Extremely high strength and work hardening ability in a metastable high entropy alloy
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[1] D. Raabe,et al. Enhanced strength and ductility in a friction stir processing engineered dual phase high entropy alloy , 2017, Scientific Reports.
[2] B. Hu,et al. High dislocation density–induced large ductility in deformed and partitioned steels , 2017, Science.
[3] D. Raabe,et al. Ab initio assisted design of quinary dual-phase high-entropy alloys with transformation-induced plasticity , 2017 .
[4] D. Raabe,et al. Strong and Ductile Non-equiatomic High-Entropy Alloys: Design, Processing, Microstructure, and Mechanical Properties , 2017, JOM.
[5] C. Tasan,et al. A TRIP-assisted dual-phase high-entropy alloy: Grain size and phase fraction effects on deformation behavior , 2017 .
[6] P. Rivera-Díaz-del-Castillo,et al. Understanding martensite and twin formation in austenitic steels: A model describing TRIP and TWIP effects , 2017 .
[7] C. Tasan,et al. Interstitial atoms enable joint twinning and transformation induced plasticity in strong and ductile high-entropy alloys , 2017, Scientific Reports.
[8] R. Mishra,et al. A framework for shear driven dissolution of thermally stable particles during friction stir welding and processing , 2016 .
[9] H. Hänninen,et al. Strain hardening of cold-rolled lean-alloyed metastable ferritic-austenitic stainless steels , 2016 .
[10] C. Schuh,et al. Six decades of the Hall–Petch effect – a survey of grain-size strengthening studies on pure metals , 2016 .
[11] C. Tasan,et al. Metastable high-entropy dual-phase alloys overcome the strength–ductility trade-off , 2016, Nature.
[12] D. C. Aken,et al. Thermodynamic Driving Force of the γ → ε Transformation and Resulting MS Temperature in High-Mn Steels , 2016, Metallurgical and Materials Transactions A.
[13] D. Raabe,et al. The influence of stacking fault energy on the microstructural and strain-hardening evolution of Fe–Mn–Al–Si steels during tensile deformation , 2015 .
[14] P. Liaw,et al. Friction Stir Processing of a High Entropy Alloy Al0.1CoCrFeNi , 2015 .
[15] D. Raabe,et al. The influence of manganese content on the stacking fault and austenite/ε-martensite interfacial energies in Fe–Mn–(Al–Si) steels investigated by experiment and theory , 2014 .
[16] R. Xiong,et al. Thermodynamic calculation of stacking fault energy of the Fe–Mn–Si–C high manganese steels , 2014 .
[17] H. Bhadeshia. Twinning-Induced Plasticity Steels , 2012 .
[18] D. Ponge,et al. Design of a novel Mn-based 1 GPa duplex stainless TRIP steel with 60% ductility by a reduction of austenite stability , 2011 .
[19] M. Calcagnotto,et al. Orientation gradients and geometrically necessary dislocations in ultrafine grained dual-phase steels studied by 2D and 3D EBSD , 2010 .
[20] S. Kaloshkin,et al. Face-centered cubic phase stability and martensitic transformation under deformation in Fe-Ni and Fe-Mn alloys nanostructured by mechanical alloying and high-pressure torsion , 2008 .
[21] D. Ponge,et al. Improvement of the work hardening rate of ultrafine grained steels through second phase particles , 2005 .
[22] T. Shun,et al. Nanostructured High‐Entropy Alloys with Multiple Principal Elements: Novel Alloy Design Concepts and Outcomes , 2004 .
[23] A. Rabinkin,et al. A study of γ → ε phase transformation in FeMn alloys induced by high pressure and plastic deformation , 1978 .
[24] Y. Estrin,et al. Twinning-induced plasticity (TWIP) steels , 2018 .
[25] D. Rafaja,et al. Deformation of Austenitic CrMnNi TRIP/TWIP Steels: Nature and Role of the ɛ−martensite , 2015 .