Aerospace is a key market driver for the advancement of additive manufacturing (AM) due to
the huge demands in high-mix low-volume production of high-value parts, integrated …

The powder metallurgy (PM) of titanium alloys has received more and more attention in
structural and biomedical applications owing to its low cost, near-net-shape formability, and …

Titanium alloys are advanced lightweight materials, indispensable for many critical
applications,. The mainstay of the titanium industry is the α–β titanium alloys, which are …

Excessive interstitial oxygen (O) contamination, usually causing a dramatic loss of ductility,
remains a longstanding challenge for titanium (Ti) and its alloys. Here, we propose to solve …

Titanium alloy composites, reinforced with a light second phase and made using
inexpensive powder metallurgy, attract considerable attention due to the directness of their …

Gas-solid fluidization is an innovative route to produce cost-effective HDH CP-Ti powders for
additive manufacturing. Herein, oxidation behavior of Ti powders after fluidization was …

Oxygen content has always been limited in commercial titanium and titanium alloys due to
its propensity to induce a severe ductility loss. Yet, its effect on the macroscopical behavior …

Pure titanium is an ideal material for tissue replacements and implant materials for its
superior biocompatibility and corrosion resistance, but its limited strength remains a major …

To prevent oxygen contamination, additive manufacturing (AM) techniques normally operate
in an inert gas chamber (GC). An alternative method, useful for large builds and components …

Powder reuse has become a central issue in the pursuit to industrialize metal Additive
Manufacturing (AM). Furthermore, build porosity is a critical concern to component reliability …