steel research international · 2012 · 23 citations · 24 references
Natural SciencesMaterials EngineeringMaterials ScienceMechanical Behavior Of MaterialsMetallurgySolid MechanicsAlloysDeformation MechanismsDuctilityMechanical CharacterizationSteel MaterialsStress-strain BehaviorAustenitic SteelsCompressive StrainDeformation Under Compressive LoadingFlow StressFlow Stress ModelingMartensitic MicrostructureMicrostructureStructural Ductility
Abstract For the modeling of the mechanical behavior of a two phase alloy with the rule of mixture (RM), the flow stress of both phases is needed. In order to obtain these information for the α′‐martensite in high alloyed TRIP‐steels, compression tests at cryogenic temperatures were performed to create a fully deformation‐induced martensitic microstructure. This martensitic material condition was subsequently tested under compressive loading at −60, 20, and 100°C and at strain rates of 10 −3 , 10 0 , and 10 3 s −1 to determine the mechanical properties. The α′‐martensite possesses high strength and surprisingly good ductility up to 60% of compressive strain. Using the flow stress behavior of the α′‐martensite and that of the stable austenitic steel AISI 316L, the flow stress behavior of the high alloyed CrMnNi TRIP‐steel is modeled successfully using a special RM proposed by Narutani et al.
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