Tremendous growth has been witnessed in the field of additive manufacturing (AM)
technology over the last few decades. It offers a plethora of applications and is already being …

Large-scale additive manufacturing for construction has gained momentum during the last
two decades as a promising fabrication technology that can save materials, labor, and costs …

Metal additive manufacturing (AM) technology is maturing. Although currently slower and
less reliable than traditional production methods, AM systems shine when producing parts …

Metal FDM process is a valid alternative to costly, energy consuming and less accessible
metal Additive Manufacturing technologies. Metal parts were fabricated by means of a low …

Metallic lattice structures can be fabricated by selective laser melting (SLM) with
purposefully designed pores and controlled pore sizes that can bio mimic the natural bone …

Additive manufacturing (AM) represents the present and the future of manufacturing
production, thanks to a new design paradigm that allows the customization of components …

The high cost of biofabricated titanium mesh plates can make them out of reach for hospitals
in low-income countries. To increase the availability of cranioplasty, the authors of this work …

The process of sintering involves applying pressure and heat to the materials without
melting them in order to fuse the particles together into a solid mass. The fusion between the …

Efficient density evolution during sintering of the as-printed component is vital to reach full
densification and required properties of binder jet (BJT) components. However, due to the …

This work investigates the impact of vacuum sintering and the microstructure-mechanical
properties relationship in binder jet additive manufacturing of 316 L. These two perspectives …