The use of biomedical metallic materials in research and clinical applications has been an
important focus and a significant area of interest, primarily owing to their role in enhancing …

NiTi alloys have drawn significant attentions in biomedical and aerospace fields due to their
unique shape memory effect (SME), superelasticity (SE), dam** characteristics, high …

In this work, NiTi shape memory alloys parts were additively manufactured using electron
beam freeform fabrication (EBF 3) under different processing parameters, including the …

Cu-based shape memory alloys (SMAs) show great potential in the application of high
temperature, but their performance improvement combining with additive manufacturing is …

Micro laser powder bed fusion (µ-LPBF) additive manufacturing presents enormous
potential in fabricating complex metallic micro-components (ie the component with a feature …

Additively manufactured metallic materials typically exhibit preferential< 001> or< 110>
crystallographic orientations along the build direction. Nowadays, the challenge is to …

Laser powder bed fusion of NiTi (LPBF-NiTi) alloys is gaining increasing attention and
applications because of its flexible design for complex structures with excellent …

In this work, NiTi samples with different thicknesses (0.15–1.00 mm) were fabricated by laser
powder bed fusion (LPBF) under variable scanning speeds (500–1200 mm s–1). The …

For the first time, this work comprehensively studied the effectiveness of precipitation
hardening achieved by aging treatment in improving the tensile superelasticity of NiTi alloys …

Bone-mimicking gradient porous NiTi shape memory alloys (SMAs) are promising for
orthopedic implants due to their distinctive superelastic functional properties. However …