Fe−Mn−Al−C high-entropy steels with superior mechanical properties at 4.2 K

[1]  Heng Zhang,et al.  Simultaneously enhancing strength-ductility synergy and strain hardenability via Si-alloying in medium-Al FeMnAlC lightweight steels , 2022, Acta Materialia.

[2]  R. Umretiya,et al.  The Relationship Between Grain Size Distribution and Ductile to Brittle Transition Temperature in FeCrAl Alloys , 2022, Materials Letters.

[3]  Di Wang,et al.  Temperature-dependent dynamic compressive properties and failure mechanisms of the additively manufactured CoCrFeMnNi high entropy alloy , 2022, Materials & Design.

[4]  Z. Liu,et al.  Quasi-in-situ observations of crack propagation and microstructure evolution of high manganese austenitic steel at −196 °C , 2022, Engineering Fracture Mechanics.

[5]  Chaoyue Chen,et al.  Strength-ductility synergy of CoCrNi medium-entropy alloy processed with laser powder bed fusion , 2022, Materials & Design.

[6]  Shijian Zheng,et al.  Dynamically reversible shear transformations in a CrMnFeCoNi high-entropy alloy at cryogenic temperature , 2022, Acta Materialia.

[7]  W. Wang,et al.  Effect of Co on phase stability and mechanical behavior of CoxCrFeNiMnAl0.3 high entropy alloys with micro/nano hierarchical structure , 2022, Materials & Design.

[8]  W. Wang,et al.  Mechanical properties and microstructure evolution of cryogenic pre-strained 316LN stainless steel , 2021, Cryogenics.

[9]  Qi-yuan Chen,et al.  Effect of secondary twins on strain hardening behavior of a high manganese austenitic steel at 77 K by quasi in situ EBSD , 2021, Materials Characterization.

[10]  K. Dahmen,et al.  Deformation behavior of a Co-Cr-Fe-Ni-Mo medium-entropy alloy at extremely low temperatures , 2021, Materials Today.

[11]  Jun Chen,et al.  High carbon alloyed design of a hot-rolled high-Mn austenitic steel with excellent mechanical properties for cryogenic application , 2021, Materials Science and Engineering: A.

[12]  Jun Chen,et al.  Deformation microstructures as well as strengthening and toughening mechanisms of low-density high Mn steels for cryogenic applications , 2021, Journal of Materials Research and Technology.

[13]  Yi-Ting Lin,et al.  Mechanism of twinning induced plasticity in austenitic lightweight steel driven by compositional complexity , 2021 .

[14]  Qi-yuan Chen,et al.  Role of vanadium additions on tensile and cryogenic-temperature charpy impact properties in hot-rolled high-Mn austenitic steels , 2021 .

[15]  Y. Chiu,et al.  Synergistic deformation pathways in a TWIP steel at cryogenic temperatures: In situ neutron diffraction , 2020 .

[16]  Peng Chen,et al.  The κ-Carbides in Low-Density Fe-Mn-Al-C Steels: A Review on Their Structure, Precipitation and Deformation Mechanism , 2020, Metals.

[17]  Jun Chen,et al.  Enhancing strength and cryogenic toughness of high manganese TWIP steel plate by double strengthened structure design , 2020 .

[18]  T. Hanemann,et al.  Comparison of cryogenic deformation of the concentrated solid solutions CoCrFeMnNi, CoCrNi and CoNi , 2020, Materials Science and Engineering: A.

[19]  Qi-yuan Chen,et al.  On Mechanical Properties of Welded Joint in Novel High-Mn Cryogenic Steel in Terms of Microstructural Evolution and Solute Segregation , 2020, Metals.

[20]  Mingxin Huang,et al.  The role of interstitial carbon atoms on the strain-hardening rate of twinning-induced plasticity steels , 2020 .

[21]  Yuan Wu,et al.  Cooperative deformation in high-entropy alloys at ultralow temperatures , 2020, Science Advances.

[22]  S. Sohn,et al.  Effects of Ni and Cu addition on cryogenic-temperature tensile and Charpy impact properties in austenitic 22Mn-0.45C–1Al steels , 2020 .

[23]  F. Yuan,et al.  High impact toughness of CrCoNi medium-entropy alloy at liquid-helium temperature , 2019, Scripta Materialia.

[24]  R. Ritchie,et al.  Mechanical properties of high-entropy alloys with emphasis on face-centered cubic alloys , 2019, Progress in Materials Science.

[25]  P. Liaw,et al.  Excellent ductility and serration feature of metastable CoCrFeNi high-entropy alloy at extremely low temperatures , 2018, Science China Materials.

[26]  Jun Chen,et al.  Interpretation of significant decrease in cryogenic-temperature Charpy impact toughness in a high manganese steel , 2018, Materials Science and Engineering: A.

[27]  Wei Li,et al.  Hierarchical microstructure design of a bimodal grained twinning-induced plasticity steel with excellent cryogenic mechanical properties , 2018, Acta Materialia.

[28]  Mingxin Huang,et al.  Revisit the role of deformation twins on the work-hardening behaviour of twinning-induced plasticity steels , 2018 .

[29]  Y. Estrin,et al.  Twinning-induced plasticity (TWIP) steels , 2018 .

[30]  K. An,et al.  Twinning-mediated work hardening and texture evolution in CrCoFeMnNi high entropy alloys at cryogenic temperature , 2017 .

[31]  A. Haldar,et al.  Current state of Fe-Mn-Al-C low density steels , 2017 .

[32]  Hyoung-Seop Kim,et al.  Continuum understanding of twin formation near grain boundaries of FCC metals with low stacking fault energy , 2017, npj Computational Materials.

[33]  Dierk Raabe,et al.  Ultrastrong steel via minimal lattice misfit and high-density nanoprecipitation , 2017, Nature.

[34]  Zijiao Zhang,et al.  Dislocation mechanisms and 3D twin architectures generate exceptional strength-ductility-toughness combination in CrCoNi medium-entropy alloy , 2017, Nature Communications.

[35]  G. Eggeler,et al.  Microstructure evolution and critical stress for twinning in the CrMnFeCoNi high-entropy alloy , 2016 .

[36]  P. Mahajan,et al.  Effect of Al on Growth Kinetics of Cementite in Fe–C–Al Alloys , 2016 .

[37]  Huajian Gao,et al.  Nanotwin-governed toughening mechanism in hierarchically structured biological materials , 2016, Nature Communications.

[38]  Jian‐Jun Zheng,et al.  Strain hardening behavior and deformation substructure of Fe–20/27Mn–4Al–0.3C non-magnetic steels , 2016 .

[39]  Bernd Gludovatz,et al.  Exceptional damage-tolerance of a medium-entropy alloy CrCoNi at cryogenic temperatures , 2016, Nature Communications.

[40]  Robert O. Ritchie,et al.  Nanoscale origins of the damage tolerance of the high-entropy alloy CrMnFeCoNi , 2015, Nature Communications.

[41]  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 .

[42]  Dierk Raabe,et al.  From High‐Entropy Alloys to High‐Entropy Steels , 2015 .

[43]  T. Yamazaki,et al.  Effect of Change of Aging Heat Treatment Pattern on the JK2LB Jacket for the ITER Central Solenoid , 2015 .

[44]  T. Yamazaki,et al.  Mechanical Properties of High Manganese Austenitic Stainless Steel JK2LB for ITER Central Solenoid Jacket Material , 2015 .

[45]  R. Ritchie,et al.  A fracture-resistant high-entropy alloy for cryogenic applications , 2014, Science.

[46]  Yuehua Wu,et al.  Mechanical tensile test of the full-size ITER TF conductor jacket materials at 4.2 K , 2013 .

[47]  S. Sgobba,et al.  A comparative assessment of metallurgical and mechanical properties of two austenitic stainless steels for the conductor jacket of the ITER Central Solenoid , 2013 .

[48]  Peter K. Liaw,et al.  Mechanical properties of the high-entropy alloy Ag0.5CoCrCuFeNi at temperatures of 4.2–300 K , 2013 .

[49]  Singon Kang,et al.  The effects of Si on the mechanical twinning and strain hardening of Fe-18Mn-0.6C twinning-induced plasticity steel , 2013 .

[50]  D. Raabe,et al.  Influence of Al content and precipitation state on the mechanical behavior of austenitic high-Mn low , 2013 .

[51]  D. Raabe,et al.  Multistage strain hardening through dislocation substructure and twinning in a high strength and duc , 2012 .

[52]  Paul Libeyre,et al.  Fatigue crack growth rate and fracture toughness of ITER central solenoid jacket materials at 7 K , 2012 .

[53]  P. Libeyre,et al.  Progress in Production and Qualification of Stainless Steel Jacket Material for the Conductor of the ITER Central Solenoid , 2012, IEEE Transactions on Applied Superconductivity.

[54]  R. Ritchie.  The conflicts between strength and toughness. , 2011, Nature materials.

[55]  V. Kuokkala,et al.  Thermodynamic modeling of the stacking fault energy of austenitic steels , 2011 .

[56]  V. Kuokkala,et al.  Dependence of tensile deformation behavior of TWIP steels on stacking fault energy, temperature and strain rate , 2010 .

[57]  J. Miller,et al.  MECHANICAL PROPERTIES OF MODIFIED JK2LB FOR Nb3Sn CICC APPLICATIONS , 2010 .

[58]  Kyung-Tae Park,et al.  Origin of Extended Tensile Ductility of a Fe-28Mn-10Al-1C Steel , 2009 .

[59]  J. G. Sevillano.  An alternative model for the strain hardening of FCC alloys that twin, validated for twinning-induced plasticity steel , 2009 .

[60]  Kyung-Tae Park,et al.  Microband-induced plasticity in a high Mn–Al–C light steel , 2008 .

[61]  O. Bouaziz,et al.  Influence of addition elements on the stacking-fault energy and mechanical properties of an austenitic Fe–Mn–C steel , 2008 .

[62]  O. Bouaziz,et al.  Effect of grain and twin boundaries on the hardening mechanisms of twinning-induced plasticity steels , 2008 .

[63]  Y. Shindo,et al.  Cryogenic fracture and adiabatic heating of austenitic stainless steels for superconducting fusion magnets , 2003 .

[64]  Young‐kook Lee,et al.  Driving force for γ→ε martensitic transformation and stacking fault energy of γ in Fe-Mn binary system , 2000 .

[65]  H. Fujimura,et al.  Local interactions in carbon-carbon and carbon-M (M: Al, Mn, Ni) atomic pairs in FCC gamma -iron , 1994 .

[66]  R. Reed,et al.  Heating Effects During Tensile Tests of Aisi 304L Stainless Steel At 4 K , 1980 .

[67]  C. Syn,et al.  Cryogenic fracture toughness of 9Ni Steel enhanced through grain refinement , 1976 .

[68]  R. A. Clark,et al.  The effect of austenitizing temperature on the microstructure and mechanical properties of as-quenched 4340 steel , 1974, Metallurgical and Materials Transactions B.

[69]  S. TOLANSKY,et al.  Dislocations , 1966, Nature.