Metal-based additive manufacturing (AM) processes often produce parts with improved
properties compared to conventional manufacturing and metal working routes. However …

The microstructure of metals depends on the additive manufacturing (AM) process and the
process parameters. However, experimentation on different process parameters for different …

Additive Manufacturing (AM) processes enable the reduction of manufacturing time, material
waste, and allows for the creation of complex structures. However, anisotropic mechanical …

Metal additive manufacturing is increasingly used as a complementary manufacturing
technique in industrial settings and slowly moving from pure prototyping applications toward …

Laser metal additive manufacturing technologies enable the fabrication of geometrically and
compositionally complex parts unachievable by conventional manufacturing methods …

As metallic additive manufacturing grew in sophistication, users have requested greater
control over the systems, namely the ability to fully change the process parameters. The goal …

Among the many additive manufacturing (AM) processes for metallic materials, selective
laser melting (SLM) is arguably the most versatile in terms of its potential to realize complex …

Laser-powder bed fusion (L-PBF) additive manufacturing involves complex physics such as
heat transfer and molten metal flow, which have a significant influence on the final build …

Powdered metal additive manufacturing technology shows great promise in the aerospace
industry. Accurately simulating the associated processes will allow process windows and …

Digital technology such as metal additive manufacturing (AM) provides flexible process
design freedom to fabricate intricate three-dimensional structures layer-by-layer. However …