Reprint

Laser Additive Manufacturing: Design, Materials, Processes and Applications, 2nd Edition

Edited by
August 2024
198 pages
  • ISBN978-3-7258-1720-7 (Hardback)
  • ISBN978-3-7258-1719-1 (PDF)

This is a Reprint of the Special Issue Laser Additive Manufacturing: Design, Materials, Processes and Applications, 2nd Edition that was published in

Chemistry & Materials Science
Engineering
Physical Sciences
Summary

Laser-based additive manufacturing (LAM) represents one of the most forward-thinking transformations in how we conceive, design, and bring to life engineered solutions. By fusing digital design with material layering processes, LAM transcends the limitations of traditional subtractive manufacturing and equal material manufacturing, enabling the realization of material–micro/macrostructure–performance integration previously considered unattainable. Building on the work in the first edition and sincere cooperation with the Guest Editors, the second edition will continue to concentrate on laser additive manufacturing, including macro- to micro-scale additive manufacturing with lasers, including structure design/material design, fabrication, modeling, and simulation; in situ characterization of additive manufacturing processes; and ex situ material characterization and performances, with an overview of various applications in aerospace, biomedicine, optics, transportation, energy, etc.

This Special Issue featured a diverse array of topics, publishing a total of 12 contributions (1 editorial, 1 review paper, and 10 original research papers), with over 17,000 views as of 15 July 2024. After the high-quality reviewing process, four articles were selected as Editor’s Choice.

Format
  • Hardback
License and Copyright
© 2024 by the authors; CC BY-NC-ND license
Keywords
highly reflective and thermally conductive metals; multi-material structures; laser powder bed fusion; interfacial characteristics; Ag alloy; Cu alloy; additive manufacturing; laser powder bed fusion; zirconium alloys; Zr-4; process optimization; selective laser melting; laser polishing; 316L stainless steel; surface morphology; electrochemical corrosion; selective laser melting; 17-4 PH steel; aging treatment regimes; microstructural evolution; mechanical properties; 3D printing; laser powder bed fusion; NiTi alloy; energy density; TPMS lattice; robotic cannula; mechanical testing; additive manufacturing; micro/nano 4D fabrication; smart materials; laser photochemistry; laser powder bed fusion (LPBF); NiTi SMAs; microstructure; mechanical response; building orientation; impurity elements; carbon fiber composites; adhesion strength; response surface methodology; optimization; laser process parameters; laser powder bed fusion; Ti-based composites; dynamic compressive properties; high strain rate; failure mechanism; wide-field auroral imager; main support structure; integrated thin-walled structure; active fitting optimization algorithm; additive manufacturing; in situ rolling; wire arc additive manufacturing; AerMet100 steel; tensile property; fracture toughness; n/a