Reprint

Metal-Polymer Multi-Material Structures and Manufacturing Techniques in Transportation

Edited by
July 2020
186 pages
  • ISBN978-3-03936-150-2 (Hardback)
  • ISBN978-3-03936-151-9 (PDF)

This book is a reprint of the Special Issue Metal-Polymer Multi-Material Structures and Manufacturing Techniques in Transportation that was published in

Chemistry & Materials Science
Engineering
Physical Sciences
Summary

The reduction of greenhouse gas emissions—particularly from fossil fuel-powered vehicles and airplanes by means of weight savings and leaner fuel consumption, helps to restrain environmental impacts. In general, for a variety of industries, and specifically in the case of transport, where both weight savings and increased energy efficiency are pursued, the use of metal–polymer multi-material structures has been growing at an increasing and particularly fast pace in recent years. Several manufacturing techniques have been, or are being, developed, with the aim of being used for producing dissimilar materials in cost-efficient manners. This book presents recent developments in the state of the art of advanced additive manufacturing and the joining of metal–polymer multi-material structures in transportation. This publication mainly focuses on the correlations between microstructure, manufacturing process (i.e., AddJoining, adhesive bonding, friction riveting, friction-based staking and friction spot joining) properties, and the mechanical performance of metal–polymer multi-material structures.

Format
  • Hardback
License
© 2020 by the authors; CC BY-NC-ND license
Keywords
friction; riveting; hybrid structures; joining; response surface; friction; riveting; hybrid structures; joining; response surface; Friction Riveting; clamping influence; joint formation; mechanical properties; AddJoining; FDM; additive manufacturing; aluminum 2024-T3; ABS; metal–polymer; Friction Spot Joining; aluminium alloys; fibre reinforced composites; friction; mechanical properties; polymer-metal-hybrid; surface pretreatment; mechanical interlocking; roughness evaluation; interlaminar shear strength; interlaminar tensile strength; stainless steel foil; stress distribution; hybrid material; non-destructive testing; digital image correlation; staking; hybrid structures; microstructural change; amorphous polymer; joining; friction spot joining; fiber reinforced composites; aluminum alloys; aging; outdoor environmental durability; mechanical properties; n/a