V. Levitas

发表

Mechanochemical Continuum Modeling of Nanovoid Nucleation and Growth in Reacting Nanoparticles

V. Levitas, Hamed Attariani, H. Attariani, 2012 .

A Variational Formulation of¶Rate-Independent Phase Transformations¶Using an Extremum Principle

A. Mielke, F. Theil, V. Levitas, 2002 .

Fatigue-resistant high-performance elastocaloric materials made by additive manufacturing

Lin Zhou, M. Kramer, J. Cui, 2019, Science.

Phase transformations, fracture, and other structural changes in inelastic materials

V. Levitas, 2020 .

Thermodynamically consistent and scale-dependent phase field approach for crack propagation allowing for surface stresses

G. Farrahi, V. Levitas, H. Jafarzadeh, 2018, International Journal of Plasticity.

Dropping the hammer: Examining impact ignition and combustion using pre-stressed aluminum powder

J. Warzywoda, M. Pantoya, V. Levitas, 2017 .

Strain-induced phase transformations under high pressure and large shear in a rotational diamond anvil cell: Simulation of loading, unloading, and reloading

V. Levitas, B. Feng, O. M. Zarechnyy, 2014 .

Strain-induced structural changes and chemical reactions—II. Modelling of reactions in shear band

M. Meyers, V. Levitas, V. Nesterenko, 1998 .

Nanoscale mechanisms for high-pressure mechanochemistry: a phase field study

V. Levitas, M. Javanbakht, 2018, Journal of Materials Science.

An Atomistic-to-Microscale Computational Analysis of the Dislocation Pileup-induced Local Stresses near an Interface in Plastically Deformed Two-phase Materials

Wei Gao, V. Levitas, Liming Xiong, 2022, Acta Materialia.

Finite element simulations of martensitic phase transitions and microstructures based on a strain softening model

Dean L. Preston, Alexander V. Idesman, Valery I. Levitas, 2005 .

Finite element procedure and simulations for a multiphase phase field approach to martensitic phase transformations at large strains and with interfacial stresses

V. Levitas, Anup Basak, 2019, Computer Methods in Applied Mechanics and Engineering.

Nanoscale multiphase phase field approach for stress- and temperature-induced martensitic phase transformations with interfacial stresses at finite strains

V. Levitas, Anup Basak, 2018 .

Phase field study of surface-induced melting and solidification from a nanovoid: Effect of dimensionless width of void surface and void size

V. Levitas, Anup Basak, 2018 .

High pressure phase transformations revisited

V. Levitas, 2018, Journal of physics. Condensed matter : an Institute of Physics journal.

Interaction between phase transformations and dislocations at the nanoscale. Part 2: Phase field simulation examples

V. Levitas, M. Javanbakht, 2015 .

Interaction between phase transformations and dislocations at the nanoscale. Part 1. General phase field approach

V. Levitas, M. Javanbakht, 2015 .

Microscale simulation of martensitic microstructure evolution.

V. Levitas, A. Idesman, D. Preston, 2004, Physical review letters.

MECHANOCHEMICAL MECHANISM FOR FAST REACTION OF METASTABLE INTERMOLECULAR COMPOSITES BASED ON DISPERSION OF LIQUID METAL

S. Son, M. Pantoya, V. Levitas, 2007 .

Computational Methods for Elastoplastic Materials with Martensitic Phase Transition

E. Stein, V. Levitas, A. Idesman, 1999 .

Continuum modeling of strain-induced martensitic transformation at shear-band intersections

G. B. Olson, V. Levitas, A. Idesman, 1998 .

Melt dispersion mechanism for fast reaction of nanothermites

S. Son, M. Pantoya, V. Levitas, 2006 .

Melt dispersion versus diffusive oxidation mechanism for aluminum nanoparticles: Critical experiments and controlling parameters

M. Pantoya, V. Levitas, Birce Dikici, 2008 .

Burn time of aluminum nanoparticles: Strong effect of the heating rate and melt-dispersion mechanism

V. Levitas, 2009 .

Effect of the Alumina Shell on the Melting Temperature Depression for Aluminum Nanoparticles

G. Chauhan, M. Pantoya, V. Levitas, 2009 .

Mechanochemical mechanism for reaction of aluminium nano- and micrometre-scale particles

V. Levitas, 2013, Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences.

Phase field approach to dislocation evolution at large strains: Computational aspects

V. Levitas, M. Javanbakht, 2016 .

High-Pressure Phase Transformations under Severe Plastic Deformation by Torsion in Rotational Anvils

V. Levitas, 2019, MATERIALS TRANSACTIONS.

New automated shear cell with diamond anvils for in situ studies of materials using X-ray diffraction

V. Levitas, N. Novikov, L. Shvedov, 2015, Journal of Superhard Materials.

High-pressure mechanochemistry: Conceptual multiscale theory and interpretation of experiments

V. Levitas, 2003 .

STRAIN-INDUCED STRUCTURAL CHANGES AND CHEMICAL REACTIONS—I. THERMOMECHANICAL AND KINETIC MODELS

M. Meyers, V. Levitas, V. Nesterenko, 1998 .

Ginzburg-Landau theory of microstructures: Stability, transient dynamics, and functionally graded nanophases

V. Levitas, Dong Wook Lee, D. Preston, 2006 .

A multiphase phase-field study of three-dimensional martensitic twinned microstructures at large strains

V. Levitas, Anup Basak, 2022, 2206.12576.

Anisotropic Compositional Expansion and Chemical Potential for Amorphous Lithiated Silicon under Stress Tensor

V. Levitas, Hamed Attariani, H. Attariani, 2013 .

Shear-induced phase transition of nanocrystalline hexagonal boron nitride to wurtzitic structure at room temperature and lower pressure

V. Levitas, J. Chaudhuri, Yanzhang Ma, 2012, Proceedings of the National Academy of Sciences.

High Pressure X-ray Diffraction Study of Potassium Azide

V. Levitas, Fuxiang Zhang, M. Chyu, 2011 .

Phase transition and structure of silver azide at high pressure

V. Levitas, Fuxiang Zhang, Yanzhang Ma, 2011 .

Crystal-crystal phase transformation via surface-induced virtual premelting

Yuewu Zeng, G. Han, V. Levitas, 2012 .

Resolving puzzles of the phase-transformation-based mechanism of the deep-focus earthquake

V. Levitas, 2021 .

Tensorial stress−strain fields and large elastoplasticity as well as friction in diamond anvil cell up to 400 GPa

V. Levitas, M. Kamrani, B. Feng, 2019, npj Computational Materials.

Coupled elastoplasticity and plastic strain-induced phase transformation under high pressure and large strains: Formulation and application to BN sample compressed in a diamond anvil cell

V. Levitas, B. Feng, 2017 .

Plastic flows and strain-induced alpha to omega phase transformation in zirconium during compression in a diamond anvil cell: Finite element simulations

V. Levitas, B. Feng, 2017 .

Strain-induced phase transformation under compression in a diamond anvil cell: Simulations of a sample and gasket

V. Levitas, Yanzhang Ma, B. Feng, 2014 .

Plastic flows and phase transformations in materials under compression in diamond anvil cell: Effect of contact sliding

V. Levitas, B. Feng, O. M. Zarechnyy, 2013 .

Strain-induced phase transformations under compression, unloading, and reloading in a diamond anvil cell

V. Levitas, B. Feng, O. M. Zarechnyy, 2013 .

Thermodynamics and kinetics of nanovoid nucleation inside elastoplastic material

V. Levitas, N. Altukhova, 2011 .

Pressure Self-focusing Effect and Novel Methods for Increasing the Maximum Pressure in Traditional and Rotational Diamond Anvil Cells

V. Levitas, B. Feng, 2017, Scientific Reports.

Effect of a micro-scale dislocation pileup on the atomic-scale multi-variant phase transformation and twinning

V. Levitas, Liming Xiong, L. Capolungo, 2022, Computational Materials Science.

Slip of shuffle screw dislocations through tilt grain boundaries in silicon

V. Levitas, L. Xiong, Hao Chen, 2019, Computational Materials Science.

Algorithmic aspects and finite element solutions for advanced phase field approach to martensitic phase transformation under large strains

V. Levitas, Anup Basak, H. Babaei, 2019, Computational Mechanics.

Effect of 60∘ dislocation on transformation stresses, nucleation, and growth for phase transformations between silicon I and silicon II under triaxial loading: Phase-field study

V. Levitas, H. Babaei, Hamed Babaei, 2019, Acta Materialia.

Aluminum particle reactivity as a function of alumina shell structure: Amorphous versus crystalline

M. Pantoya, V. Levitas, R. Walzel, 2020 .

Transformation-deformation bands in C60 after the treatment in a shear diamond anvil cell

V. Levitas, V. Blank, M. Popov, 2016 .

Resolving puzzles of the phase-transformation-based mechanism of the strong deep-focus earthquake

V. Levitas, 2022, Nature Communications.

Continuum mechanical fundamentals of mechanochemistry

V. Levitas, 2003, High-Pressure Surface Science and Engineering.

A method of constructing a plasticity theory

V. Levitas, 1980 .

Coupled strain-induced alpha to omega phase transformation and plastic flow in zirconium under high pressure torsion in a rotational diamond anvil cell

V. Levitas, M. Kamrani, B. Feng, 2018, Materials Science and Engineering: A.

Propagating phase interface with intermediate interfacial phase: Phase field approach

V. Levitas, K. Momeni, 2014 .

Solid–solid transformations via nanoscale intermediate interfacial phase: Multiple structures, scale and mechanics effects

V. Levitas, K. Momeni, 2014 .

Virtual melting as a new mechanism of stress relaxation under high strain rate loading

V. Levitas, R. Ravelo, 2012, Proceedings of the National Academy of Sciences.

Crystal-amorphous and crystal-crystal phase transformations via virtual melting.

V. Levitas, 2005, Physical review letters.

Solid-solid phase transformation via virtual melting significantly below the melting temperature.

L. Smilowitz, B. Henson, V. Levitas, 2004, Physical review letters.

A multiphase phase-field study of three-dimensional martensitic twinned microstructures at large strains

V. Levitas, Anup Basak, 2022, Continuum Mechanics and Thermodynamics.

HMX POLYMORPHISM: VIRTUAL MELTING GROWTH MECHANISM, CLUSTER-TO-CLUSTER NUCLEATION MECHANISM AND PHYSICALLY BASED KINETICS

L. Smilowitz, B. Henson, V. Levitas, 2009 .

Multiphase phase field theory for temperature- and stress-induced phase transformations

Anisha Roy, V. Levitas, 2015 .

Nucleation mechanism for reconstructive solid-solid phase transitions via melt mediated nanocluster transformation

L. Smilowitz, B. Henson, V. Levitas, 2006 .

Interfacial and volumetric kinetics of the beta-->delta phase transition in the energetic nitramine octahydro-1,3,5,7-tetranitro-1,3,5,7-tetrazocine based on the virtual melting mechanism.

L. Smilowitz, B. Henson, V. Levitas, 2006, The Journal of chemical physics.

Solid-solid phase transformation via internal stress-induced virtual melting: Additional confirmations

L. Smilowitz, B. Henson, V. Levitas, 2005 .

Coupled phase transformation , chemical decomposition , and deformation in plastic-bonded explosive : Simulations

D. Zerkle, L. Smilowitz, B. Henson, 2007 .

Resolving puzzles of the phase-transformation-based mechanism of the strong deep-focus earthquake

V. Levitas, 2021, Nature Communications.

Finite-Element Simulation of Elastoplastic Properties of Two-Phase Composites Reinforced by Particles

E. Stein, V. Levitas, A. Idesman, 1996 .

On a unified approach to the description of phase transitions and strain localization

E. Stein, V. Levitas, M. Lengnick, 1996, Archive of Applied Mechanics.

The effect of pre-heating on flame propagation in nanocomposite thermites

M. Pantoya, V. Levitas, B. Dikici, 2009 .

Impact ignition and combustion of micron-scale aluminum particles pre-stressed with different quenching rates

N. Tamura, M. Pantoya, V. Levitas, 2018, Journal of Applied Physics.

Algorithmic aspects and finite element solutions for advanced phase field approach to martensitic phase transformation under large strains

V. Levitas, Anup Basak, H. Babaei, 2019, Computational Mechanics.

Thermomechanical lattice instability and phase field theory of martensitic phase transformations, twinning and dislocations at large strains

V. Levitas, D. Preston, 2005 .

Effect of shear strain on the α–ε phase transition of iron: a new approach in the rotational diamond anvil cell

J. Hashemi, V. Levitas, Yanzhang Ma, 2006, Journal of physics. Condensed matter : an Institute of Physics journal.

Displacement field measurements in traditional and rotational diamond anvil cells

V. Levitas, K. Pandey, 2021 .

FEM modeling of plastic flow and strain-induced phase transformation in BN under high pressure and large shear in a rotational diamond anvil cell

V. Levitas, B. Feng, W. H. Li, 2019, International Journal of Plasticity.

Superheating and melting within aluminum core-oxide shell nanoparticles for a broad range of heating rates: multiphysics phase field modeling.

V. Levitas, Y. Hwang, 2016, Physical chemistry chemical physics : PCCP.

Melt dispersion mechanism for fast reaction of aluminum nano- and micron-scale particles: Flame propagation and SEM studies

M. Pantoya, V. Levitas, S. W. Dean, 2014 .

Effect of oxide shell growth on nano-aluminum thermite propagation rates

M. Pantoya, V. Levitas, J. Gesner, 2012 .

Toward design of the pre-stressed nano- and microscale aluminum particles covered by oxide shell

M. Pantoya, V. Levitas, B. Dikici, 2011 .

Fast reactions with nano- and micrometer aluminum: A study on oxidation versus fluorination

M. Pantoya, V. Levitas, Kyle W. Watson, 2008 .

Melt-dispersion mechanism for fast reaction of aluminum particles: Extension for micron scale particles and fluorination

M. Pantoya, V. Levitas, Kyle W. Watson, 2008 .

Coupled large-strain mechanochemical theory for solid-state reaction with application to oxidation

V. Levitas, H. Attariani, 2021, Acta Materialia.

Nanomaterials by severe plastic deformation: review of historical developments and recent advances

V. V. Popov, P. Král, Y. Estrin, 2022, Materials Research Letters.

Activation energy of time-dependent martensite formation in steel

P. Anderson, A. Pelton, I. Karaman, 2018 .

Imaging stress and magnetism at high pressures using a nanoscale quantum sensor

R. Jeanloz, N. Yao, J. E. Moore, 2018, Science.

Effect of Bulk Density on Reaction Propagation in Nanothermites and Micron Thermites

M. Pantoya, V. Levitas, J. Henderson, 2009 .

Matrix-precipitate interface-induced martensitic transformation within nanoscale phase field approach: Effect of energy and dimensionless interface width

V. Levitas, Anup Basak, 2020 .

A phase-field approach to nonequilibrium phase transformations in elastic solids via an intermediate phase (melt) allowing for interface stresses.

V. Levitas, K. Momeni, 2016, Physical chemistry chemical physics : PCCP.

The strong influence of internal stresses on the nucleation of a nanosized, deeply undercooled melt at a solid-solid phase interface.

J. Warren, V. Levitas, K. Momeni, 2015, Nano letters (Print).

Surface tension and energy in multivariant martensitic transformations: phase-field theory, simulations, and model of coherent interface.

V. Levitas, M. Javanbakht, 2010, Physical review letters.

Phase-field approach for stress- and temperature-induced phase transformations that satisfies lattice instability conditions. Part 2. simulations of phase transformations Si I↔ Si II

V. Levitas, H. Babaei, Hamed Babaei, 2018, International Journal of Plasticity.

Phase field approach for stress- and temperature-induced phase transformations that satisfies lattice instability conditions. Part I. General theory

V. Levitas, 2018, International Journal of Plasticity.

Athermal Resistance to Phase Interface Motion Due to Precipitates: A Phase Field Study

V. Levitas, M. Javanbakht, 2022, SSRN Electronic Journal.

FEM simulation of large deformation of copper in the quasi-constrain high-pressure-torsion setup

V. Levitas, M. Kamrani, B. Feng, 2017 .

Melting and solidification of nanoparticles: Scale effects, thermally activated surface nucleation, and bistable states

Valery I. Levitas, V. Levitas, Kamran Samani, 2014 .

Influence of Aluminum Passivation on the Reaction Mechanism: Flame Propagation Studies

R. J. Jouet, M. Pantoya, V. Levitas, 2009 .

Internal stresses in pre-stressed micron-scale aluminum core-shell particles and their improved reactivity

N. Tamura, M. Pantoya, V. Levitas, 2015 .

Pre-Stressing Micron-Scale Aluminum Core-Shell Particles to Improve Reactivity

M. Pantoya, V. Levitas, Jena M. McCollum, 2015, Scientific Reports.

Kinetics of strain-induced structural changes under high pressure.

V. Levitas, O. M. Zarechnyy, 2006, The journal of physical chemistry. B.

Pseudoelastic Deformation in Refractory (MoW) 85 Zr 7.5(TaTi) 7.5 High-Entropy Alloy

P. Liaw, R. Arróyave, Prashant Singh, 2021 .

Thermodynamic and kinetic analysis of the melt spinning process of Fe-6.5 wt.% Si alloy

Lin Zhou, M. Kramer, J. Cui, 2019, Journal of Alloys and Compounds.

Comment on “In situ imaging of ultra-fast loss of nanostructure in nanoparticle aggregates” [J. Appl. Phys. 115, 084903 (2014)]

V. Levitas, Y. Hwang, 2016 .

Structural changes without stable intermediate state in inelastic material. Part II. Applications to displacive and diffusional–displacive phase transformations, strain-induced chemical reactions and ductile fracture

V. Levitas, 2000 .

Thermomechanical and Kinetic Approaches to Diffusional-Displacive Phase Transitions in Inelastic Materials

V. Levitas, 2000 .

Effect of the initial microstructure on the pressure-induced phase transition in Zr and microstructure evolution

Changyong Park, V. Levitas, Guoyin Shen, 2023, 2301.10475.

A Study of a Hamiltonian Model for Phase Transformations Including Microkinetic Energy

F. Theil, V. Levitas, 2008 .

Internal stress-induced melting below melting temperature at high-rate laser heating

V. Levitas, Y. Hwang, 2014 .

Phase field simulation of kinetic superheating and melting of aluminum nanolayer irradiated by pico- and femtosecond laser

V. Levitas, Y. Hwang, 2013 .

Coupled phase transformations and plastic flows under torsion at high pressure in rotational diamond anvil cell: Effect of contact sliding

V. Levitas, B. Feng, 2013 .

Simulations of multivariant Si I to Si II phase transformation in polycrystalline silicon with finite-strain scale-free phase-field approach

V. Levitas, R. Pratoori, Hamed Babaei, 2023, Acta Materialia.

Phase transitions in elastoplastic materials: Continuum thermomechanical theory and examples of control. Part II

V. Levitas, 1997 .

Strain-induced nucleation at a dislocation pile-up: a nanoscale model for high pressure mechanochemistry

V. Levitas, 2004 .

Fifth-degree elastic energy for predictive continuum stress–strain relations and elastic instabilities under large strain and complex loading in silicon

Xiancheng Zhang, V. Levitas, Duane D. Johnson, 2020, npj Computational Materials.

Nonlinear elasticity of prestressed single crystals at high pressure and various elastic moduli

V. Levitas, 2021, Physical Review B.

Nonlinear elasticity of pre-stressed single crystals: resolving an old mess

V. Levitas, 2021 .

Fifth-degree elastic potential for predictive stress-strain relations and elastic instabilities under large strain and complex loading in Si

Xiancheng Zhang, V. Levitas, Hao Chen, 2020, 2002.06020.

Strain-induced disorder, phase transformations, and transformation-induced plasticity in hexagonal boron nitride under compression and shear in a rotational diamond anvil cell: in situ x-ray diffraction study and modeling.

J. Hashemi, V. Levitas, Yanzhang Ma, 2006, The Journal of chemical physics.

Three-dimensional Landau theory for multivariant stress-induced martensitic phase transformations. III. Alternative potentials, critical nuclei, kink solutions, and dislocation theory

Dennis R. Preston, Valery I. Levitas, V. Levitas, 2003 .

Three-dimensional Landau theory for multivariant stress-induced martensitic phase transformations. I. Austenite↔martensite

Dean L. Preston, Valery I. Levitas, V. Levitas, 2002 .

Three-dimensional Landau theory for multivariant stress-induced martensitic phase transformations. II. Multivariant phase transformations and stress space analysis

Dean L. Preston, Valery I. Levitas, V. Levitas, 2002 .

Low-pressure phase transformation from rhombohedral to cubic BN: Experiment and theory

V. Levitas, L. Shvedov, 2002 .

Structural changes without stable intermediate state in inelastic material. Part I. General thermomechanical and kinetic approaches

V. Levitas, 2000 .

Thermomechanical theory of martensitic phase transformations in inelastic materials

Valery I. Levitas, V. Levitas, 1998 .

In situ quantitative study of plastic strain-induced phase transformations under high pressure: Example for ultra-pure Zr

V. Levitas, K. Pandey, 2019, Acta Materialia.

Amorphization induced by 60° shuffle dislocation pileup against different grain boundaries in silicon bicrystal under shear

V. Levitas, L. Xiong, Hao Chen, 2019, Acta Materialia.

Phase-field theory for martensitic phase transformations at large strains

V. Levitas, 2013 .

Numerical modelling of martensitic growth in an elastoplastic material

E. Stein, V. Levitas, A. Idesman, 2002 .

Solid-solid phase transformation via internal stress-induced virtual melting, significantly below the melting temperature. Application to HMX energetic crystal.

L. Smilowitz, B. Henson, V. Levitas, 2006, The journal of physical chemistry. B.

In-situ TEM analysis of the phase transformation mechanism of a Cu–Al–Ni shape memory alloy

Lin Zhou, M. Kramer, J. Cui, 2019, Journal of Alloys and Compounds.

Effects of gasket on coupled plastic flow and strain-induced phase transformations under high pressure and large torsion in a rotational diamond anvil cell

V. Levitas, B. Feng, 2016 .

Anisotropic compositional expansion in elastoplastic materials and corresponding chemical potential: Large-strain formulation and application to amorphous lithiated silicon

V. Levitas, H. Attariani, 2014 .

Phase-field modeling of fracture in liquid

Alexander V. Idesman, Valery I. Levitas, V. Levitas, 2011 .

Structural changes in elastoplastic material

E. Stein, V. Levitas, A. Idesman, 2000 .

Shape Memory Alloys: Micromechanical Modeling and Numerical Analysis of Stuctures

Erwin Stein, Alexander V. Idesman, Valery I. Levitas, 1999 .

Finite element simulation of martensitic phase transitions in elastoplastic materials

Erwin Stein, Alexander V. Idesman, Valery I. Levitas, 1998 .

The postulate of realizability: Formulation and applications to the post-bifurcation behaviour and phase transitions in elastoplastic materials-II

V. Levitas, 1995 .

Elastoplastic materials with martensitic phase transition and twinning at finite strains: Numerical solution with the finite element method

E. Stein, V. Levitas, A. Idesman, 1999 .

An exact formulation for exponential-logarithmic transformation stretches in a multiphase phase field approach to martensitic transformations

V. Levitas, Anup Basak, 2020 .

Micromechanical modeling of stress-induced phase transformations. Part 1. Thermodynamics and kinetics of coupled interface propagation and reorientation

Valery I. Levitas, V. Levitas, Istemi B. Ozsoy, 2009 .

Stress-Measure Dependence of Phase Transformation Criterion under Finite Strains: Hierarchy of Crystal Lattice Instabilities for Homogeneous and Heterogeneous Transformations.

V. Levitas, Hamed Babaei, 2020, Physical review letters.

Lattice instability during phase transformations under multiaxial stress: Modified transformation work criterion

V. Levitas, L. Xiong, Hao Chen, 2017 .

Triaxial-Stress-Induced Homogeneous Hysteresis-Free First-Order Phase Transformations with Stable Intermediate Phases.

V. Levitas, L. Xiong, Hao Chen, 2017, Physical review letters.

A new look at the problem of plastic spin based on stability analysis

V. Levitas, 1998 .

Sublimation, chemical decomposition, and melting inside an elastoplastic material: General continuum thermodynamic and kinetic theory

V. Levitas, 2012 .

Finite element procedure for solving contact thermoelastoplastic problems at large strains, normal and high pressures

V. Levitas, A. Idesman, 1995 .

Theory of large elastoplastic deformations under high pressure

V. Levitas, 1986 .

Determining relations in the theory of dissipative media

V. Levitas, 1979 .

Multiphase phase field theory for temperature-induced phase transformations: Formulation and application to interfacial phases

V. Levitas, A. Roy, 2016 .

A phase-field approach to solid–solid phase transformations via intermediate interfacial phases under stress tensor

V. Levitas, K. Momeni, 2015 .

Thermodynamically consistent phase field approach to phase transformations with interface stresses

V. Levitas, 2013 .

Phase field theory for fracture at large strains including surface stresses

G. Farrahi, V. Levitas, H. Jafarzadeh, 2020, International Journal of Engineering Science.

Phase field simulations of plastic strain-induced phase transformations under high pressure and large shear

V. Levitas, M. Javanbakht, 2016 .

Surface-induced phase transformations: multiple scale and mechanics effects and morphological transitions.

V. Levitas, M. Javanbakht, Valery I Levitas, 2011, Physical review letters.

Interface Propagation and Microstructure Evolution in Phase Field Models of Stress-Induced Martensitic Phase Transformations

V. Levitas, Dong Wook Lee, D. Preston, 2010 .

Effect of the ratio of two nanosize parameters on the phase transformations

V. Levitas, 2017 .

Finite element simulations of dynamics of multivariant martensitic phase transitions based on Ginzburg–Landau theory

T. Park, V. Levitas, A. Idesman, 2012 .

Finite element modeling of dynamics of martensitic phase transitions

V. Levitas, A. Idesman, J. Cho, 2008 .

Plastic strain-induced phase transformations in silicon: drastic reduction of transformation pressures, change in transformation sequence, and particle size effect

V. Levitas, F. Lin, Jesse D. Smith, 2023, 2303.04407.

Stationary dislocation motion at stresses significantly below the Peierls stress: Example of shuffle screw and 60∘ dislocations in silicon

Xiancheng Zhang, V. Levitas, Liming Xiong, 2021, Acta Materialia.

Strain-induced multivariant martensitic transformations: A scale-independent simulation of interaction between localized shear bands and microstructure

I. Ghamarian, V. Levitas, S. Ehsan Esfahani, 2020 .

Finite-strain scale-free phase-field approach to multivariant martensitic phase transformations with stress-dependent effective thresholds

V. Levitas, Hamed Babaei, 2020, Journal of the Mechanics and Physics of Solids.

Shear driven formation of nano-diamonds at sub-gigapascals and 300 K

W. Goddard, V. Levitas, J. Chaudhuri, 2018, Carbon.

Scale-Free Modeling of Coupled Evolution of Discrete Dislocation Bands and Multivariant Martensitic Microstructure.

I. Ghamarian, V. Levitas, S. Esfahani, 2018, Physical review letters.

Lattice Instability during Solid-Solid Structural Transformations under a General Applied Stress Tensor: Example of Si I→Si II with Metallization.

V. Levitas, Duane D. Johnson, Hao Chen, 2018, Physical review letters.

Microscale phase field modeling of the martensitic transformation during cyclic loading of NiTi single crystal

P. Collins, I. Ghamarian, V. Levitas, 2018, International Journal of Solids and Structures.

Deformation, lattice instability, and metallization during solid-solid structural transformations under general applied stress tensor: example of Si I ->Si II

V. Levitas, Duane D. Johnson, Hao Chen, 2018, 1806.00055.

Phase Transformations Under High Pressure and Large Plastic Deformations: Multiscale Theory and Interpretation of Experiments

V. Levitas, 2018 .

Phase Transitions and Their Interaction with Dislocations in Silicon

V. Levitas, L. Xiong, Hao Chen, 2018 .

Highly reactive energetic films by pre-stressing nano-aluminum particles

N. Tamura, J. Warzywoda, M. Pantoya, 2019, RSC advances.

Digital Repository @ Iowa State University Size and mechanics effects in surface-induced melting of nanoparticles

V. Levitas, Kamran Samani, Valery I Levitas, 2022 .

Multiple twinning and variant-variant transformations in martensite: Phase-field approach

V. Levitas, D. Preston, A. Roy, 2013 .

Modeling and simulation of strain-induced phase transformations under compression in a diamond anvil cell

V. Levitas, O. M. Zarechnyy, 2010 .

Shear-induced diamondization of multilayer graphene structures: A computational study

V. Levitas, K. Momeni, Shiddartha Paul, 2020 .

Interface stress for nonequilibrium microstructures in the phase field approach: Exact analytical results

V. Levitas, 2013 .

Large elastoplasticity under static megabar pressures: Formulation and application to compression of samples in diamond anvil cells

R. Hemley, V. Levitas, B. Feng, 2016 .

Numerical method for optimizing the design of a high-pressure apparatus with diamond anvils

V. Levitas, N. Novikov, S. B. Polotnyak, 1994 .

A Simple Micromechanical Model for Pseudoelastic Behavior of CuZnAl Alloy

Erwin Stein, Alexander V. Idesman, Valery I. Levitas, 1998 .

Critical thought experiment to choose the driving force for interface propagation in inelastic materials

V. Levitas, 2002 .

Interfacial stresses within boundary between martensitic variants: Analytical and numerical finite strain solutions for three phase field models

V. Levitas, Anup Basak, 2017 .

Displacive phase transitions at large strains: phase-field theory and simulations.

V. Levin, V. Levitas, K. Zingerman, 2009, Physical review letters.

Phase field approach with anisotropic interface energy and interface stresses: Large strain formulation

James A. Warren, Valery I. Levitas, J. Warren, 2016 .

Phase field approach to martensitic phase transformations with large strains and interface stresses

V. Levitas, 2014 .

Thermodynamically consistent phase field theory of phase transformations with anisotropic interface energies and stresses

J. Warren, V. Levitas, 2015 .

Reply to “Comment on 'Mechanochemical Continuum Modeling of Nanovoid Nucleation and Growth in Reacting Nanoparticles'″

V. Levitas, H. Attariani, 2012 .

Strain-induced disorder and phase transformation in hexagonal boron nitride under quasi-homogeneous pressure: In situ X-ray study in a rotational diamond anvil cell

J. Hashemi, V. Levitas, Yanzhang Ma, 2004 .

X-ray Diffraction Measurements in a Rotational Diamond Anvil Cell

J. Hashemi, V. Levitas, Yanzhang Ma, 2006 .

TRANSFORMATION-INDUCED PLASTICITY AND CASCADING STRUCTURAL CHANGES IN HEXAGONAL BORON NITRIDE UNDER HIGH PRESSURE AND SHEAR

J. Hashemi, V. Levitas, Yanzhang Ma, 2005 .

Peculiarities of the solution of thermoelastoplastic problems by the finite-element method

V. Levitas, A. Idesman, 1986 .

Developing a theory of perfect plasticity

V. Levitas, 1980 .

Some Relations for Finite Inelastic Deformation of Microheterogeneous Materials with Moving Discontinuity Surfaces

V. Levitas, 1996 .

The present work, which is an extended exposition of the communication (10), presents a strict deriva- tion of the a-~ relation with sufficiently probable premises. The results are extended to media with memory.

V. Levitas, 1980 .

On correct account of finite rotations in finite plasticity theory

V. Levitas, 1992 .

Author ' s personal copy

V. Levitas, K. Zingerman, Eugene I. Freiman, 2010 .

High-density amorphous phase of silicon carbide obtained under large plastic shear and high pressure

J. Patten, V. Levitas, Yanzhang Ma, 2012 .

Large elastoplastic deformation of a sample under compression and torsion in a rotational diamond anvil cell under megabar pressures

V. Levitas, B. Feng, 2017 .

Stress relaxation in pre-stressed aluminum core–shell particles: X-ray diffraction study, modeling, and improved reactivity

N. Tamura, M. Pantoya, V. Levitas, 2016 .

Stress relaxation in pre-stressed aluminum core-shell particles: In situ x-ray diffraction study, modeling, and improved reactivity

N. Tamura, M. Pantoya, V. Levitas, 2017 .

Principle of minimum dissipation rate at time t+Δt for the plastic spin

V. Levitas, 1997 .

Interaction of phase transformations and plasticity at the nanoscale: phase field approach

V. Levitas, M. Javanbakht, 2015 .

Thermodynamically consistent phase field approach to dislocation evolution at small and large strains

V. Levitas, M. Javanbakht, 2015 .

Plastic flow under compression and shear in rotational diamond anvil cell: Finite-element study

V. Levitas, O. M. Zarechnyy, 2007 .

Large elastoplastic strains and the stressed state of a deformable gasket in high pressure equipment with diamond anvils

V. Levitas, A. Idesman, S. Polotnyak, 1996 .

Numeric modeling of the strength and longevity of structures with allowance for scale effect. Report 1. Substantiation of strength and longevity criteria

S. I. Shestakov, V. Levitas, N. Novikov, 1991, Strength of Materials.

Elastic model for stress–tensor-induced martensitic transformation and lattice instability in silicon under large strains

V. Levitas, 2017 .

A Study of a Hamiltonian Model for Martensitic Phase fransformations Including Microkinetic Energy

F. Theil, V. Levitas, 1998, patt-sol/9811006.

Micromechanical modeling of stress-induced phase transformations. Part 2. Computational algorithms and examples

V. Levitas, I. B. Ozsoy, 2009 .

Phase transformations in nanograin materials under high pressure and plastic shear: nanoscale mechanisms.

V. Levitas, M. Javanbakht, 2014, Nanoscale.

Phase field approach for nanoscale interactions between crack propagation and phase transformation.

G. Farrahi, V. Levitas, H. Jafarzadeh, 2019, Nanoscale.

Tensorial stress-plastic strain fields in α - ω Zr mixture, transformation kinetics, and friction in diamond-anvil cell

V. Levitas, K. Pandey, Achyut Dhar, 2022, Nature communications.

Numerical study of stress and plastic strain evolution under compression and shear of a sample in a rotational anvil cell

V. Levitas, O. M. Zarechnyy, 2010 .

Thermomechanics of martensitic phase transitions in elastoplastic materials

V. Levitas, 1995 .

Simulation of martensitic phase transition progress with continuous and discontinuous displacements at the interface

E. Stein, V. Levitas, A. Idesman, 1997 .

Simple micromechanical model of thermoelastic martensitic transformations

Erwin Stein, Valery I. Levitas, E. Stein, 1997 .

Theory of martensitic phase transformations in inelastic materials in local description

V. Levitas, 1996 .

REGULARITIES OF PHASE TRANSFORMATIONS AND PLASTIC STRAINING OF MATERIALS IN COMPRESSION AND SHEAR ON DIAMOND ANVILS: EXPERIMENTS AND THEORY

V. Levitas, V. Bakul', N. Novikov, 1999 .

Modeling of Strain-Induced Phase Transformations Under High Pressure and Shear

V. Levitas, M. Kamrani, B. Feng, 2018 .

Theory of martensitic phase transitions in elastoplastic materials

V. Levitas, 1995 .

Phase Transitions in Dissipative Materials: Theory and Interpretation of Experiments

E. Stein, V. Levitas, 1999 .

Thermomechanical description of pseudoelasticity—The threshold-type dissipative force with discrete memory

V. Levitas, 1994 .

Phase-field simulation of stress-induced martensitic phase transformations at large strains

V. Levin, V. Levitas, K. Zingerman, 2013 .

Phase field theory of surface- and size-induced microstructures

V. Levitas, Dong Wook Lee, D. Preston, 2006 .

Unambiguous Gibbs dividing surface for nonequilibrium finite-width interface: Static equivalence approach

V. Levitas, 2014 .

Phase transitions in elastoplastic materials : Thermodynamical theory and numerical simulation. Commentary. Authors' reply

E. Stein, V. Levitas, A. Idesman, 1996 .

Plastic strain-induced olivine-ringwoodite phase transformation at room temperature: main rules and the mechanism of the deep-focus earthquake

V. Levitas, F. Lin, Jesse D. Smith, 2023, 2307.11215.

Finite-Element Simulations of Elastoplastic Flow during Compression of a Sample in a Diamond Anvil Cell under Extremely High Pressure: Effects of Geometry and Material Properties

V. Levitas, B. Feng, 2018, Physical Review Applied.

Modeling and simulation of strain-induced phase transformations under compression and torsion in a rotational diamond anvil cell

V. Levitas, O. M. Zarechnyy, 2010 .

Stress-strain diagrams of metals under large uniform compressive strains

V. Levitas, V. I. Levitas, I. E. Stashkevich, 1994 .

Numerical optimization of diamond anvil cell design

V. Levitas, N. Novikov, S. Polotnyak, 1992 .

Mathematical modeling of diamond synthesis process

V. Levitas, A. Idesman, N. Novikov, 1991 .

Numeric modeling of the strength and longevity of structures with allowance for scale effect. Report 2. Investigation of the strength and longevity of hard-alloy dies for high-pressure apparatus

N. V. Novikov, Valery I. Levitas, S. I. Shestakov, 1991, Strength of Materials.

Numerical modeling of the strength and longevity of structures with allowance for scale effect. Report 3. Investigation of the stress state, strength, and longevity of cylindrical-type high-pressure apparatus

S. I. Shestakov, V. Levitas, A. Idesman, 1991, Strength of Materials.

Theoretical description of thermomechanical effects in high pressure apparatus

V. Levitas, A. Idesman, N. Novikov, 1990 .

Fundamentals of strength and durability calculations for high-pressure apparatus elements

S. I. Shestakov, V. Levitas, N. Novikov, 1986 .

Digital Repository @ Iowa State University Coupled phase transformations and plastic flows under torsion at high pressure in rotational diamond anvil cell: Effect of contact sliding

V. Levitas, B. Feng, 2022 .

Rules of plastic strain-induced phase transformations and nanostructure evolution under high-pressure and severe plastic flow

Changyong Park, V. Levitas, F. Lin, 2023, 2305.15737.

Nontrivial nanostructure, stress relaxation mechanisms, and crystallography for pressure-induced Si-I → Si-II phase transformation

V. Levitas, D. Popov, N. Velisavljevic, 2022, Nature Communications.

The Influence of Al Passivation on the Reaction Mechanism: Flame Propagation Studies

R. J. Jouet, M. Pantoya, V. Levitas, 2009 .

Advanced phase-field approach to dislocation evolution

V. Levitas, M. Javanbakht, 2012 .

Athermal resistance to interface motion in the phase-field theory of microstructure evolution.

Dong-Wook Lee, V. Levitas, 2007, Physical review letters.

Phase Field Method to the Interaction of Phase Transformations and Dislocations at Nanoscale

V. Levitas, M. Javanbakht, 2017 .

Phase-field approach to martensitic phase transformations: Effect of martensite–martensite interface energy

V. Levitas, M. Javanbakht, 2011 .

Scale-Free Modeling of Coupled Evolution of Discrete Dislocation Bands and Multivariant Martensitic Microstructure.

I. Ghamarian, V. Levitas, S. Esfahani, 2018, Physical review letters.

Kinetics of the γ-δ phase transition in energetic nitramine-octahydro-1,3,5,7-tetranitro-1,3,5,7-tetrazocine.

L. Smilowitz, V. Levitas, D. Oschwald, 2019, The Journal of chemical physics.

Coupled phase field, heat conduction, and elastodynamic simulations of kinetic superheating and nanoscale melting of aluminum nanolayer irradiated by picosecond laser.

V. Levitas, Y. Hwang, 2015, Physical chemistry chemical physics : PCCP.

Coherent solid/liquid interface with stress relaxation in a phase-field approach to the melting/solidification transition

Valery I. Levitas, V. Levitas, Kamran Samani, 2011 .

Digital Repository @ Iowa State University Size and mechanics effects in surface-induced melting of nanoparticles

V. Levitas, K. Samani, 2022 .

Imaging stress and magnetism at high pressures using a nanoscale quantum sensor

R. Jeanloz, N. Yao, J. E. Moore, 2018, Science.

Effect of initial microstructure on its evolution and $\alpha \rightarrow \omega$ phase transition in Zr under hydrostatic loading

Changyong Park, V. Levitas, Guoyin Shen, 2023, 2301.10475.

Plastic flows and phase transformations in materials under compression in diamond anvil cell: Effect of contact sliding

V. Levitas, O. M. Zarechnyy, Biao Feng, 2013 .

Strain-induced phase transformations under compression, unloading, and reloading in a diamond anvil cell

V. Levitas, O. M. Zarechnyy, Biao Feng, 2013 .

Severe plastic deformation for producing Superfunctional ultrafine-grained and heterostructured materials: An interdisciplinary review

R. Valiev, K. Edalati, J. A. Muñoz, 2024, Journal of Alloys and Compounds.

Grain growth phenomenon during pressure-induced phase transformations at room temperature

V. Levitas, N. Velisavljevic, R. Pratoori, 2024, 2406.09461.

Quantitative kinetic rules for plastic strain-induced $\alpha$-$\omega$ phase transformation in Zr under high pressure

M. Somayazulu, V. Levitas, N. Velisavljevic, 2024, 2405.14807.

In-situ study of rules of nanostructure evolution, severe plastic deformations, and friction under high pressure

Changyong Park, V. Levitas, F. Lin, 2023, Materials Research Letters.

Recent in situ Experimental and Theoretical Advances in Severe Plastic Deformations, Strain-Induced Phase Transformations, and Microstructure Evolution under High Pressure

V. Levitas, 2023, MATERIALS TRANSACTIONS.

The strong influence of internal stresses on the nucleation of a nanosized, deeply undercooled melt at a solid-solid phase interface.

J. Warren, V. Levitas, K. Momeni, 2015, Nano letters.

Thermodynamics and kinetics of nucleation of a spherical gas bubble inside an elastoplastic material due to sublimation

V. Levitas, N. Altukhova, 2012 .

Coupled phase transformation, chemical decomposition, and deformation in plastic-bonded explosive: Models

D. Zerkle, L. Smilowitz, B. Henson, 2007 .

Lattice Instability during Solid-Solid Structural Transformations under a General Applied Stress Tensor: Example of Si I âƒTM Si II with Metallization

V. Levitas, N. Zarkevich, Hao Chen, 2019 .

Deformation , lattice instability , and metallization during solid-solid structural transformations under general applied stress tensor : example of Si I → Si II

V. Levitas, Duane D. Johnson, Hao Chen, 2018 .

Phase field approach to interaction of phase transformation and dislocation evolution

V. Levitas, M. Javanbakht, 2013 .