We used classical molecular dynamics simulation to study the ferrite–austenite phase transformation of iron in the vicinity of a phase boundary to cementite. When heating a ferrite–cementite bicrystal, we found that the austenitic transformation starts to nucleate at the phase boundary. Due to the variants nucleated, an extended poly-crystalline microstructure is established in the transformed phase. When cooling a high-temperature austenite–cementite bicrystal, the martensitic transformation is induced; the new phase again nucleates at the phase boundary obeying the Kurdjumov–Sachs orientation relations, resulting in a twinned microstructure
Using classical molecular dynamics simulations, we studied the influence that free surfaces exert o...
AbstractStructural transformations in Fe–C alloys are decisive for the mechanical properties of stee...
Molecular dynamics (MD) simulations are used to study the effect of different defect configurations ...
We used classical molecular dynamics simulation to study the ferrite–austenite phase transform...
The aim of this PhD. thesis is to use molecular dynamics (MD) simulations to comprehend the mechanis...
Using classical molecular dynamics simulations, we study the martensitic and austenitic phase transf...
The aim of this PhD. thesis is to use molecular dynamics (MD) simulations to comprehend the mechanis...
The martensitic transformation in pure Fe and its alloys has been studied over many decades. Several...
Using classical molecular dynamics simulations and the Meyer-Entel interaction potential, we study t...
Molecular dynamics (MD) simulation has been used to study the martensitic transformation in iron at ...
Molecular dynamics simulations are used to study the effects of tensile loading on nucleation and su...
Molecular dynamics simulations are used to study the effects of tensile loading on nucleation and su...
Using molecular dynamics simulation, we studied the influence of pre-existing dislocations on the au...
Structural transformations in Fe–C alloys are decisive for the mechanical properties of steels, but ...
Abstrac t. High-performance large-scale molecular-dynamics (MD) simulations provide an atom-istic in...
Using classical molecular dynamics simulations, we studied the influence that free surfaces exert o...
AbstractStructural transformations in Fe–C alloys are decisive for the mechanical properties of stee...
Molecular dynamics (MD) simulations are used to study the effect of different defect configurations ...
We used classical molecular dynamics simulation to study the ferrite–austenite phase transform...
The aim of this PhD. thesis is to use molecular dynamics (MD) simulations to comprehend the mechanis...
Using classical molecular dynamics simulations, we study the martensitic and austenitic phase transf...
The aim of this PhD. thesis is to use molecular dynamics (MD) simulations to comprehend the mechanis...
The martensitic transformation in pure Fe and its alloys has been studied over many decades. Several...
Using classical molecular dynamics simulations and the Meyer-Entel interaction potential, we study t...
Molecular dynamics (MD) simulation has been used to study the martensitic transformation in iron at ...
Molecular dynamics simulations are used to study the effects of tensile loading on nucleation and su...
Molecular dynamics simulations are used to study the effects of tensile loading on nucleation and su...
Using molecular dynamics simulation, we studied the influence of pre-existing dislocations on the au...
Structural transformations in Fe–C alloys are decisive for the mechanical properties of steels, but ...
Abstrac t. High-performance large-scale molecular-dynamics (MD) simulations provide an atom-istic in...
Using classical molecular dynamics simulations, we studied the influence that free surfaces exert o...
AbstractStructural transformations in Fe–C alloys are decisive for the mechanical properties of stee...
Molecular dynamics (MD) simulations are used to study the effect of different defect configurations ...