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Austenitic stainless steel is used popularly in industries such as housewares, piping, and vessels because of its excellent corrosion property. After solution-heat treatment, the steel has a fully metastable austenitic microstructure which can be transformed into martensite during an inelastic deformation process. This is proven to be responsible for outstanding mechanical properties such as high strength and excellent ductility in this steel.1,2) Some previous studies3,4) reported that the martensitic transformation in the steel is considered as an energy-dissipative mechanism occurring at the crack tip of pre-cracked specimen. Thus, fracture toughness of austenitic stainless steel is improved by phase transformation, especially at cryogenic temperature which the transformation is well-promoted. Although many research works3–7) focus on fracture-mechanical characteristics of this steel, most of them are conducted at low deformation rate and the impact fracture characteristics have still studAn Experimental Investigation on Rate Sensitivity of FractureMechanical Characteristics in 304 Austenitic Stainless Steel under Bending Deformation

An Experimental Investigation on Rate Sensitivity of Fracture-Mechanical Characteristics in 304 Austenitic Stainless Steel under Bending Deformation