Difficult-to-cut alloys, which include titanium, cobalt, nickel alloys, and high-strength and
heat-resistant steels, can nowadays be manufactured using selective melting (SLM), and …

Abstract Laser Powder Bed Fusion (L-PBF) is an innovative metal Additive Manufacturing
process that enables the production of highly complex parts with unique precision, making it …

Abstract Laser Additive Manufacturing (LAM) presents unparalleled opportunities for
fabricating complex, high-performance structures and components with unique material …

The manufacture of defect-free and dimensionally accurate parts in laser powder bed fusion
(LPBF) is influenced by temperature field, deposited track geometry, and process-induced …

Laser-based spatial manipulation for welding, surface modification, and additive
manufacturing presents challenges centred around controlling the thermal field's impact on …

In this paper, we explain and quantify the causal effect of processing parameters and part-
scale thermal history on the evolution of microstructure and mechanical properties in the …

In the laser powder bed fusion additive manufacturing process, the quality of fabrications is
intricately tied to the laser–matter interaction, specifically the formation of the melt pool. This …

Abstract Cracking during Laser Additive Manufacturing is a problem for many higher-
strength aluminium alloys, including AA6061. Here, we used a pulsed laser with ramp-down …

Today, tailored laser beams are rarely used and thus an opportunity to optimize existing or
introduce new processes is missed. New methods of dynamic beam shaping have the …

As digital manufacturing is being implemented across industries, the automation of the laser
welding process is a crucial step to enhance production efficiency. To monitor the in-situ …