Size-dependent ferroelectric-to-paraelectric sliding transformations and antipolar-to-ferroelectric topological phase transitions in binary homobilayers | Matter42 Literature
Paper details
Research paper
Computational MD
Size-dependent ferroelectric-to-paraelectric sliding transformations and antipolar-to-ferroelectric topological phase transitions in binary homobilayers
Alejandro Pacheco-Sanjuan, Pradeep Kumar, Salvador Barraza-Lopez
arXiv·2024·arXiv:2403.12175
Samples
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
Simulated ferroelectric hBN bilayer with AA relative configuration and 200 atoms.
No measurements recorded
h-BNStudied Material
Simulated ferroelectric hBN bilayer with AA relative configuration and 400 atoms.
Simulated moiré antipolar hBN bilayer with relative rotation δ = 1.02° and 50,444 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 2.01° and 12,944 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 3.15° and 5,216 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 3.89° and 3,408 atoms.
No measurements recorded
h-BNStudied Material
Materials
hexagonal boron nitride
h-BN
Studied Material
Also known as
hBNh-BN
studied material
Simulations
Md
Classical molecular dynamics with Tersoff intralayer potential and anisotropic interlayer potential (ILP) for h-BN; velocity Verlet integration; NPT equilibration followed by NVE production.
Why these are connected
Related documents with shared materials, methods, properties, or citations.
Simulated moiré antipolar hBN bilayer with relative rotation δ = 1.02° and 50,444 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 2.01° and 12,944 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 3.15° and 5,216 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 3.89° and 3,408 atoms.
No measurements recorded
h-BNStudied Material
Materials
hexagonal boron nitride
h-BN
Studied Material
Also known as
hBNh-BN
studied material
Simulations
Md
Classical molecular dynamics with Tersoff intralayer potential and anisotropic interlayer potential (ILP) for h-BN; velocity Verlet integration; NPT equilibration followed by NVE production.
Why these are connected
Related documents with shared materials, methods, properties, or citations.
Simulated moiré antipolar hBN bilayer with relative rotation δ = 1.02° and 50,444 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 2.01° and 12,944 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 3.15° and 5,216 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 3.89° and 3,408 atoms.
No measurements recorded
h-BNStudied Material
Materials
hexagonal boron nitride
h-BN
Studied Material
Also known as
hBNh-BN
studied material
Simulations
Md
Classical molecular dynamics with Tersoff intralayer potential and anisotropic interlayer potential (ILP) for h-BN; velocity Verlet integration; NPT equilibration followed by NVE production.
Why these are connected
Related documents with shared materials, methods, properties, or citations.
Simulated moiré antipolar hBN bilayer with relative rotation δ = 1.02° and 50,444 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 2.01° and 12,944 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 3.15° and 5,216 atoms.
No measurements recorded
h-BNStudied Material
Simulated moiré antipolar hBN bilayer with relative rotation δ = 3.89° and 3,408 atoms.
No measurements recorded
h-BNStudied Material
Materials
hexagonal boron nitride
h-BN
Studied Material
Also known as
hBNh-BN
studied material
Simulations
Md
Classical molecular dynamics with Tersoff intralayer potential and anisotropic interlayer potential (ILP) for h-BN; velocity Verlet integration; NPT equilibration followed by NVE production.
Why these are connected
Related documents with shared materials, methods, properties, or citations.
Classical molecular dynamics at 300 K to assess the temperature dependence of diffusion coefficients in a moiré bilayer with 3.15° relative rotation.LAMMPS
Classical molecular dynamics at 300 K to assess the temperature dependence of diffusion coefficients in a moiré bilayer with 3.15° relative rotation.LAMMPS
Classical molecular dynamics at 300 K to assess the temperature dependence of diffusion coefficients in a moiré bilayer with 3.15° relative rotation.LAMMPS
Classical molecular dynamics at 300 K to assess the temperature dependence of diffusion coefficients in a moiré bilayer with 3.15° relative rotation.LAMMPS