Reprint

Physical Metallurgy of Metals and Alloys

Edited by
July 2023
324 pages
  • ISBN978-3-0365-7804-0 (Hardback)
  • ISBN978-3-0365-7805-7 (PDF)

This book is a reprint of the Special Issue Physical Metallurgy of Metals and Alloys that was published in

Chemistry & Materials Science
Engineering
Physical Sciences
Summary

This reprint focuses on both advanced metals and their alloys and the areas of physical and process metallurgy, materials science, and processing techniques. Specific areas of interest also include titanium/nickel-based superalloys, intermetallics, advanced metallic materials, nanomaterials, metal matrix composites, functional materials, related synthesis and processing techniques, finite element modelling, statistical analysis, physical/mechanical property characterization, experimental validation, and other relevant phenomena. Physical metallurgy is important in the design and optimization of advanced materials with superior physical and mechanical properties through microstructural modifications and processing techniques. The goal of reprint was to bring together recent progress, novel technologies, and advanced equipment for the design and development of advanced metals and alloys and provide guidelines/benchmarks for further research in related areas. Composites, intermetallics, and nanomaterials as well as functional materials will be also included. Some of the recent advances in the field of advanced metals and alloys include novel material processing techniques, manufacturing methods and theories, microstructural characterization, modelling development, and advanced equipment. Conventional and nonconventional processes related to machining, forming, laser processing, additive/subtractive manufacturing, surface modification, and the solidification of high-performance alloys/metals are also included. 

Format
  • Hardback
License
© 2022 by the authors; CC BY-NC-ND license
Keywords
Fe-rich Al–Si alloy; β-Al5FeSi phase; cooling rate; melt spinning; microstructure; strengthening mechanisms; Zn-Mg-Ti alloy; biodegradable metals; mechanical properties; cytotoxicity; Fe-B-W alloy; manganese; aluminum; molten zinc; microanalysis; corrosion; hydrogenated–dehydrogenated titanium powder; laser directed energy deposition; microstructure; mechanical property; radio frequency plasma technique; high entropy alloy; bulk metallic glass; similar element substitution/addition; glass forming ability; lattice distortion; sapphire; surface metallization; deposition mechanism; wettability; low-temperature joining; silver alloy bonding wire; bonding strength; vulcanization resistance; cathodic passivation; Mg–Nd alloy; microstructure; precipitate; eutectic growth; modelling and simulation; aluminum; recrystallization; microstructure-property characterization simulation and modeling; heat treatment and surface treatment; TC4 alloy; EBCHM; aging treatment; microstructure; mechanical properties; glass-forming ability; corrosion behavior; amorphous alloy; bulk metallic glass; phase transformation; mechanical behavior; corrosion wear resistance; gear grinding; white layer; grinding temperature; surface integrity; AlSi10Mg alloy; friction stir processing; grain boundary; texture; dynamic recrystallization; silver wire; wire bonding; chloride ions; ion migration; galvanic corrosion; Cu-15Ni-8Sn alloys; grain size; solution treatment; microalloying; microstructural evolution; AlSi10Mg alloy; laser-powder bed fusion; friction stir processing; microstructure; mechanical properties; MgAl2O4; TiB2; metallothermic reduction; SHS powder metallurgy; combustion wave propagation; HSLA steel; microstructural characterization; laser welding; thick plate; corrosion resistance; high entropy alloys; microstructure; lightweight; magnesium alloys; ultrasound treatment; solution; aging; Mg17Al12; converter; vortex; flow field analysis; numerical simulation; steel ball; skew rolling; microstructure; cold forming; stainless steel; copper–scandium CuSc; copper alloy; differential scanning calorimetry DSC; precipitation kinetics; cold-working; cold-rolling; activation energy; Kissinger method