Reprint

Innovative Technologies and Materials for the Production of Mechanical, Thermal and Corrosion Wear-Resistant Surface Layers and Coatings

Edited by
November 2023
282 pages
  • ISBN978-3-0365-9093-6 (Hardback)
  • ISBN978-3-0365-9092-9 (PDF)

This book is a reprint of the Special Issue Innovative Technologies and Materials for the Production of Mechanical, Thermal and Corrosion Wear-Resistant Surface Layers and Coatings that was published in

Chemistry & Materials Science
Engineering
Physical Sciences
Summary

Welding technologies of applying surface layers from innovative metal, ceramic, and cermet materials, called heat surfacing and spraying, are an important component of rational repair management and modern design of machine parts and devices with special operating properties. This reprint, which is a collection of current scientific works by international authors in the field of surface coating with welding technologies, presents the following:· Analysis of the causes of wear of working surfaces of machine parts and equipment;· Description of most materials used in world industry for surfacing and thermal spraying;· Extensive discussion of all modern technologies of applying surface layers (from gas cladding, through plasma spraying, to laser cladding);· Examples of technological conditions of surfacing and thermal spraying processes of parts of various types and shapes.The Editors of this Special Issue, titled "Innovative Technologies and Materials for the Production of Mechanical, Thermal and Corrosion Wear-Resistant Surface Layers and Coatings", recommend this reprint to students of materials engineering and welding engineers. Undoubtedly, its reprint should be in the handy library of everyone who professionally deals with welding, especially repair management.

Format
  • Hardback
License
© 2022 by the authors; CC BY-NC-ND license
Keywords
Inconel 625; metal matrix composite; laser cladding; erosive wear; PPTAW; cladding; deposition; abrasion; impact load; titanium carbide; synthetic metal–diamond composite; PPTAW; cladding; deposition; abrasion; impact load; tungsten carbide; synthetic metal–diamond composite; nanostructured hardmetals; Co content; GGIs; chemical nature of Co binder; grain size; electrochemical corrosion resistance; H2SO4 + CO2; hybrid welding; steel S960QL; HLAW; laser beam; MAG metal active gas; transmission line model (TLM) method; potential difference (PD) method; contact resistance; resistivity; silicon solar cells; I–V characteristics; PPTAW; cladding; deposition; impact strength; brittle fracture strength; tungsten carbide; titanium carbide; titanium diboride; synthetic polycrystalline diamond; aluminum matrix composites; silicon carbide; glassy carbon; GTAW welding; tribological test; transition metal carbides; NiBSi alloy; phase interaction; PTAW; composite layers; High Velocity Oxy Fuel; AZ31 magnesium alloy; microstructure; X-ray diffraction; residual stress analysis—sin2ψ method; cavitation corrosion; wear; surface engineering; roughness; nickel; cobalt; tribology; hardness; erosion rate; failure analysis; MCrAlY; high-temperature brittleness range; hot cracking; TIG welding; transvarestraint test; Inconel 713C; nickel alloy; LDMD; cladding; deposition; titanium carbide; synthetic polycrystalline diamond; corrosion resistance; magnesium alloy; bioresorbable stent; parylene C; surface coating; erosion; wear; corrosion; sand; plug flow; elbow; erosion; wear; U-bends; discrete phase model; sand; elbow