Anomalous mechanical behavior of nanocrystalline binary alloys under extreme conditions
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P. Peralta | M. Rajagopalan | K. Darling | B. Hornbuckle | K. Solanki | P. Garg | S. Turnage | C. Kale | I. Adlakha | C. Williams | B. G. Bazehhour
[1] G. P. Srivastava,et al. The Physics of Phonons , 2019 .
[2] Youping Chen,et al. Effects of phonons on mobility of dislocations and dislocation arrays , 2017 .
[3] E. Oren,et al. Dislocation kinematics: a molecular dynamics study in Cu , 2017 .
[4] Y. Mishin,et al. Microstructural evolution in a nanocrystalline Cu-Ta alloy: A combined in-situ TEM and atomistic study , 2017 .
[5] M. Tschopp,et al. The role of Ta on twinnability in nanocrystalline Cu–Ta alloys , 2017 .
[6] R. Mishra,et al. Extreme creep resistance in a microstructurally stable nanocrystalline alloy , 2016, Nature.
[7] K. Lu. Stabilizing nanostructures in metals using grain and twin boundary architectures , 2016 .
[8] C. Elsässer,et al. Influence of point defects on the phonon thermal conductivity and phonon density of states of Bi2Te3 , 2016 .
[9] G. P. P. Pun,et al. Angular-dependent interatomic potential for the Cu–Ta system and its application to structural stability of nano-crystalline alloys , 2015 .
[10] R. Banerjee,et al. Effect of Ta Solute Concentration on the Microstructural Evolution in Immiscible Cu-Ta Alloys , 2015 .
[11] R. Banerjee,et al. Structure and thermal decomposition of a nanocrystalline mechanically alloyed supersaturated Cu–Ta solid solution , 2015 .
[12] A. Nikroo,et al. Grain-size-independent plastic flow at ultrahigh pressures and strain rates. , 2015, Physical review letters.
[13] M. Tschopp,et al. Microstructure and Mechanical Properties of Bulk Nanostructured Cu-Ta Alloys Consolidated by Equal Channel Angular Extrusion , 2014 .
[14] S. Groh,et al. Atomic-scale investigation of point defects and hydrogen-solute atmospheres on the edge dislocation mobility in alpha iron , 2014 .
[15] C. Siviour,et al. Strain rate-dependant mechanical properties of OFHC copper , 2013, Journal of Materials Science.
[16] A. Kuksin,et al. Atomistic simulation of the motion of dislocations in metals under phonon drag conditions , 2013 .
[17] D. Agard,et al. Microtubule nucleation by γ-tubulin complexes , 2011, Nature Reviews Molecular Cell Biology.
[18] Ling Ti Kong,et al. Phonon dispersion measured directly from molecular dynamics simulations , 2011, Comput. Phys. Commun..
[19] K. Albe,et al. Finite-size effects in the phonon density of states of nanostructured germanium: A comparative study of nanoparticles, nanocrystals, nanoglasses, and bulk phases , 2011 .
[20] W. Blum,et al. A simple dislocation model of deformation resistance of ultrafine-grained materials explaining Hall–Petch strengthening and enhanced strain rate sensitivity , 2009 .
[21] Q. Wei,et al. Dynamic behaviors of body-centered cubic metals with ultrafine grained and nanocrystalline microstructures , 2008 .
[22] G. Ravichandran,et al. Thermomechanical characterization of pure polycrystalline tantalum , 2007 .
[23] M. Meyers,et al. Mechanical properties of nanocrystalline materials , 2006 .
[24] S. G. Srinivasan,et al. Deformation twinning in nanocrystalline copper at room temperature and low strain rate , 2004 .
[25] M. Victoria,et al. Nanocrystalline electrodeposited Ni: microstructure and tensile properties , 2002 .
[26] K. T. Ramesh,et al. Compressive behavior of an electrodeposited nanostructured copper at quasistatic and high strain rates , 2001 .
[27] K. T. Ramesh,et al. Deformation behavior and plastic instabilities of ultrafine-grained titanium , 2001 .
[28] Peter P. Gillis,et al. Estimation of flow stress under high rate plastic deformation , 1995 .
[29] M. Meyers. Dynamic Behavior of Materials , 1994 .
[30] Manninen,et al. Edge dislocations in fcc metals: Microscopic calculations of core structure and positron states in Al and Cu. , 1990, Physical review. B, Condensed matter.
[31] R. Kumble,et al. Viscous Drag on Dislocations at High Strain Rates in Copper , 1969 .
[32] D. S. Wood,et al. Dislocation Mobility in Copper , 1967 .
[33] Geoffrey Ingram Taylor,et al. The use of flat-ended projectiles for determining dynamic yield stress I. Theoretical considerations , 1948, Proceedings of the Royal Society of London. Series A. Mathematical and Physical Sciences.
[34] W. E. Carrington,et al. The use of flat-ended projectiles for determining dynamic yield stress III. Changes in microstructure caused by deformation under impact at high-striking velocities , 1948, Proceedings of the Royal Society of London. Series A. Mathematical and Physical Sciences.
[35] E. Orowan. Zur Kristallplastizität. I , 1934 .
[36] G. R. Johnson,et al. A CONSTITUTIVE MODEL AND DATA FOR METALS SUBJECTED TO LARGE STRAINS, HIGH STRAIN RATES AND HIGH TEMPERATURES , 2018 .
[37] S. Chandra,et al. Multiscale modeling of plasticity in a copper single crystal deformed at high strain rates , 2015 .
[38] D. Wolf,et al. Deformation-mechanism map for nanocrystalline metals by molecular-dynamics simulation , 2004, Nature materials.
[39] Sia Nemat-Nasser,et al. Determination of temperature rise during high strain rate deformation , 1998 .
[40] R. Peierls. The size of a dislocation , 1940 .