Designing a composite material for use as a conductor in high‐field pulse magnets is a
challenging materials science problem. Three different approaches to designing such high …

We review microstructures and properties of metal matrix composites produced by severe
plastic deformation of multiphase alloys. Typical processings are wire drawing, ball milling …

The microstructure, mechanical properties, in vitro degradation behavior and
hemocompatibility of novel Zn–1Mg–0.1 Sr and Zn–1Mg–0.5 Sr (wt%) ternary alloys were …

High velocity electromagnetic forming can lead to better formability along with additional
benefits. The spatial distribution of forming pressure in electromagnetic forming can be …

We have studied deformation-driven alloying in a Cu–5 at.% Ag–3 at.% Nb in situ composite
by transmission electron microscopy and atom probe tomography. In addition to alloying at …

The properties and the microstructure of cold-drawn Cu–Ag and Cu–Nb composites have
been investigated for their potential use as conductors in pulsed high field magnets. Cu–Nb …

The microstructure and textures of nanostructured Cu-25wt% Ag are shown to relate to its
phase transformation, fabrication and mechanical properties. The analysis was undertaken …

A new class of ternary in situ metal matrix composites (MMCs) with high strength and high
electrical conductivity consisting of heavily co-deformed Cu, Cr, and Ag is introduced. Three …

High field magnets require the development and fabrication of large quantities of wire which
possess both high strength and high electrical conductivity (the latter is usually expressed as …

Choice of the most suitable material out of the universe of engineering materials available to
the designers is a complex task. It often requires a compromise, involving conflicts between …