[1] Sims C. T., Stoloff N. S., Hagel W. C., superalloys II, vol. 8. Wiley New York, 1987.
[2] Sato J., Omori T., Oikawa K., et al., Cobalt-base high-temperature alloys, Science 2006, 312, 90–91.
[3] Sauza D.J., Dunand D.C., Seidman D.N., Microstructural evolution and high-temperature strength of a γ (fcc)/γ’(L12) Co–Al–W–Ti–B superalloy, Acta Materilia 2023, 174, 427–438.
[4] Mottura A., Janotti A., and Pollock T. M., Alloying effects in the γ′ phase of Co‐based superalloys in Proc. 12 Int. Symp. Superalloys, TMS, 2012, 685–693.
[5] Mottura A., Janotti A., Pollock T. M., A first-principles study of the effect of Ta on the superlattice intrinsic stacking fault energy of L12-Co3 (Al, W), Intermetallics, 2012, 28, 138–143.
[6] Zhao Y., Zhang Y., Zhang Y, et al., Deformation behavior and creep properties of Co-Al-W-based superalloys: A review, Progress in Natural Science: Materials International 2023, 31, 641–648.
[7] Sani S.A., Arabi H., Kheirandish S., Ebrahimi G., Investigation on the homogenization treatment and element segregation on the microstructure of a γ/γ′-cobalt-based superalloy, International Journal of Minerals Metallurgy and Materials, 2019, 26, 222–233.
[8] Yan H.Y., Vorontsov V.A., Dye D., Alloying effects in polycrystalline γ′ strengthened Co–Al–W base alloys, Intermetallics 2014, 48, 44–53.
[9] Sajjadi S.A., Elahifar H.R., Farhangi H., Effects of cooling rate on the microstructure and mechanical properties of the Ni-base superalloy UDIMET 500, Journal of Alloys and Compounds, 2008, 455, 215–220.
[10] Migas D., Roskosz S., Moskal G., Mikuszewski T., Gradoń P., Effect of cooling rate on microstructure, microporosity, and segregation behavior of Co-Al-W alloys prepared by vacuum induction melting, Journal of Materials, 2022, 74, 2951–2963.
[11] Xu H., Zhang Y., Fu H., Xue F., Zhou X., Xie J., Effects of boron or carbon on solidification behavior of Co-Ni-Al-W-based superalloys, Journal of Alloys and Compounds, 2022, 891, 161965.
[12] Costa A.M.S., Oliveria J.P., Salgado M.V., et al. Effect of Ta and Nb additions in arc-melted Co-Ni-based superalloys: microstructural and mechanical properties, Materials Science and Engineering: A, 2018, 730, 66–72.
[13] Tomaszewska A., Moskal G., Migas D., Mikuśkiewicz M., Maciąg T., Thermal parameters determination of Co–Al–W as-cast alloy homogenization by DTA analysis, Journal of Thermal Analysis and Calorimetry, 2018, 134, 157–164.
[14] Hausmann D., Solis C., Freund L.P., et al., Enhancing the high-temperature strength of a Co-base superalloy by optimizing the γ/γ′ microstructure, Metals, 2020, 10,321, 2020.
[15] Chu C., Li C., Guan Y., Liu Y., Microstructure-dependent coarsening behavior of γ′ precipitates in CoNi-based superalloys, Intermetallics, 2023, 140, 107396.
[16] Hosseini S. A., Abbasi S. M., Zanganeh Madar K., and Yazdi H. M. K., The effect of boron and zirconium on wrought structure and γ-γ′ lattice misfit characterization in nickel-based superalloy ATI 718Plus, Materials chemistry and physics 2018, 211, 302–311.
[17] Povstugar I. Choi P., Neumeier S., et al., Elemental partitioning and mechanical properties of Ti-and Ta-containing Co–Al–W-base superalloys studied by atom probe tomography and nanoindentation, Acta Materilia 2014, 78, 78–85.
[18] Liu J., Yu J. J., Yang Y. H., Zhou Y. Z., Sun X. F., Effects of Mo on the evolution of microstructures and mechanical properties in Co-Al-W base superalloys, Materials Science and Engineering: A 2019, 745, 404–410.
[19] Zhang L., Qu X., Qin M., et al. Microstructural Development and Coarsening Behavior of γ′ Precipitates in Co–Ni–Al–W-Base ODS Alloys, Materials. Transaction 2012, 53, 1922–1928.
[20] Guan Y., Liu Y., Ma Z., Li H., Yu H., Precipitation and coarsening behavior of γ′ phase in CoNi-base superalloy under different aging treatments, Vacuum, 2020, 175, 109247.
[21] Zasadzińska M., Knych T., Smyrak B., Strzępek P., Investigation of the dendritic structure influence on the electrical and mechanical properties diversification of the continuously casted copper strand, Materials, 2020, 13, 5513.
[22] Shen Y. L., Chawla N., On the correlation between hardness and tensile strength in particle reinforced metal matrix composites, Materials Science and Engineering: A, 2001, 297, 44–47.
[23] Hou G., Xie J., Yu J., Sun X., Zhou Y., Room temperature tensile behaviour of K640S Co-based superalloy, Materials Science and Technology 2019, 35, 530–535.
[24] Gao Z., Li S., Liu G., et al., Microstructural Evolution and Tensile Properties of a Corrosion-Resistant Ni-based superalloys used for industrial gas turbines, Crystals, 13(4), 669, 2023.
[25] Wei C. N., Bor H. Y., Ma C. Y., Lee T. S., A study of IN-713LC superalloy grain refinement effects on microstructure and tensile properties. Materials chemistry and physics, 2003, 80, 89-93.
]26] Wei C. N., Bor H. Y., Chang M., 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, 3741-3747.