Crystallization of High Performance Metallic Materials

doi:10.3390/books978-3-7258-3273-6

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Keywords

Cu₂ZnSnS₄; stress; electronic structure; optical properties; first principles; grain shape function; elastic constitutive; seven string method; microscopic images; experimental measurement; vacuum electrodeposition; Cu(In; Ga)Se₂ thin films; electrodeposition mechanism; Ga incorporation; Gallium Oxide; near-β titanium alloy; constitutive mode; thermomechanical processing; nanohole propagation; interatomic potentials; dislocation; single-crystal Ni; Ni-based single crystal superalloy; specific weight; mechanical properties; thermal stability; Al-Cu-Mg-Ag alloy; high-temperature creep; ageing; constitutive relational model of creep; deformation mechanism map; solidification; cooling rate; hyper duplex stainless steel; high-temperature confocal scanning laser microscope; Al₃Y; nucleation; first-principles; aluminum alloy; titanium alloy; EBM; VHCF; HIP; pore defects; beryllium; molecular dynamics simulation; MEAM; Finnis–Sinclair and Tersoff potentials; AZ91; composites; carbon short fibers; tensile strength; fatigue life; LCF; HCF; crystallization; high-performance metallic materials; solidification; steels; alloys

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Crystallization of High Performance Metallic Materials

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February 2025

192 pages

ISBN 978-3-7258-3274-3 (Hardback)
ISBN 978-3-7258-3273-6 (PDF)

https://doi.org/10.3390/books978-3-7258-3273-6

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This is a Reprint of the Special Issue Crystallization of High Performance Metallic Materials that was published in

Engineering

Summary

Crystallization generally describes the general material processing when a solid phase nucleates within the liquid or solid matrix. During the manufacturing phase, crystallization of metallic materials includes the new solid phase formation and growth during solidification as well as the subsequent phase transformations. This Special Issue includes the contributions from both experimental and simulation studies regarding different crystallization processes. Moreover, this Special Issue is suitable for academics and industry professionals, as they can obtain new ideas and insights regarding crystallization.