Electrical Transport — Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks

Measurement evidence

Electrical Transport

Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks · Chen G., Li Z., Huang Z. et al. · ACS Nano · 2023 · 9611-9621

14 measurement groups · 14 results

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

Four-point-probe DC conductivity on cold-isostatically pressed pellets; Keithley 4200 SCS; CRX-6.5K probe station; sigma = (I/V) x ln(2)/(pi t)

Co-CoOAPc powder and cold-pressed pellet · Powder

Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s

Temperature
298
Atmosphere
vacuum (~1e-4 mbar)
Geometry
cold-pressed pellet, linear four-contact probe, 0.5 mm contact spacing
Context
pristine framework pellet
Measurement source
9619 · Methods / Conductivity Measurement · Figure 6; Figure 8; Figure S20; Table S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Room-temperature electrical conductivity, Co-CoOAPc pellet8.9E-4 +/- 1.3E-4 mS/cm8.9e-7 S/cm+/- 1.3E-4 mS/cmSI Table
Exact Reported
S31 · Table S5 · Table S5

Four-point-probe DC conductivity on cold-isostatically pressed pellets; Keithley 4200 SCS; CRX-6.5K probe station; sigma = (I/V) x ln(2)/(pi t)

Co-CuOAPc powder and cold-pressed pellet · Powder

Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s

Temperature
298
Atmosphere
vacuum (~1e-4 mbar)
Geometry
cold-pressed pellet, linear four-contact probe, 0.5 mm contact spacing
Context
pristine framework pellet
Measurement source
9619 · Methods / Conductivity Measurement · Figure 6; Figure 8; Figure S20; Table S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Room-temperature electrical conductivity, Co-CuOAPc pellet0.20 +/- 0.027 mS/cm0.0002 S/cm+/- 0.027 mS/cmSI Table
Exact Reported
S31 · Table S5 · Table S5

Four-point-probe DC conductivity on cold-isostatically pressed pellets; Keithley 4200 SCS; CRX-6.5K probe station; sigma = (I/V) x ln(2)/(pi t)

Co-NiOAPc powder and cold-pressed pellet · Powder

Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s

Temperature
298
Atmosphere
vacuum (~1e-4 mbar)
Geometry
cold-pressed pellet, linear four-contact probe, 0.5 mm contact spacing
Context
pristine framework pellet
Measurement source
9619 · Methods / Conductivity Measurement · Figure 6; Figure 8; Figure S20; Table S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Room-temperature electrical conductivity, Co-NiOAPc pellet0.21 +/- 0.018 mS/cm0.00021 S/cm+/- 0.018 mS/cmSI Table
Exact Reported
S31 · Table S5 · Table S5

Four-point-probe DC conductivity on cold-isostatically pressed pellets; Keithley 4200 SCS; CRX-6.5K probe station; sigma = (I/V) x ln(2)/(pi t)

Cu-CoOAPc powder and cold-pressed pellet · Powder

Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s

Temperature
298
Atmosphere
vacuum (~1e-4 mbar)
Geometry
cold-pressed pellet, linear four-contact probe, 0.5 mm contact spacing
Context
pristine framework pellet
Measurement source
9619 · Methods / Conductivity Measurement · Figure 6; Figure 8; Figure S20; Table S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Room-temperature electrical conductivity, Cu-CoOAPc pellet0.35 +/- 0.035 mS/cm0.00035 S/cm+/- 0.035 mS/cmSI Table
Exact Reported
S31 · Table S5 · Table S5

Four-point-probe DC conductivity on cold-isostatically pressed pellets; Keithley 4200 SCS; CRX-6.5K probe station; sigma = (I/V) x ln(2)/(pi t)

Cu-CuOAPc powder and cold-pressed pellet · Powder

Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s

Temperature
298
Atmosphere
vacuum (~1e-4 mbar)
Geometry
cold-pressed pellet, linear four-contact probe, 0.5 mm contact spacing
Context
pristine framework pellet
Measurement source
9619 · Methods / Conductivity Measurement · Figure 6; Figure 8; Figure S20; Table S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Room-temperature electrical conductivity, Cu-CuOAPc pellet0.13 +/- 0.017 mS/cm0.00013000000000000002 S/cm+/- 0.017 mS/cmSI Table
Exact Reported
S31 · Table S5 · Table S5

Four-point-probe DC conductivity on cold-isostatically pressed pellets; Keithley 4200 SCS; CRX-6.5K probe station; sigma = (I/V) x ln(2)/(pi t)

Cu-NiOAPc powder and cold-pressed pellet · Powder

Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s

Temperature
298
Atmosphere
vacuum (~1e-4 mbar)
Geometry
cold-pressed pellet, linear four-contact probe, 0.5 mm contact spacing
Context
pristine framework pellet
Measurement source
9619 · Methods / Conductivity Measurement · Figure 6; Figure 8; Figure S20; Table S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Room-temperature electrical conductivity, Cu-NiOAPc pellet0.68 +/- 0.059 mS/cm0.00068 S/cm+/- 0.059 mS/cmSI Table
Exact Reported
S31 · Table S5 · Table S5

Four-point-probe DC conductivity on cold-isostatically pressed pellets; Keithley 4200 SCS; CRX-6.5K probe station; sigma = (I/V) x ln(2)/(pi t)

Ni-CoOAPc powder and cold-pressed pellet · Powder

Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s

Temperature
298
Atmosphere
vacuum (~1e-4 mbar)
Geometry
cold-pressed pellet, linear four-contact probe, 0.5 mm contact spacing
Context
pristine framework pellet
Measurement source
9619 · Methods / Conductivity Measurement · Figure 6; Figure 8; Figure S20; Table S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Room-temperature electrical conductivity, Ni-CoOAPc pellet0.10 +/- 0.012 mS/cm0.0001 S/cm+/- 0.012 mS/cmSI Table
Exact Reported
S31 · Table S5 · Table S5

Four-point-probe DC conductivity on cold-isostatically pressed pellets; Keithley 4200 SCS; CRX-6.5K probe station; sigma = (I/V) x ln(2)/(pi t)

Ni-CuOAPc powder and cold-pressed pellet · Powder

Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s

Temperature
298
Atmosphere
vacuum (~1e-4 mbar)
Geometry
cold-pressed pellet, linear four-contact probe, 0.5 mm contact spacing
Context
pristine framework pellet
Measurement source
9619 · Methods / Conductivity Measurement · Figure 6; Figure 8; Figure S20; Table S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Room-temperature electrical conductivity, Ni-CuOAPc pellet17.3 +/- 4.0 mS/cm0.0173 S/cm+/- 4.0 mS/cmSI Table
Exact Reported
S31 · Table S5 · Table S5

Four-point-probe DC conductivity on cold-isostatically pressed pellets; Keithley 4200 SCS; CRX-6.5K probe station; sigma = (I/V) x ln(2)/(pi t)

Ni-NiOAPc powder and cold-pressed pellet · Powder

Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s

Temperature
298
Atmosphere
vacuum (~1e-4 mbar)
Geometry
cold-pressed pellet, linear four-contact probe, 0.5 mm contact spacing
Context
pristine framework pellet
Measurement source
9619 · Methods / Conductivity Measurement · Figure 6; Figure 8; Figure S20; Table S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Room-temperature electrical conductivity, Ni-NiOAPc pelletMarked as a best value within this paper54.3 +/- 4.8 mS/cm0.0543 S/cm+/- 4.8 mS/cmSI Table
Exact Reported
S31 · Table S5 · Table S5

Temperature-dependent four-point-probe conductivity; Arrhenius fit of ln(sigma/sigma_300K) vs 1000/T

Co-CuOAPc powder and cold-pressed pellet · Powder

Thermally activated hopping fit over approximately 260-320 K from Figure S21-S25

Temperature
260-320
Atmosphere
vacuum
Geometry
cold-pressed pellet, four-point probe
Context
pristine framework pellet
Measurement source
S22-S24 · Additional figures · Figures S21-S25
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Thermal activation energy Ea, Co-CuOAPc203 meVFigure Axis
Rounded Reported
S23 · Additional figures / Arrhenius fitting · Figure S24

Temperature-dependent four-point-probe conductivity; Arrhenius fit of ln(sigma/sigma_300K) vs 1000/T

Cu-CoOAPc powder and cold-pressed pellet · Powder

Thermally activated hopping fit over approximately 260-320 K from Figure S21-S25

Temperature
260-320
Atmosphere
vacuum
Geometry
cold-pressed pellet, four-point probe
Context
pristine framework pellet
Measurement source
S22-S24 · Additional figures · Figures S21-S25
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Thermal activation energy Ea, Cu-CoOAPc169 meVFigure Axis
Rounded Reported
S22 · Additional figures / Arrhenius fitting · Figure S21

Temperature-dependent four-point-probe conductivity; Arrhenius fit of ln(sigma/sigma_300K) vs 1000/T

Cu-CuOAPc powder and cold-pressed pellet · Powder

Thermally activated hopping fit over approximately 260-320 K from Figure S21-S25

Temperature
260-320
Atmosphere
vacuum
Geometry
cold-pressed pellet, four-point probe
Context
pristine framework pellet
Measurement source
S22-S24 · Additional figures · Figures S21-S25
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Thermal activation energy Ea, Cu-CuOAPc157 meVFigure Axis
Rounded Reported
S23 · Additional figures / Arrhenius fitting · Figure S23

Temperature-dependent four-point-probe conductivity; Arrhenius fit of ln(sigma/sigma_300K) vs 1000/T

Cu-NiOAPc powder and cold-pressed pellet · Powder

Thermally activated hopping fit over approximately 260-320 K from Figure S21-S25

Temperature
260-320
Atmosphere
vacuum
Geometry
cold-pressed pellet, four-point probe
Context
pristine framework pellet
Measurement source
S22-S24 · Additional figures · Figures S21-S25
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Thermal activation energy Ea, Cu-NiOAPc166 meVFigure Axis
Rounded Reported
S22 · Additional figures / Arrhenius fitting · Figure S22

Temperature-dependent four-point-probe conductivity; Arrhenius fit of ln(sigma/sigma_300K) vs 1000/T

Ni-CuOAPc powder and cold-pressed pellet · Powder

Thermally activated hopping fit over approximately 260-320 K from Figure S21-S25

Temperature
260-320
Atmosphere
vacuum
Geometry
cold-pressed pellet, four-point probe
Context
pristine framework pellet
Measurement source
S22-S24 · Additional figures · Figures S21-S25
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Thermal activation energy Ea, Ni-CuOAPcMarked as a best value within this paper74 meVFigure Axis
Rounded Reported
S24 · Additional figures / Arrhenius fitting · Figure S25