Co-Ni-Ga high-temperature shape memory alloy is additively processed by selective laser melting for the first time. Reversible martensitic transformation of the as-built material is proven by differential scanning calorimetry. Microstructural analysis reveals a columnar-grained microstructure resulting from epitaxial solidification. Columnar-grained microstructures are characterized by a very low degree of constraints being beneficial for superior functional performance in numerous shape memory alloys. However, process-induced crack formation remains a challenge towards robust realization of adequate conditions showing good mechanical properties
Due to unique functional and mechanical properties, NiTi shape memory alloys are one of the most pro...
The elaboration of fine grain shape memory alloys is required to improve the mechanical properties a...
Shape memory alloys (SMAs) are functional materials that are being applied in practically all indust...
Co-Ni-Ga high-temperature shape memory alloy is additively processed by selective laser melting for ...
Ni-Mn-Ga magnetic shape memory alloy was processed by laser metal deposition, an additive manufactur...
Microstructure design allows to prevent intergranular cracking and premature failure in Co–Ni–Ga sha...
Additive manufacturing (AM) of magnetic shape-memory alloys (MSMAs) allows fuller use of geometry in...
Microstructure design allows to prevent intergranular cracking and premature failure in Co–Ni–Ga sha...
Ni-Mn-Co-Ga alloys with Ni/Mn or Ni and Mn substituted by Co were investigated as candidates for hig...
National Natural Science Foundation of China [50921003]; Beijing Nova Program (BNP); New Century Exc...
Additive Manufacturing allows to design and realize 3D parts, integrating additional functionalities...
Shape memory alloys (SMAs) are metals that can “remember” the shape they were in before deformation...
The paper explores the applicability of laser-assisted synthesis for producing high density Cu-Al-Ni...
Among Ferromagnetic Shape Memory Alloys (FSMAs), Co-Ni-Ga ternary alloys have attracted great attent...
[eng] Due to unique functional and mechanical properties, NiTi shape memory alloys are one of the mo...
Due to unique functional and mechanical properties, NiTi shape memory alloys are one of the most pro...
The elaboration of fine grain shape memory alloys is required to improve the mechanical properties a...
Shape memory alloys (SMAs) are functional materials that are being applied in practically all indust...
Co-Ni-Ga high-temperature shape memory alloy is additively processed by selective laser melting for ...
Ni-Mn-Ga magnetic shape memory alloy was processed by laser metal deposition, an additive manufactur...
Microstructure design allows to prevent intergranular cracking and premature failure in Co–Ni–Ga sha...
Additive manufacturing (AM) of magnetic shape-memory alloys (MSMAs) allows fuller use of geometry in...
Microstructure design allows to prevent intergranular cracking and premature failure in Co–Ni–Ga sha...
Ni-Mn-Co-Ga alloys with Ni/Mn or Ni and Mn substituted by Co were investigated as candidates for hig...
National Natural Science Foundation of China [50921003]; Beijing Nova Program (BNP); New Century Exc...
Additive Manufacturing allows to design and realize 3D parts, integrating additional functionalities...
Shape memory alloys (SMAs) are metals that can “remember” the shape they were in before deformation...
The paper explores the applicability of laser-assisted synthesis for producing high density Cu-Al-Ni...
Among Ferromagnetic Shape Memory Alloys (FSMAs), Co-Ni-Ga ternary alloys have attracted great attent...
[eng] Due to unique functional and mechanical properties, NiTi shape memory alloys are one of the mo...
Due to unique functional and mechanical properties, NiTi shape memory alloys are one of the most pro...
The elaboration of fine grain shape memory alloys is required to improve the mechanical properties a...
Shape memory alloys (SMAs) are functional materials that are being applied in practically all indust...