Computational Modelling — Properties of IRMOF-14 and its analogues M-IRMOF-14 (M = Cd, alkaline earth metals): Electronic structure, structural stability, chemical bonding, and optical properties

Measurement evidence

Computational Modelling

Properties of IRMOF-14 and its analogues M-IRMOF-14 (M = Cd, alkaline earth metals): Electronic structure, structural stability, chemical bonding, and optical properties · Yang L.-M., Ravindran P., Vajeeston P. et al. · Physical Chemistry Chemical Physics · 2012 · 4713-4723

28 measurement groups · 151 results

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

Mulliken population analysis, Bader charge analysis, charge density, charge transfer, and ELF calculations

Ba-IRMOF-14 computational model · Model

Bonding analysis at the optimised structure; SI includes charge-density, charge-transfer, ELF, TDOS/PDOS, and Table S1 population data.

Context
pristine computational framework
Measurement source
27-28 · Supporting Information Table S1 · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum M-O bond overlap population0.16SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.11SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.11-0.16SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+1.6127SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.37SI Table
Exact Reported
27-28 · Table S1 · Table S1

CASTEP TDOS/PDOS and band-structure calculations with ultrasoft pseudopotentials

Ba-IRMOF-14 computational model · Model

Electronic density of states and band structures calculated at optimised equilibrium volumes; Fermi level set to zero in band plots.

Context
pristine computational framework
Measurement source
4717-4721 · III.D; III.F · Table 5; Fig. 2-4; Fig. 6; SI Fig. S7; Fig. S13; Fig. S24; Fig. S25
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
calculated electronic band gap EgMarked as a best value within this paper2.564Table
Exact Reported
4719 · III.D Electronic density of states · Table 5
band dispersion charactervalence and conduction bands almost parallel and dispersionless; direct/indirect gap not assignedText
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gapText
Qualitative
4718 · III.D Electronic density of states · Fig. 4

CASTEP linear optical-property calculation from dielectric function

Ba-IRMOF-14 computational model · Model

Calculated dielectric function, reflectivity, refractive index/extinction coefficient, optical conductivity, energy-loss function, and absorption coefficient.

Context
pristine computational framework
Measurement source
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI Fig. S24
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum absorption coefficientMarked as a best value within this paperca. 54200Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.177Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.006594Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures

VASP total-energy DFT using PBE-GGA and PAW pseudopotentials; E-V fitting to Universal, Murnaghan, and Birch-Murnaghan EOS

Ba-IRMOF-14 computational model · Model

Full relaxation of atomic positions and cell parameters; 500 eV plane-wave cutoff; gamma-point geometry optimisation; DOS/band calculations used more k-points.

Context
pristine computational framework
Measurement source
4715-4717 · II Computational details; III.B-C · Tables 1, 3, 4
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
bulk modulus B0 from Universal EOSMarked as a best value within this paper6.52Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-42.33Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a38.071Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length2.606Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length2.579Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle102.394Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle115.525Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS5.55Table
Exact Reported
4716-4717 · III.B-C · Table 1

Mulliken population analysis, Bader charge analysis, charge density, charge transfer, and ELF calculations

Be-IRMOF-14 computational model · Model

Bonding analysis at the optimised structure; SI includes charge-density, charge-transfer, ELF, TDOS/PDOS, and Table S1 population data.

Context
pristine computational framework
Measurement source
27-28 · Supporting Information Table S1 · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum M-O bond overlap population0.37SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.36SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.36-0.37SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+2.0000SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.14SI Table
Exact Reported
27-28 · Table S1 · Table S1

CASTEP TDOS/PDOS and band-structure calculations with ultrasoft pseudopotentials

Be-IRMOF-14 computational model · Model

Electronic density of states and band structures calculated at optimised equilibrium volumes; Fermi level set to zero in band plots.

Context
pristine computational framework
Measurement source
4717-4721 · III.D; III.F · Table 5; Fig. 2-4; Fig. 6; SI Fig. S3; Fig. S9; Fig. S16; Fig. S17
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
calculated electronic band gap EgMarked as a best value within this paper2.398Table
Exact Reported
4719 · III.D Electronic density of states · Table 5
band dispersion charactervalence and conduction bands almost parallel and dispersionless; direct/indirect gap not assignedText
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gapText
Qualitative
4718 · III.D Electronic density of states · Fig. 4

CASTEP linear optical-property calculation from dielectric function

Be-IRMOF-14 computational model · Model

Calculated dielectric function, reflectivity, refractive index/extinction coefficient, optical conductivity, energy-loss function, and absorption coefficient.

Context
pristine computational framework
Measurement source
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI Fig. S16
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum absorption coefficientMarked as a best value within this paperca. 94200Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.255Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.012729Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures

VASP total-energy DFT using PBE-GGA and PAW pseudopotentials; E-V fitting to Universal, Murnaghan, and Birch-Murnaghan EOS

Be-IRMOF-14 computational model · Model

Full relaxation of atomic positions and cell parameters; 500 eV plane-wave cutoff; gamma-point geometry optimisation; DOS/band calculations used more k-points.

Context
pristine computational framework
Measurement source
4715-4717 · II Computational details; III.B-C · Tables 1, 3, 4
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
bulk modulus B0 from Universal EOSMarked as a best value within this paper12.49Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-40.77Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a32.874Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length1.716Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length1.635Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle115.438Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle102.9Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS0.59Table
Exact Reported
4716-4717 · III.B-C · Table 1

Mulliken population analysis, Bader charge analysis, charge density, charge transfer, and ELF calculations

Ca-IRMOF-14 computational model · Model

Bonding analysis at the optimised structure; SI includes charge-density, charge-transfer, ELF, TDOS/PDOS, and Table S1 population data.

Context
pristine computational framework
Measurement source
27-28 · Supporting Information Table S1 · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum M-O bond overlap population0.18SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.14SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.14-0.18SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+1.6188SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.35SI Table
Exact Reported
27-28 · Table S1 · Table S1

CASTEP TDOS/PDOS and band-structure calculations with ultrasoft pseudopotentials

Ca-IRMOF-14 computational model · Model

Electronic density of states and band structures calculated at optimised equilibrium volumes; Fermi level set to zero in band plots.

Context
pristine computational framework
Measurement source
4717-4721 · III.D; III.F · Table 5; Fig. 2-4; Fig. 6; SI Fig. S5; Fig. S11; Fig. S20; Fig. S21
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
calculated electronic band gap EgMarked as a best value within this paper2.454Table
Exact Reported
4719 · III.D Electronic density of states · Table 5
band dispersion charactervalence and conduction bands almost parallel and dispersionless; direct/indirect gap not assignedText
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gapText
Qualitative
4718 · III.D Electronic density of states · Fig. 4

CASTEP linear optical-property calculation from dielectric function

Ca-IRMOF-14 computational model · Model

Calculated dielectric function, reflectivity, refractive index/extinction coefficient, optical conductivity, energy-loss function, and absorption coefficient.

Context
pristine computational framework
Measurement source
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI Fig. S20
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum absorption coefficientMarked as a best value within this paperca. 65900Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.197Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.008025Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures

VASP total-energy DFT using PBE-GGA and PAW pseudopotentials; E-V fitting to Universal, Murnaghan, and Birch-Murnaghan EOS

Ca-IRMOF-14 computational model · Model

Full relaxation of atomic positions and cell parameters; 500 eV plane-wave cutoff; gamma-point geometry optimisation; DOS/band calculations used more k-points.

Context
pristine computational framework
Measurement source
4715-4717 · II Computational details; III.B-C · Tables 1, 3, 4
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
bulk modulus B0 from Universal EOSMarked as a best value within this paper8.24Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-43.98Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a36.257Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length2.269Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length2.242Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle106.308Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle112.44Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS11.7Table
Exact Reported
4716-4717 · III.B-C · Table 1

Mulliken population analysis, Bader charge analysis, charge density, charge transfer, and ELF calculations

Cd-IRMOF-14 computational model · Model

Bonding analysis at the optimised structure; SI includes charge-density, charge-transfer, ELF, TDOS/PDOS, and Table S1 population data.

Context
pristine computational framework
Measurement source
27-28 · Supporting Information Table S1 · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum M-O bond overlap population0.23SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.21SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.21-0.23SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+1.3248SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.27SI Table
Exact Reported
27-28 · Table S1 · Table S1

CASTEP TDOS/PDOS and band-structure calculations with ultrasoft pseudopotentials

Cd-IRMOF-14 computational model · Model

Electronic density of states and band structures calculated at optimised equilibrium volumes; Fermi level set to zero in band plots.

Context
pristine computational framework
Measurement source
4717-4721 · III.D; III.F · Table 5; Fig. 2-4; Fig. 6; SI Fig. S2; Fig. S8; Fig. S14; Fig. S15
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
calculated electronic band gap EgMarked as a best value within this paper2.495Table
Exact Reported
4719 · III.D Electronic density of states · Table 5
band dispersion charactervalence and conduction bands almost parallel and dispersionless; direct/indirect gap not assignedText
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gapText
Qualitative
4718 · III.D Electronic density of states · Fig. 4

CASTEP linear optical-property calculation from dielectric function

Cd-IRMOF-14 computational model · Model

Calculated dielectric function, reflectivity, refractive index/extinction coefficient, optical conductivity, energy-loss function, and absorption coefficient.

Context
pristine computational framework
Measurement source
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI Fig. S14
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum absorption coefficientMarked as a best value within this paperca. 72800Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.21Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.009044Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures

VASP total-energy DFT using PBE-GGA and PAW pseudopotentials; E-V fitting to Universal, Murnaghan, and Birch-Murnaghan EOS

Cd-IRMOF-14 computational model · Model

Full relaxation of atomic positions and cell parameters; 500 eV plane-wave cutoff; gamma-point geometry optimisation; DOS/band calculations used more k-points.

Context
pristine computational framework
Measurement source
4715-4717 · II Computational details; III.B-C · Tables 1, 3, 4
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
bulk modulus B0 from Universal EOSMarked as a best value within this paper8.81Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-27.0Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a35.858Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length2.177Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length2.199Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle108.478Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle110.445Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS2.97Table
Exact Reported
4716-4717 · III.B-C · Table 1

Mulliken population analysis, Bader charge analysis, charge density, charge transfer, and ELF calculations

Mg-IRMOF-14 computational model · Model

Bonding analysis at the optimised structure; SI includes charge-density, charge-transfer, ELF, TDOS/PDOS, and Table S1 population data.

Context
pristine computational framework
Measurement source
27-28 · Supporting Information Table S1 · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum M-O bond overlap population0.23SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.23SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.23SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+2.0000SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.59SI Table
Exact Reported
27-28 · Table S1 · Table S1

CASTEP TDOS/PDOS and band-structure calculations with ultrasoft pseudopotentials

Mg-IRMOF-14 computational model · Model

Electronic density of states and band structures calculated at optimised equilibrium volumes; Fermi level set to zero in band plots.

Context
pristine computational framework
Measurement source
4717-4721 · III.D; III.F · Table 5; Fig. 2-4; Fig. 6; SI Fig. S4; Fig. S10; Fig. S18; Fig. S19
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
calculated electronic band gap EgMarked as a best value within this paper2.441Table
Exact Reported
4719 · III.D Electronic density of states · Table 5
band dispersion charactervalence and conduction bands almost parallel and dispersionless; direct/indirect gap not assignedText
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gapText
Qualitative
4718 · III.D Electronic density of states · Fig. 4

CASTEP linear optical-property calculation from dielectric function

Mg-IRMOF-14 computational model · Model

Calculated dielectric function, reflectivity, refractive index/extinction coefficient, optical conductivity, energy-loss function, and absorption coefficient.

Context
pristine computational framework
Measurement source
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI Fig. S18
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum absorption coefficientMarked as a best value within this paperca. 77200Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.223Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.009962Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures

VASP total-energy DFT using PBE-GGA and PAW pseudopotentials; E-V fitting to Universal, Murnaghan, and Birch-Murnaghan EOS

Mg-IRMOF-14 computational model · Model

Full relaxation of atomic positions and cell parameters; 500 eV plane-wave cutoff; gamma-point geometry optimisation; DOS/band calculations used more k-points.

Context
pristine computational framework
Measurement source
4715-4717 · II Computational details; III.B-C · Tables 1, 3, 4
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
bulk modulus B0 from Universal EOSMarked as a best value within this paper9.98Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-41.32Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a34.66Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length1.987Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length1.959Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle110.611Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle108.308Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS3.94Table
Exact Reported
4716-4717 · III.B-C · Table 1

Mulliken population analysis, Bader charge analysis, charge density, charge transfer, and ELF calculations

Sr-IRMOF-14 computational model · Model

Bonding analysis at the optimised structure; SI includes charge-density, charge-transfer, ELF, TDOS/PDOS, and Table S1 population data.

Context
pristine computational framework
Measurement source
27-28 · Supporting Information Table S1 · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum M-O bond overlap population0.17SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.14SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.14-0.17SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+1.6118SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.39SI Table
Exact Reported
27-28 · Table S1 · Table S1

CASTEP TDOS/PDOS and band-structure calculations with ultrasoft pseudopotentials

Sr-IRMOF-14 computational model · Model

Electronic density of states and band structures calculated at optimised equilibrium volumes; Fermi level set to zero in band plots.

Context
pristine computational framework
Measurement source
4717-4721 · III.D; III.F · Table 5; Fig. 2-4; Fig. 6; SI Fig. S6; Fig. S12; Fig. S22; Fig. S23
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
calculated electronic band gap EgMarked as a best value within this paper2.531Table
Exact Reported
4719 · III.D Electronic density of states · Table 5
band dispersion charactervalence and conduction bands almost parallel and dispersionless; direct/indirect gap not assignedText
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gapText
Qualitative
4718 · III.D Electronic density of states · Fig. 4

CASTEP linear optical-property calculation from dielectric function

Sr-IRMOF-14 computational model · Model

Calculated dielectric function, reflectivity, refractive index/extinction coefficient, optical conductivity, energy-loss function, and absorption coefficient.

Context
pristine computational framework
Measurement source
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI Fig. S22
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum absorption coefficientMarked as a best value within this paperca. 62500Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.185Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.007100Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures

VASP total-energy DFT using PBE-GGA and PAW pseudopotentials; E-V fitting to Universal, Murnaghan, and Birch-Murnaghan EOS

Sr-IRMOF-14 computational model · Model

Full relaxation of atomic positions and cell parameters; 500 eV plane-wave cutoff; gamma-point geometry optimisation; DOS/band calculations used more k-points.

Context
pristine computational framework
Measurement source
4715-4717 · II Computational details; III.B-C · Tables 1, 3, 4
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
bulk modulus B0 from Universal EOSMarked as a best value within this paper7.65Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-43.15Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a37.142Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length2.432Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length2.405Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle104.287Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle114.12Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS2.26Table
Exact Reported
4716-4717 · III.B-C · Table 1

Mulliken population analysis, Bader charge analysis, charge density, charge transfer, and ELF calculations

IRMOF-14 computational model · Model

Bonding analysis at the optimised structure; SI includes charge-density, charge-transfer, ELF, TDOS/PDOS, and Table S1 population data.

Context
pristine computational framework
Measurement source
27-28 · Supporting Information Table S1 · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum M-O bond overlap population0.29SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.26SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.26-0.29SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+1.3898SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.30SI Table
Exact Reported
27-28 · Table S1 · Table S1

CASTEP TDOS/PDOS and band-structure calculations with ultrasoft pseudopotentials

IRMOF-14 computational model · Model

Electronic density of states and band structures calculated at optimised equilibrium volumes; Fermi level set to zero in band plots.

Context
pristine computational framework
Measurement source
4717-4721 · III.D; III.F · Table 5; Fig. 2-4; Fig. 6; SI Fig. S1; Fig. 3
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
calculated electronic band gap EgMarked as a best value within this paper2.454Table
Exact Reported
4719 · III.D Electronic density of states · Table 5
band dispersion charactervalence and conduction bands almost parallel and dispersionless; direct/indirect gap not assignedText
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gapText
Qualitative
4718 · III.D Electronic density of states · Fig. 4

CASTEP linear optical-property calculation from dielectric function

IRMOF-14 computational model · Model

Calculated dielectric function, reflectivity, refractive index/extinction coefficient, optical conductivity, energy-loss function, and absorption coefficient.

Context
pristine computational framework
Measurement source
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI Fig. 5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
absorption peak energy4.74Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
absorption peak energy6.99Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
absorption peak energy15.70Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
imaginary dielectric-function peak energyca. 4.45Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
imaginary dielectric-function peak energyca. 6.85Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
imaginary dielectric-function peak energyca. 15.29Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
extinction-coefficient peak energyaround 4.63Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
extinction-coefficient peak energyaround 6.94Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
extinction-coefficient peak energyaround 15.58Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
electron energy-loss peak energy5.02Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
electron energy-loss peak energy7.19Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
electron energy-loss peak energy17.12Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
maximum absorption coefficientMarked as a best value within this paperca. 81900Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.227Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
optical-conductivity peak energy4.57Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
optical-conductivity peak energy6.91Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
optical-conductivity peak energy15.44Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
reported reflectivity value0.010227Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reflectivity peak energy4.11Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
reflectivity peak energy6.80Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
reflectivity high-energy peak15.77Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5

VASP total-energy DFT using PBE-GGA and PAW pseudopotentials; E-V fitting to Universal, Murnaghan, and Birch-Murnaghan EOS

IRMOF-14 computational model · Model

Full relaxation of atomic positions and cell parameters; 500 eV plane-wave cutoff; gamma-point geometry optimisation; DOS/band calculations used more k-points.

Context
pristine computational framework
Measurement source
4715-4717 · II Computational details; III.B-C · Tables 1, 3, 4
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
bulk modulus B0 from Universal EOSMarked as a best value within this paper10.25Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-30.39Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a34.617Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length1.97Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length1.97Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle111.494Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle107.375Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS3.64Table
Exact Reported
4716-4717 · III.B-C · Table 1