In the current study, molecular dynamics (MD) simulations were performed to study the pressure dependence of the structural and mechanical properties of single-crystal tungsten. The results show that single-crystal tungsten possesses noteworthy high-pressure stability and exhibits linear lattice contraction with increasing external pressure. Consistent with the results of the performed experiments, the predicted elastic moduli, including Young’s modulus, shear modulus, and bulk modulus, as well as Poisson’s ratio and Pugh’s modulus ratio, show a clear increasing trend with the increase in pressure. Under uniaxial tensile loading, the single-crystal tungsten at high pressures experiences a phase transition from BCC to FCC and other disordere...
A self-consistent thermo-mechanical model to study the strain-hardening behavior of polycrystalline ...
Tungsten is a promising armour material for plasma facing components of nuclear fusion reactors. Tw...
Funding Information: We would like to thank M.-C. Marinica and J. Alcalá for inspiring conversations...
The phase transition of tungsten (W) under high pressures was investigated with molecular dynamics s...
Understanding and improving the mechanical properties of tungsten is a critical task for the materia...
The design of the next generation of nuclear fusion machines needs efficient Plasma Facing materials...
The mechanical properties and electronic structure of polymorphic tungsten carbides with different s...
The crystal structure, mechanical, and electronic properties of W0.71Fe0.15B3 under pressure were st...
The structural phase transitions in molybdenum under pressures are investigated on the basis of firs...
© 2016 American Physical Society.The general method for the calculation of nth (n=2) order elastic c...
The thermodynamic stability as a function of pressure and temperature of three WTe2 polytypes, i. e....
The compression behavior and stress state of nanocrystalline tungsten boride (WB) were investigated ...
© 2015 Uspekhi Fizicheskikh Nauk, Russian Academy of Sciences.This review examines the elastic respo...
© 2015 Elsevier Ltd. We use a physically-based crystal plasticity model to predict the yield strengt...
Owing to its favorable material properties, tungsten (W) has been studied as a plasma-facing materia...
A self-consistent thermo-mechanical model to study the strain-hardening behavior of polycrystalline ...
Tungsten is a promising armour material for plasma facing components of nuclear fusion reactors. Tw...
Funding Information: We would like to thank M.-C. Marinica and J. Alcalá for inspiring conversations...
The phase transition of tungsten (W) under high pressures was investigated with molecular dynamics s...
Understanding and improving the mechanical properties of tungsten is a critical task for the materia...
The design of the next generation of nuclear fusion machines needs efficient Plasma Facing materials...
The mechanical properties and electronic structure of polymorphic tungsten carbides with different s...
The crystal structure, mechanical, and electronic properties of W0.71Fe0.15B3 under pressure were st...
The structural phase transitions in molybdenum under pressures are investigated on the basis of firs...
© 2016 American Physical Society.The general method for the calculation of nth (n=2) order elastic c...
The thermodynamic stability as a function of pressure and temperature of three WTe2 polytypes, i. e....
The compression behavior and stress state of nanocrystalline tungsten boride (WB) were investigated ...
© 2015 Uspekhi Fizicheskikh Nauk, Russian Academy of Sciences.This review examines the elastic respo...
© 2015 Elsevier Ltd. We use a physically-based crystal plasticity model to predict the yield strengt...
Owing to its favorable material properties, tungsten (W) has been studied as a plasma-facing materia...
A self-consistent thermo-mechanical model to study the strain-hardening behavior of polycrystalline ...
Tungsten is a promising armour material for plasma facing components of nuclear fusion reactors. Tw...
Funding Information: We would like to thank M.-C. Marinica and J. Alcalá for inspiring conversations...