Electrochemistry Application — Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems

Measurement evidence

Electrochemistry Application

Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems · Guo Z., Panda D.K., Maity K. et al. · Journal of Materials Chemistry C · 2016 · 894-899

6 measurement groups · 11 results

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

BMOF/ZnO-FTO film CV

BMOF/ZnO-FTO electrochemical film · Electrode

BMOF/ZnO-FTO working electrode; Pt mesh counter; Ag/AgCl reference; 0.1 M Bu4NPF6 supporting electrolyte.

Temperature
298
Atmosphere
ambient
Geometry
three-electrode CV
Context
model/control electrochemistry
Measurement source
S5/S9 · Electrochemical analysis · Fig. S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
BMOF oxidation potentialE1Ox = 920 mV vs Ag/AgClFigure Axis
Exact Reported
S9 · Fig. S5 · Fig. S5
BMOF reduction potentialE1Red = -850 mV vs Ag/AgClFigure Axis
Exact Reported
S9 · Fig. S5 · Fig. S5

BPDPNDI ligand CV

BPDPNDI ligand solution · Model

1 mM BPDPNDI in 0.1 M Bu4NPF6/MeCN.

Temperature
298
Atmosphere
ambient
Geometry
three-electrode CV
Context
model/control electrochemistry
Measurement source
S5/S9 · Electrochemical analysis · Fig. S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
BPDPNDI oxidation potentialE1Ox = +880 mV vs Ag/AgClFigure Axis
Exact Reported
S9 · Fig. S5 · Fig. S5
BPDPNDI reduction potentialE1Red = -850 mV vs Ag/AgClFigure Axis
Exact Reported
S9 · Fig. S5 · Fig. S5

DFDNB CV

DFDNB solution · Model

1 mM DFDNB in 0.1 M Bu4NPF6/MeCN.

Temperature
298
Atmosphere
ambient
Geometry
three-electrode CV
Context
model/control electrochemistry
Measurement source
S5/S9 · Electrochemical analysis · Fig. S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
DFDNB reduction potentialE1Red = -810 mV vs Ag/AgClFigure Axis
Exact Reported
S9 · Fig. S5 · Fig. S5

DNT CV

DNT solution · Model

1 mM DNT in 0.1 M Bu4NPF6/MeCN.

Temperature
298
Atmosphere
ambient
Geometry
three-electrode CV
Context
model/control electrochemistry
Measurement source
S5/S9 · Electrochemical analysis · Fig. S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
DNT reduction potentialE1Red = -850 mV vs Ag/AgClFigure Axis
Exact Reported
S9 · Fig. S5 · Fig. S5

MV2+ CV

MV2+·2PF6- solution · Model

0.5 mM MV2+·2PF6- in 0.1 M Bu4NPF6/MeCN.

Temperature
298
Atmosphere
ambient
Geometry
three-electrode CV
Context
model/control electrochemistry
Measurement source
S5/S9 · Electrochemical analysis · Fig. S5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
MV2+ reduction potentialE1Red = -380 mV vs Ag/AgClFigure Axis
Exact Reported
S9 · Fig. S5 · Fig. S5

visible absorption and electrochemical redox measurements versus Ag/AgCl

Pristine BMOF film on ZnO · Thin Film

BMOF films on ZnO-coated FTO electrodes; compared with BPDPNDI ligand

Geometry
ZnO-coated FTO electrode
Context
pristine BMOF film
Measurement source
896 · Results and discussion · Figure S5 referenced
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
BMOF oxidation potentialEOx = +920 mV vs Ag/AgClText
Exact Reported
896 · Results and discussion · Figure S5 referenced
BMOF reduction potentialERed = -850 mV vs Ag/AgClText
Exact Reported
896 · Results and discussion · Figure S5 referenced
BMOF film absorption maximumlambda max = 615 nmText
Exact Reported
896 · Results and discussion · Figure S5 referenced
BPDPNDI ligand absorption maximumlambda max = 610 nmText
Exact Reported
896 · Results and discussion · Figure S5 referenced