Lanzhou
China
Lanzhou University of Technology
Inconel 625 (A), Wire laser additive manufacturing (B), Subgrain segregation (C), Intergranular corrosion (C)
titanium (A), welding (C), hydrogen embrittlement (C), damage (C)
Laser cladding, Stellite 6 alloy, Cracks, Microstructure, Erosion resistance
Titanium matrix composites (A), Wire-based laser direct energy deposition (B), Laser-induced nitriding in-situ synthesis (B), Microstructure (C), Strengthening mechanisms (C)
Inconel 625 (A), Wire laser additive manufacturing (B), Subgrain segregation (C), Heat treatment (C)
Ultra-high-speed laser cladding, Stellite 6, ZL101A aluminum alloy, Cavitation erosion, Microhardness, Microstructure
Inconel 625 alloy (A), full-domain power modulation laser welding (B), elemental segregation (C), columnar-to-equiaxed transition (C), molten-salt corrosion (C)
Keywords: Inconel 625 (A), Wire-laser additive manufacturing (B), Subgrain segregation (C), γ″ precipitates (C), Synergistic strengthening (C)
Low-alloy steel (A), Narrow edge lap resistance seam welding (B), Cold rolling (C), Fracture mechanism (C), Microstructural evolution (C)
Laser-arc coaxial hybrid additive manufacturing, Low-rare-earth magnesium alloy, High-temperature creep, Strengthening phases, Creep mechanism
Duplex stainless steels, Intergranular corrosion, segregation, Cr-depletion
Titanium matrix composites (A), Wire-based laser direct energy deposition (B), In-situ nitriding (B), Microstructure evolution (C), Strengthening mechanisms (C)
Laser powder bed fusion, Inconel 718, powder oxygen content, laser absorptivity, Laves phase, mechanical properties
