Additive Manufacturing and Mechanical Properties of Titanium Alloys
This research community focuses on the production and performance of titanium alloys, specifically examining how manufacturing methods like laser and electron beam additive manufacturing influence the material's structure and durability.
The work centers on Ti-6Al-4V and other titanium alloys, with a heavy emphasis on additive manufacturing techniques such as laser powder bed fusion and electron beam melting. Researchers investigate the resulting microstructure, mechanical behavior, and corrosion resistance, often using finite element analysis to model performance. A significant portion of the literature addresses fatigue life and the effects of heat treatment or shock peening on the final material properties. While titanium dominates the subject matter, the community also includes work on stainless steel and aluminum alloys, particularly regarding their surface integrity and deformation mechanisms under various processing conditions.
The community is most heavily represented in titanium research, where it accounts for 7.9% of all tracked papers for that element. This group also contributes a smaller share to research on aluminium (0.9%) and zirconium (0.6%).
The community comprises 40,403 papers, with the highest volume published in the Journal of Alloys and Compounds, Journal of Materials Research and Technology, and Materials Science and Engineering: A.
Recent work continues to explore the mechanical properties of additively manufactured titanium structures, including the design of lattice frameworks and the optimization of strength-ductility synergy through advanced alloy design and processing techniques.