Reprint
Scientific and Engineering Progress on Aluminum-Based Light-Weight Materials: Research Reports from the German Collaborative Research Center 692
Edited by
September 2018
196 pages
- ISBN978-3-03897-196-2 (Paperback)
- ISBN978-3-03897-197-9 (PDF)
This book is a reprint of the Special Issue Scientific and Engineering Progress on Aluminum-Based Light-Weight Materials: Research Reports from the German Collaborative Research Center 692 that was published in
Chemistry & Materials Science
Engineering
Summary
Aluminum-based light-weight materials offer great potential for novel engineering applications, particularly when they are optimized to exhibit high strength and yet provide sufficient reliability. The last decade has thus seen substantial activity in the research fields of high-strength aluminum alloys and aluminum-based composite materials.For twelve years, backed by solid funding from the German Research Foundation (Deutsche Forschungsgemeinschaft, DFG), scientists of the Collaborative Research Center, “High-strength aluminum-based light-weight materials for safety components” (SFB 692) at TU Chemnitz, Germany, have contributed to this research area. Our research efforts have been focused on three main areas: ultrafine-grained aluminum alloys produced by severe plastic deformation; aluminum matrix composites; and aluminum-based composite materials (including material combinations such as magnesium/aluminum or steel/aluminum and the corresponding joining and forming technologies). The framework of SFB 692 has served as a base for numerous scientific collaborations between scientists in the fields of materials science, design engineering, production engineering, mechanics, and even economics—in Chemnitz, and with many well-established international experts around the world.In this Special Issue, we present recent results on high-strength aluminum-based light-weight materials that also provide a broad overview of research activities in SFB 692 and elsewhere.<false,>
Format
- Paperback
License
© 2019 by the authors; CC BY license
Keywords
metal matrix composite; high cycle fatigue; high temperature properties; particulate reinforcement; aluminum alloy; aluminum alloy; cold extrusion; warm extrusion; severe plastic deformation (SPD); dynamic aging; precipitation hardening; equal-channel angular pressing; ECAP; shear band; matrix band; kinematic hardening; FEM; strain localization; equal-channel angular pressing (ECAP); low temperature; cryogenic deformation; SPD-processes; high strength aluminum alloy; AA7075; AlZnMgCu-alloy; ultra-fine grained (UFG); serrated flow; PLC effect; dynamic strain aging; particle reinforcement; acoustic emission; jump tests; aluminum alloy; aluminium; aluminium matrix composite; burnishing; finishing; forming; metal forming; metal matrix composite; residual stress; roller burnishing; surface integrity; severe plastic deformation (SPD); microstructural gradient; ultrafine-grained (UFG); gradation extrusion; aluminum alloy; grain refinement; material composite; Al; Mg; co-extrusion; die forging; interface; FEM; aluminum matrix composites; creep behavior; Raman microscopy; Al3BC; particle reinforced; powder metallurgy; numerical modeling; finite element method; large deformations; plasticity; aluminum; compression tests; torsion tests; shaft-hub connection; camshaft; diffusion bonding; aluminum; magnesium; interlayer; titanium; silver; PVD-coating; microstructure; tensile testing; fracture surface analysis; anodic oxidation; additives; aluminum alloy AlCu4Mg1; nitric acid; oxalic acid; hardness; porosity; energy efficiency; scratch resistance; aluminum matrix composites; light-weight materials; aircraft industry; integrated technology; user; and market analysis and forecast; cost and revenues; aluminium; magnesium; hydrostatic extrusion; compound; channel compression test; microstructure; fragmentation; arc brazing; brazing fillers; microstructure; wettability; aluminium matrix composite; AMC; stainless steel; aluminium; joining; aluminum alloys; aluminum matrix composites; aluminum-magnesium composites; severe plastic deformation; ultrafine-grained materials; equal-channel angular pressing; forming technology; materials science; surface engineering; mechanics and modeling