Abstract Additively manufactured Ti-6Al-4V lattices display unique mechanical and
biological properties by virtue of their engineered structure. These attributes enable the …

Electron beam melting (EBM) is a rapidly-develo** metal additive manufacturing process
that holds significant interest in the aerospace and biomedical industries for the high …

The advantage of 3D printing—that is, additive manufacturing (AM) of structural materials—
has been severely compromised by their disappointing fatigue properties,. Commonly, poor …

Ti-6Al-4V has been widely used in both the biomedical and aerospace industry, due to its
high strength, corrosion resistance, high fracture toughness and light weight. Additive …

The coupling effects of microstructure and macro-scale defects are significant for the fatigue
properties of metallic materials. However, this correlation is still vague for additively …

In recent years, there is an increased in used of titanium alloys for some parts of mass-
produced automobiles and aerospace. However, titanium alloys are characterized by …

The role of different microstructural constituents on crack initiation in two-phase titanium
alloys is still an area of great controversy. The present study investigates the effects of …

Fatigue crack initiation and short crack propagation was systematically investigated in a
rolled α/β Ti-6Al-4V alloy through a combination of in situ optical microscopy observations …

Fatigue life prediction based on the traditional empirical formulation in large fatigue regimes
is limited and prone to over-fitting. In this regard, we propose an integrated approach for …

Additive manufacturing (AM) has emerged as a powerful tool of manufacturing over
conventional manufacturing techniques due to its customization features, design flexibility …