Computational Modelling — Interfacial Synthesis of Layer-Oriented 2D Conjugated Metal-Organic Framework Films toward Directional Charge Transport

Measurement evidence

Computational Modelling

Interfacial Synthesis of Layer-Oriented 2D Conjugated Metal-Organic Framework Films toward Directional Charge Transport · Wang Z., Walter L.S., Wang M. et al. · Journal of the American Chemical Society · 2021 · 13624-13632

1 measurement group · 6 results

Reported values remain attached to the sample, method, conditions, extraction quality and source location that produced them.

DFT+U using VASP 5.4.1; PBE GGA; PAW; Grimme-D2; Bader analysis; BoltzTraP2

Cu2[PcCu-O8] multilayer AA-inclined DFT model · Model

Plane-wave cutoff 400 eV; EDIFF 1E-6 eV; U = 4 eV and J = 1 eV for Cu d orbitals; monolayer k grids 3x3x1 optimisation and 9x9x1 band; 3D stack k grids 2x2x4 optimisation and 4x4x6 band; BoltzTraP2 interpolation onto 7-times denser grid

Geometry
Monolayer and 3D stacked periodic models
Context
Computational model systems
Measurement source
SI p. 5 · Modeling and electronic structure · Figure 4; Table S2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Calculated conductivity anisotropy trendIntralayer conductivity much lower than interlayer conductivityQualitative
Qualitative
p. 6 · Theoretical Calculation of Electronic Structures · Figure 4c
DFT interlayer-direction band dispersion0.19 eV along Gamma-ZText
Exact Reported
p. 6 · Theoretical Calculation of Electronic Structures · Figure 4b
DFT monolayer bandgapabout 0.35 eVText
Approximate
p. 6 · Theoretical Calculation of Electronic Structures · Figure 4a
DFT AA-inclined multilayer bandgap0.03 eVText
Exact Reported
p. 6 · Theoretical Calculation of Electronic Structures · Figure 4b
PBE-D2 optimised monolayer lattice parametera = b = 18.36 A1.836 nmText
Exact Reported
SI p. 5 · Modeling and electronic structure
SCAN optimised monolayer lattice parametera = b = 18.40 A1.84 nmText
Exact Reported
SI p. 5 · Modeling and electronic structure