Metal additive manufacturing has seen extensive research and rapidly growing applications
for its high precision, efficiency, flexibility, etc. However, the appealing advantages are still …

As an advanced and revolutionary technology, additive manufacturing (AM) has received
significant research attention in the field of materials processing. It is also gradually being …

Making laser powder bed fusion (L-PBF) additive manufacturing process sustainable
requires effective powder recycling. Recycling of Ti6Al4V powder in L-PBF can lead to …

As metal additive manufacturing (MAM) becomes more widely used in engineering, an
increasing number of novel lattice structures are being developed. However, most recently …

Ag and Cu have different advantages and are widely used in key fields due to their typical
highly electrical and thermal conductive (HETC) properties. Laser powder bed fusion …

Metallic biomedical implants are made from materials such as stainless steel, titanium,
magnesium, and cobalt-based alloys. As a degradable biometal, magnesium (Mg) and its …

To develop self-recovery intelligent components based on resistance heating and obtain
satisfactory performance in practical applications, this study optimized the forming quality …

Laser-powder bed fusion process (L-PBF) is one of the most widespread additive
manufacturing processes for metallic materials, where powder layers are successively …

The laser powder bed fusion process, a prominent additive manufacturing method, involves
intricate thermal dynamics and stress distribution. Despite the mature knowledge base in …

The leverage of selective laser melting (SLM) successfully fabricate metal matrix composites
(MMCs) metamaterials with freeform intricate triply periodic minimal surface (TPMS) …