Additive manufacturing (AM) of stainless steel is more difficult than other metallic materials,
as the major alloying elements of the stainless steel are prone to oxidation during the …

Plate impact experiments are conducted on a representative, low-alloy, 24CrNiMo steel
(containing lath martensite substructures) fabricated via laser powder bed fusion and …

The effect of the scanning speed on the fatigue behavior of Laser Powder Bed Fusion
(LPBF)-fabricated 316L steel is investigated in this paper. To this end, fatigue limits of …

The microstructure and mechanical properties of IN625 alloy processed by laser powder
bed fusion (LPBF) and then subjected to stress relief annealing, high temperature solution …

During the process of selective laser melting (SLM), spatter is generated with a negative
impact on the performance of parts. Two types of spatter have been identified: droplet …

The microstructures induced by the laser-powder bed fusion (L-PBF) process have been
widely investigated over the last decade, especially on austenitic stainless steels (AISI 316L) …

The microstructure and mechanical properties of high‐speed steel AISI M50 (80MoCrV42‐
16, Mat. Nr. 1.3551), produced by laser powder bed fusion (LPBF), are analyzed. The …

This study investigates the microstructure and mechanical properties of 316L stainless steel
(316LSS) samples fabricated by additive manufacturing (AM), in order to optimise the …

Due to varying thermal cycles, the resulting microstructure of metal additive manufacturing
differs from the conventionally processed counterpart alloys. Since the mechanical …

The effects of powder characteristics (powder shape, size and type) and processing
conditions (laser power and scanning speed) on the mechanical properties and …