5538.
[47] Xue F., Wang M., Feng Q., Alloying Effects on Heat‐Treated Microstructure in Co‐Al‐W‐Base Superalloys at 1300° C and 900° C, Superalloys, 2012, 813-821.
[48] Pelton A. D., Müller-Krumbhaar H., Kurz W., Brener E., Murch G. E., Binder K., Wagner R., Kampmann R., Voorhees P. W., Fratzl P., Phase Transformations in Materials, Wiley-VCH Verlag GmbH, 2001.
)