Additive manufacturing (AM) advances the use of complex-geometry aluminum (Al) alloys for lightweight aerospace components. However, AM of high-strength Al alloys is challenging due to their inherent high susceptibility to cracking. Inoculating with scandium or zirconium effectively suppresses cracking in AM Al alloys...
Chao-Lin Tan, Li Zhao, Tian-Shu Liu et al.· Advances in Materials· 1 citation
Magnesium alloys have emerged as essential materials in biomedical applications due to their biocompatibility and biodegradability. However, the complex geometries and specialized qualities required for sophisticated implants are beyond the reach of traditional manufacturing methods. To overcome these issues, this work...
W. Tayier, S. Janasekaran· Jurnal Kejuruteraan· 0 citations
Multi-metal additive manufacturing (MM-AM) enables the fabrication of components with spatially tailored properties; however, achieving robust structural integrity at dissimilar metal interfaces remains a central technical challenge. This review critically examines interfacial design and processing strategies in MM-A...
Vinay Kenny, Guang Yang, S. Bapat et al.· Progress in Additive Manufac...· 0 citations
Additive manufacturing (AM) has expanded the use of titanium and its alloys in aerospace, biomedical, marine, and automotive components, but the rapid melting–solidification cycles inherent to AM leave characteristic surface defects—balling, partially melted particles, scan-track ridges, and near-surface porosity—that...
Shin Young Oh, Jiwon Kim· Frontiers in Chemistry· 0 citations
Achieving high power density and ultra-high efficiency in electrical machines requires overcoming the inherent 2D geometric constraints of conventional mass-manufacturing methods. In this context, additive manufacturing (AM) enables the fabrication of complex, highly integrated components and emerges as a transformativ...
Ali Yalçın, Zafer Doğan, S. Dilibal· Journal of Mechatronics and...· 0 citations