Thermohydrogen processing is a technique in which hydrogen is used as a temporary
alloying element in titanium alloys to control the microstructure and improve the final …

The tensile properties, mode I fracture toughness (K Ic), fatigue crack growth behavior, and
unnotched fatigue strength of additively manufactured Ti-6Al-4V (Ti64) alloy using selective …

Abstract PAW (Plasma Arc Welding), a WAAM (Wire Arc Additive Manufacturing) technology
with high deposition rates, can produce metallic components, layer by layer, of varied sizes …

Crystallographic texture was measured on Ti–6Al–4V wire at several stages of a process
similar to that used in producing titanium products. As-received wire had a moderately …

Ti–6Al–4V parts made by the additive manufacturing (AM) technique selective laser melting
(SLM) generally show poor ductility due to their fine martensitic microstructure. This study …

This study investigated the effect of laser power on the properties of Ti-6Al-4V alloy parts
produced by additive manufacturing. The printing study was carried out using the laser …

Hydrogen uptake in titanium alloys leads to the formation of hydride phases, which in-turn
cause severe embrittlement upon further deformation. The embrittlement micro-mechanisms …

Additive manufacturing (AM) has shown the ability in processing titanium alloys. However,
due to the unique thermal history in AM, the microstructure of AM-fabricated parts is …

Hydrogen has been investigated for decades as a temporary alloying element to refine the
microstructure of Ti–6Al–4V, and is now being used in a novel powder metallurgy method …

Abstract Ti–6Al–4V alloy is lightweight, heat treatable and machinable with excellent
strength characteristics. These properties favor its extensive applications in the automobile …