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 population0.16——SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.11——SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.11-0.16——SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+1.6127——SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.37——SI 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 paper2.564——Table
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 assigned——Text
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gap——Text
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. 54200——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.177——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.006594——Text
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 paper6.52——Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-42.33——Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a38.071——Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length2.606——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length2.579——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle102.394——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle115.525——Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS5.55——Table
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 population0.37——SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.36——SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.36-0.37——SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+2.0000——SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.14——SI 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 paper2.398——Table
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 assigned——Text
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gap——Text
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. 94200——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.255——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.012729——Text
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 paper12.49——Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-40.77——Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a32.874——Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length1.716——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length1.635——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle115.438——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle102.9——Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS0.59——Table
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 population0.18——SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.14——SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.14-0.18——SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+1.6188——SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.35——SI 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 paper2.454——Table
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 assigned——Text
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gap——Text
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. 65900——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.197——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.008025——Text
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 paper8.24——Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-43.98——Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a36.257——Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length2.269——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length2.242——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle106.308——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle112.44——Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS11.7——Table
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 population0.23——SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.21——SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.21-0.23——SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+1.3248——SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.27——SI 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 paper2.495——Table
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 assigned——Text
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gap——Text
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. 72800——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.21——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.009044——Text
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 paper8.81——Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-27.0——Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a35.858——Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length2.177——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length2.199——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle108.478——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle110.445——Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS2.97——Table
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 population0.23——SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.23——SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.23——SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+2.0000——SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.59——SI 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 paper2.441——Table
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 assigned——Text
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gap——Text
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. 77200——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.223——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.009962——Text
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 paper9.98——Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-41.32——Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a34.66——Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length1.987——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length1.959——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle110.611——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle108.308——Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS3.94——Table
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 population0.17——SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.14——SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.14-0.17——SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+1.6118——SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.39——SI 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 paper2.531——Table
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 assigned——Text
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gap——Text
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. 62500——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.185——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reported reflectivity value0.007100——Text
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 paper7.65——Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-43.15——Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a37.142——Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length2.432——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length2.405——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle104.287——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle114.12——Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS2.26——Table
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 population0.29——SI Table
Exact Reported
27-28 · Table S1 · Table S1
minimum M-O bond overlap population0.26——SI Table
Exact Reported
27-28 · Table S1 · Table S1
M-O bond overlap population range0.26-0.29——SI Table
Range
27-28 · Table S1 · Table S1
metal Bader charge+1.3898——SI Table
Exact Reported
27-28 · Table S1 · Table S1
metal Mulliken effective charge+1.30——SI 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 paper2.454——Table
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 assigned——Text
Qualitative
4721 · III.F Band structures and optical properties · Fig. 6; SI band figures
semiconducting/nonmetallic charactersemiconductor; ca. 2.5 eV gap——Text
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 energy4.74——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
absorption peak energy6.99——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
absorption peak energy15.70——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
imaginary dielectric-function peak energyca. 4.45——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
imaginary dielectric-function peak energyca. 6.85——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
imaginary dielectric-function peak energyca. 15.29——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
extinction-coefficient peak energyaround 4.63——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
extinction-coefficient peak energyaround 6.94——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
extinction-coefficient peak energyaround 15.58——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5
electron energy-loss peak energy5.02——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
electron energy-loss peak energy7.19——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
electron energy-loss peak energy17.12——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
maximum absorption coefficientMarked as a best value within this paperca. 81900——Text
Approximate
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
refractive index at infinite wavelength n(0)1.227——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
optical-conductivity peak energy4.57——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
optical-conductivity peak energy6.91——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
optical-conductivity peak energy15.44——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
reported reflectivity value0.010227——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5; SI optical figures
reflectivity peak energy4.11——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
reflectivity peak energy6.80——Text
Exact Reported
4720-4721 · III.F Band structures and optical properties · Fig. 5
reflectivity high-energy peak15.77——Text
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 paper10.25——Table
Exact Reported
4716-4717 · III.B-C · Table 1
formation enthalpy according to equation 2Marked as a best value within this paper-30.39——Table
Exact Reported
4716-4717 · III.B-C · Table 4
optimised cubic lattice parameter a34.617——Table
Exact Reported
4716-4717 · III.B-C · Table 1
optimised M-O1 bond length1.97——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised M-O2 bond length1.97——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O1-M-O2 bond angle111.494——Table
Exact Reported
4716-4717 · III.B-C · Table 3
optimised O2-M-O2 bond angle107.375——Table
Exact Reported
4716-4717 · III.B-C · Table 3
bulk-modulus pressure derivative B0prime from Universal EOS3.64——Table
Exact Reported
4716-4717 · III.B-C · Table 1