Reprint

Laser Surface Engineering for Tribology

Edited by
May 2024
224 pages
  • ISBN978-3-7258-0953-0 (Hardback)
  • ISBN978-3-7258-0954-7 (PDF)

This book is a reprint of the Special Issue Laser Surface Engineering for Tribology that was published in

Chemistry & Materials Science
Engineering
Summary

Tribology grapples with diverse challenges, seeking to minimize friction and wear, and to advance the energy efficiency and sustainability of machinery. Laser surface engineering emerges as a highly effective solution with which to tackle these challenges. Recent advancements in this field, including techniques like laser texture, laser deposition, laser cladding, and laser modification, have found widespread applications in tribology. Surface-strengthening coatings, prepared via laser manufacturing, stand out as one of the most efficient strategies to mitigate tribological issues. The laser processing-related techniques either alter the surface texture or create a new film, thereby enhancing the mechanical, physical, and chemical properties of the contact surfaces. These innovations have seamlessly integrated into various industrial applications. This comprehensive reprint encompasses surface texturing, laser processing, and post-machining. Various metals, such as cast iron, steel, high-entropy alloy, and Ti-based, Cu-based, Al-based, and Ni-based alloys, are explored in this reprint, with a dedicated focus on leveraging laser surface engineering for tribological enhancements. In the pursuit of ongoing advancements in this field, contributors participate in this reprint, encompassing the domains of laser surface engineering and tribology, in order to delve into and share their insights. We anticipate that this reprint will draw attention to key research trends and state-of-the-art developments in laser surface engineering for tribology.

Format
  • Hardback
License and Copyright
© 2024 by the authors; CC BY-NC-ND license
Keywords
laser cladding; heat treatment; inhomogeneity; T15; wear resistance; laser cladding; Ti5Si3/Ti3Al composite coatings; wear resistance; TA2 titanium alloy; supersonic laser deposition; Ti-coated diamond; diamond/copper composite coating; wear-resistant; nitriding; iron nitride; wear; corrosion; tribocorrosion; mild steel; laser cladding; in situ NbC-reinforced nickel-based coating; microstructure; microhardness; wear resistance; laser processing; textured surface; wear resistance; friction; boron doping; deformation mechanism; high-entropy alloys; nanostructured mixing layer; wear resistance; laser; dimple; tribology; friction; surface; SKH51; DED; Fe3Al; wear; Friction Coefficient (COF); emissions; brake disc; aluminum alloy; laser cladding; material system; research status; Inconel 718; laser metal deposition (LMD); additive manufacturing; machinability; minimum quantity lubrication (MQL); tool wear; cutting forces; energy consumption; wear resistance; laser cladding; microstructure; high-entropy alloy; corrosion; micro-alloying; laser cladding; Ni-based alloy; preheating temperature; friction and wear; electrochemistry; n/a

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