Mechanical properties and microstructure of AA1050 after ECAE (Equal Channel Angular Extrusion)
K. J. Kim, Dong Yeol Yang, Jeong Whan Yoon, F. Barlat, Y. H. Moon, M. G. Lee
Abstract
K. J. Kim, Dong Yeol Yang, Jeong Whan Yoon, F. Barlat, Y. H. Moon, M. G. Lee
Abstract
Equal channel angular extrusion (ECAE) can effectively introduce large uniform plastic strain to bulk materials to produce ultrafine‐grained (UFG) materials. The present study attempts to apply the ECAE process to commercially pure aluminum (AA1050). ECAE with an intersecting angle of 90° processed at room temperature via routes A and C. The microstructural development of the deformed material was investigated using SEM‐EBSD measurements, and shear tests were conducted on the deformed material for mechanical testing.
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Equal channel angular extrusion (ECAE) can effectively introduce large uniform plastic strain to bulk materials to produce ultrafine‐grained (UFG) materials. The present study attempts to apply the ECAE process to commercially pure aluminum (AA1050). ECAE with an intersecting angle of 90° processed at room temperature via routes A and C. The microstructural development of the deformed material was investigated using SEM‐EBSD measurements, and shear tests were conducted on the deformed material for mechanical testing.
Key concepts: Equal channel angular extrusion, Materials science, Microstructure, Severe plastic deformation, Extrusion, Metallurgy, Aluminium, Electron backscatter diffraction