Cyclic, linear-sweep, differential-pulse, square-wave and stripping voltammetry.
Every source method stays verbatim. Subtypes retain distinctions such as ATR versus transmission IR, powder versus single-crystal diffraction, and two- versus four-contact transport.
The same technique may serve transport, electrochemistry, sensing or another scientific purpose.
Filter source method wording, sample context and scientific purpose.
1,693 measurements
2026 · A conductive metal-organic framework-modified electrode for sensitive electrochemiluminescent detection of cardiac Troponin I
SPCE/Cu3(HHTP)2 · Electrode · SPCE/Cu3(HHTP)2 redox behaviour in PBS, potential window -0.7 to +1.3 V vs Ag/AgCl, 50 mV/s.
2026 · A conductive metal-organic framework-modified electrode for sensitive electrochemiluminescent detection of cardiac Troponin I
SPCE/Cu3(HHTP)2/Ab/BSA immunosensor · Electrode · 5.0 mM K3[Fe(CN)6] in PBS, scan rate 50 mV/s, comparing SPCE, SPCE/Cu3(HHTP)2, SPCE/Cu3(HHTP)2/Ab, and SPCE/Cu3(HHTP)2/Ab/BSA.
2026 · A conductive metal-organic framework-modified electrode for sensitive electrochemiluminescent detection of cardiac Troponin I
SPCE/Cu3(HHTP)2 · Electrode · PBS containing 100 uM [Ru(bpy)3]2+; SPCE/Cu3(HHTP)2 compared with unmodified SPCE.
2026 · A conductive metal-organic framework-modified electrode for sensitive electrochemiluminescent detection of cardiac Troponin I
SPCE/HHTP ligand film · Electrode · SPCE/HHTP with and without 100 uM [Ru(bpy)3]2+; CV and ECL responses shown in SI Figure S1.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CH composite working electrode · Electrode · 0.01-3.0 V vs Li/Li+ at 0.1 mV s^-1; first three cycles.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CNH composite working electrode · Electrode · 0.01-3.0 V vs Li/Li+ at 0.1 mV s^-1; first three cycles.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CH composite working electrode · Electrode · Scan rates 0.1, 0.2, 0.4, 0.8, 1 and 2 mV s^-1; CH CV curves in SI Fig. S12; b-values and contributions in Fig. 7.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CNH composite working electrode · Electrode · Scan rates 0.1, 0.2, 0.4, 0.8, 1 and 2 mV s^-1; b-values and capacitive/diffusion contribution ratios.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CH composite working electrode · Electrode · CH CV curves at 0.1, 0.2, 0.4, 0.8, 1 and 2 mV s^-1 in SI Fig. S12.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
Bi-HHTP/COF/GCE · Electrode · 0.1 M KCl containing 5 mM [Fe(CN)6]3-/4- redox probe; anodic peak current and EASA.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
Bi-HHTP/GCE · Electrode · 0.1 M KCl containing 5 mM [Fe(CN)6]3-/4- redox probe; anodic peak current and EASA.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
COF/GCE · Electrode · 0.1 M KCl containing 5 mM [Fe(CN)6]3-/4- redox probe; anodic peak current and EASA.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
bare GCE · Electrode · 0.1 M KCl containing 5 mM [Fe(CN)6]3-/4- redox probe; anodic peak current and EASA.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
Bi-HHTP/COF/GCE · Electrode · 50 ug/L Cd2+ and Pb2+ in 0.1 M ABS, pH 5.0.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
Bi-HHTP/GCE · Electrode · 50 ug/L Cd2+ and Pb2+ in 0.1 M ABS, pH 5.0.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
COF/GCE · Electrode · 50 ug/L Cd2+ and Pb2+ in 0.1 M ABS, pH 5.0.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
bare GCE · Electrode · 50 ug/L Cd2+ and Pb2+ in 0.1 M acetate buffer (ABS), pH 5.0.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
Bi-HHTP/COF/GCE · Electrode · Individual quantitative analysis in mixtures by varying one target while holding the other constant.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
Bi-HHTP/COF/GCE · Electrode · Cd2+ and Pb2+ in tap water, lake water, milk and honey; acetate solution pH 5; n=3.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
Bi-HHTP/COF/GCE · Electrode · 50 ug/L Cd2+ and Pb2+ with 100x interferents; repeated and multi-electrode tests; 15-day stability.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
Bi-HHTP/COF/GCE · Electrode · Optimised Bi-HHTP:COF ratio, electrolyte pH, accumulation potential/time and suspension amount for Cd2+/Pb2+ sensing.
2026 · Bismuth-based conductive MOF/COF hybrids enable efficient electrochemical heavy metal ion quantification
Bi-HHTP/COF/GCE · Electrode · Simultaneous detection of Cd2+ and Pb2+ at Bi-HHTP/COF/GCE under optimised conditions.
2026 · Construction of a high-performance electrochemical sensor based on intrinsically conductive Co-HHTQ-MOF for imidacloprid detection
Co-HHTQ-MOF/GCE · Electrode · 30 nM IMI in 0.1 M PBS at pH 7.0; comparison of bare GCE, HHTQ/GCE, and Co-HHTQ-MOF/GCE.
2026 · Construction of a high-performance electrochemical sensor based on intrinsically conductive Co-HHTQ-MOF for imidacloprid detection
Co-HHTQ-MOF/GCE · Electrode · Optimisation of Co-HHTQ-MOF suspension volume deposited on electrode surface.
2026 · Construction of a high-performance electrochemical sensor based on intrinsically conductive Co-HHTQ-MOF for imidacloprid detection
Co-HHTQ-MOF/GCE · Electrode · Co-HHTQ-MOF/GCE in 0.1 M PBS pH 7.0 with increasing IMI concentration.
2026 · Construction of a high-performance electrochemical sensor based on intrinsically conductive Co-HHTQ-MOF for imidacloprid detection
Co-HHTQ-MOF/GCE · Electrode · Comparison of Fe-HHTQ-MOF/GCE, Ni-HHTQ-MOF/GCE, and Co-HHTQ-MOF/GCE toward 30 nM IMI in 0.1 M PBS pH 7.0.
2026 · Construction of a high-performance electrochemical sensor based on intrinsically conductive Co-HHTQ-MOF for imidacloprid detection
Co-HHTQ-MOF/GCE · Electrode · 30 nM IMI at Co-HHTQ-MOF/GCE over pH 5.0-9.0 in 0.1 M PBS.
2026 · Construction of a high-performance electrochemical sensor based on intrinsically conductive Co-HHTQ-MOF for imidacloprid detection
Co-HHTQ-MOF/GCE · Electrode · 50 consecutive measurements of current response to 30 nM IMI at Co-HHTQ-MOF/GCE.
2026 · Construction of a high-performance electrochemical sensor based on intrinsically conductive Co-HHTQ-MOF for imidacloprid detection
Co-HHTQ-MOF/GCE · Electrode · 30 nM IMI in 0.1 M PBS at pH 7.0; scan rates from 20 to 140 mV/s.
2026 · Electronically Conductive Metal−Organic Framework With Photoelectric and Photothermal Effect as a Stable Cathode for High-Temperature Photo-Assisted Zn/Sn-Air Battery
Ni2DDA OER carbon-paper electrode · Electrode · 1 M KOH, simulated solar irradiation or dark, three-electrode setup, 10 mV s-1 with IR compensation; EIS 0.1-1e5 Hz.
2026 · Facile Preparation of Polymorphic Metal–Organic Framework Nanostructures as Microwave Absorbers via One-Pot Hydrothermal Reaction
Cu-TCNQ powder · Powder · Conductivity sigma determined by LSV; Figure 3e.
2026 · Facile Preparation of Polymorphic Metal–Organic Framework Nanostructures as Microwave Absorbers via One-Pot Hydrothermal Reaction
Paraffin-based Cu-TCNQ composite · Pellet · Conductivity sigma determined by LSV; Figure 3e.
2026 · Facile Preparation of Polymorphic Metal–Organic Framework Nanostructures as Microwave Absorbers via One-Pot Hydrothermal Reaction
Fe-TCNQ powder · Powder · Conductivity sigma determined by LSV; Figure 3e.
2026 · Facile Preparation of Polymorphic Metal–Organic Framework Nanostructures as Microwave Absorbers via One-Pot Hydrothermal Reaction
Ni-TCNQ powder · Powder · Conductivity sigma determined by LSV; Figure 3e.
2026 · Intrinsically Conductive π-d Conjugated Layers with Co–N4 Active Sites for Efficient Nitrate Electrocatalysis and Zinc-Nitrate Batteries
Co3(HITP)2 drop-cast carbon paper electrode · Electrode · Current density plotted as a function of scan rate in a nonfaradaic region from CV measurements in 1 M KOH.
2026 · Intrinsically Conductive π-d Conjugated Layers with Co–N4 Active Sites for Efficient Nitrate Electrocatalysis and Zinc-Nitrate Batteries
Co3(HITP)2 drop-cast carbon paper electrode · Electrode · 1 M KNO3 with 0, 0.1 or 1 M KOH; KOH versus KCl controls; 0.1 M and 1 M KOH yield/FE compared across potentials; SI includes 1, 2, 3 and 5 M KOH at -0.5 V vs RHE.
2026 · Intrinsically Conductive π-d Conjugated Layers with Co–N4 Active Sites for Efficient Nitrate Electrocatalysis and Zinc-Nitrate Batteries
Co3(HITP)2 drop-cast carbon paper electrode · Electrode · H-type cell, Ag/AgCl reference, Pt mesh counter, Nafion 115 membrane; 1 M KOH with or without 1 M KNO3; about 10 mL electrolyte per chamber.
2026 · Microenvironment modulation in heterometallic MOFs for tailoring electron/proton transport and hydrophilicity toward photocatalytic hydrogen production
Ni-Ca coated electrochemical electrode · Electrode
2026 · Microenvironment modulation in heterometallic MOFs for tailoring electron/proton transport and hydrophilicity toward photocatalytic hydrogen production
Ni-Sr coated electrochemical electrode · Electrode
2026 · Microfluidic Printing-Induced Dynamic Splitting of Conductive MOF to Expose High-Density Active Sites for Boosted CO2 Electroreduction
MF-cMOFQx/ty H-cell electrode inks · Electrode · Catalyst ink on 5 mm glassy carbon electrode; CO2-saturated KHCO3-KCl electrolyte; Ag/AgCl reference, Pt counter, Nafion 117 separator; potentials -1.1 to -1.6 V vs RHE; GC detected CH4, C2H4, and H2.
2026 · Nanostructured zinc-doped nickel/iron metal–organic framework electrode material for an efficient energy storage
Zn-doped Ni/Fe-MOF//AC ASC device · Electrode · Two-electrode ASC in 2 M KOH; CV 1-100 mV s-1; GCD 1-10 A g-1; 0.0-1.8 V operating window
2026 · Nanostructured zinc-doped nickel/iron metal–organic framework electrode material for an efficient energy storage
Fe-MOF on glassy carbon electrode · Electrode · Three-electrode 2 M KOH; CV 0.0-0.7 V at 1-50 mV s-1 (figure caption 5-100 mV s-1); GCD 0.0-0.6 V at 1-10 A g-1; EIS 0.1 to 10^5 Hz
2026 · Nanostructured zinc-doped nickel/iron metal–organic framework electrode material for an efficient energy storage
Ni/Fe-MOF on glassy carbon electrode · Electrode · Three-electrode 2 M KOH; CV 0.0-0.7 V at 1-50 mV s-1 (figure caption 5-100 mV s-1); GCD 0.0-0.6 V at 1-10 A g-1; EIS 0.1 to 10^5 Hz
2026 · Nanostructured zinc-doped nickel/iron metal–organic framework electrode material for an efficient energy storage
Ni-MOF on glassy carbon electrode · Electrode · Three-electrode 2 M KOH; CV 0.0-0.7 V at 1-50 mV s-1 (figure caption 5-100 mV s-1); GCD 0.0-0.6 V at 1-10 A g-1; EIS 0.1 to 10^5 Hz
2026 · Nanostructured zinc-doped nickel/iron metal–organic framework electrode material for an efficient energy storage
Zn-doped Ni/Fe-MOF-derived material on glassy carbon electrode · Electrode · Three-electrode 2 M KOH; CV 0.0-0.7 V at 1-50 mV s-1 (figure caption 5-100 mV s-1); GCD 0.0-0.6 V at 1-10 A g-1; EIS 0.1 to 10^5 Hz
2026 · Nanostructured zinc-doped nickel/iron metal–organic framework electrode material for an efficient energy storage
Ni/Fe-MOF on glassy carbon electrode · Electrode · 5000 CV cycles at 50 mV s-1 in 2 M KOH
2026 · Structure–Property Engineering of Redox-Active Tetrathiafulvalene- and Bipyridine-Based Metal–Organic Frameworks for Battery Cathodes
Cd2(TTFTB) MOF cathode · Electrode · HZ-Pro S12; 1.5-4.2 V vs Li+/Li; 10 mV s^-1; RT
2026 · Structure–Property Engineering of Redox-Active Tetrathiafulvalene- and Bipyridine-Based Metal–Organic Frameworks for Battery Cathodes
TTF-hybrid-MOF cathode · Electrode · HZ-Pro S12; 1.5-4.2 V vs Li+/Li; 10 mV s^-1; RT
2026 · Structure–Property Engineering of Redox-Active Tetrathiafulvalene- and Bipyridine-Based Metal–Organic Frameworks for Battery Cathodes
Cd2(TTFTB) MOF cathode · Electrode · HZ-Pro S12; 1.0-4.2 V vs Na+/Na; 10 mV s^-1; RT
2026 · Structure–Property Engineering of Redox-Active Tetrathiafulvalene- and Bipyridine-Based Metal–Organic Frameworks for Battery Cathodes
TTF-hybrid-MOF cathode · Electrode · HZ-Pro S12; 1.0-4.2 V vs Na+/Na; 10 mV s^-1; RT
2026 · Tailoring Li-ion Storage and Transport in Two-Dimensional Conjugated Metal-Organic Frameworks via Precise Nitrogen Incorporation
Cu-N2-OHBA composite working electrode · Electrode
2026 · Tailoring Li-ion Storage and Transport in Two-Dimensional Conjugated Metal-Organic Frameworks via Precise Nitrogen Incorporation
Cu-N4-OHBA composite working electrode · Electrode
2026 · Tunable Charge Transport Properties Through Precise π-Stacking Modulation in Isostructural Porous Molecular Conductors
NDI-py ligand control solid · Powder · Solid NDI-py in 0.1 M LiPF6/CH3CN at 100 mV s-1 under nitrogen flow.
2026 · Tunable Charge Transport Properties Through Precise π-Stacking Modulation in Isostructural Porous Molecular Conductors
PMC-3-Br solid-state electrochemical sample · Electrode · Standard three-electrode cell; glassy carbon working electrode; Pt counter and Ag quasi-reference; Fc calibrated; dry acetonitrile electrolytes; scan rate 100 mV s-1 under nitrogen.
2025 · 2D Rhodium-Isocyanide Frameworks
as-prepared SJTU-201 powder · Powder · stacked and monolayer SJTUs; Table S3 summarises electronic and optical properties
2025 · 2D Rhodium-Isocyanide Frameworks
as-prepared SJTU-202 powder · Powder · stacked and monolayer SJTUs; Table S3 summarises electronic and optical properties
2025 · 2D Rhodium-Isocyanide Frameworks
as-prepared SJTU-203 powder · Powder · stacked and monolayer SJTUs; Table S3 summarises electronic and optical properties
2025 · 2D Rhodium-Isocyanide Frameworks
SJTU-201 catalyst ink/electrode composite · Electrode · N2-saturated 0.1 M K2SO4; potentials vs RHE; electrolysis 1 h; Pt counter and Ag/AgCl reference
2025 · 2D Rhodium-Isocyanide Frameworks
SJTU-202 catalyst ink/electrode composite · Electrode · N2-saturated 0.1 M K2SO4; potentials vs RHE; electrolysis 1 h; Pt counter and Ag/AgCl reference
2025 · 2D Rhodium-Isocyanide Frameworks
SJTU-203 catalyst ink/electrode composite · Electrode · N2-saturated 0.1 M K2SO4; potentials vs RHE; electrolysis 1 h; Pt counter and Ag/AgCl reference
2025 · 2D Rhodium-Isocyanide Frameworks
model compound M1 · Model · 0.1 M K2SO4, Ar/N2-saturated comparison
2025 · 2D Rhodium-Isocyanide Frameworks
model compound M1 · Model · model compound electronic-gap comparison
2025 · 2D Rhodium-Isocyanide Frameworks
model compound M2 · Model · model compound electronic-gap comparison
2025 · 2D Tetrathiafulvalene-Based Metal–Organic Framework Linked by Hydrogen Bonding for Boosting Long-Cycle Stability of Lithium-Ion Batteries
m-TTFTB-Co-MOF anode electrode in coin cell · Electrode · CR2025 two-electrode coin-cell LIB using m-TTFTB-Co-MOF as active anode; voltage window 0.01-3.0 V; CV scan rate 0.1 mV s^-1.
2025 · 2D Tetrathiafulvalene-Based Metal–Organic Framework Linked by Hydrogen Bonding for Boosting Long-Cycle Stability of Lithium-Ion Batteries
m-TTFTB-Co-MOF DMF/Nafion/TBAPF6 redox-test dispersion · Unknown · Glassy carbon working electrode, platinum wire counter electrode, double-salt-bridge SCE; DMF/TBAPF6 electrolyte; N2 purged 15 min; scan rate 100 mV s^-1; 25 +/- 1 C.
2025 · A Conductive Cu-Based Metal–Organic Framework Ribbon with High-Density Redox-Active Centers as Cathode for Stable High-Capacity Lithium-Ion Batteries
DDA-Cu LIB cathode, low loading · Electrode · CV at 0.2-1.0 mV s^-1 in excess electrolyte; b-value and capacitive contribution analysis
2025 · A Conductive Cu-Based Metal–Organic Framework Ribbon with High-Density Redox-Active Centers as Cathode for Stable High-Capacity Lithium-Ion Batteries
DDA-Cu LIB cathode, low loading · Electrode · CV at 0.2-1.0 mV s^-1 in lean electrolyte; E/AM = 7.8 uL mg^-1
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
CP1 bioconjugate/ExoIII/S1-S2/BSA/HP1/DpAu/GCE aptasensor · Electrode · Treated beer samples were heated at 80 C for 2 h, ultrasonicated for 1 h, filtered through 0.22 um membrane, adjusted to pH 7.4, and spiked with T-2 toxin at 50, 5, 0.5 and 0.05 ng/mL.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
CP1 bioconjugate/ExoIII/S1-S2/BSA/HP1/DpAu/GCE aptasensor · Electrode · Treated beer samples spiked with 50, 5, 0.5 and 0.05 ng/mL T-2 toxin after heating, ultrasonication, filtration and pH adjustment.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
CP1 bioconjugate/ExoIII/S1-S2/BSA/HP1/DpAu/GCE aptasensor · Electrode · Untreated beer samples spiked with 0, 0.05, 0.5, 5 and 50 ng/mL T-2 toxin to assess matrix effects.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
C-Ni1.5Co1.5(HITP)2/GCE · Electrode · MOF-modified GCEs measured in 5 mM [Fe(CN)6]4-/3- solution.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
CP1 bioconjugate/ExoIII/S1-S2/BSA/HP1/DpAu/GCE aptasensor · Electrode · Aptasensor incubated with 50 ng/mL T-2 toxin over 15 consecutive SWV cycles.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
CP1 bioconjugate/ExoIII/S1-S2/BSA/HP1/DpAu/GCE aptasensor · Electrode · Optimisation of CP1 incubation temperature, Exo III concentration, HP1 concentration and Exo III incubation time using supporting Figs. S5-S6.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
Au-Thi-Au@C-Ni1.5Co1.5(HITP)2/GCE · Electrode · Bare GCE, C-Ni1.5Co1.5(HITP)2/GCE, and Au-Thi-Au@C-Ni1.5Co1.5(HITP)2/GCE measured using 5 mM [Fe(CN)6]4-/3- redox probe.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
Au-Thi-Au@C-Ni1.5Co1.5(HITP)2/GCE · Electrode · CV of Au-Thi-Au@C-Ni1.5Co1.5(HITP)2 modified electrode at 0.02-0.20 V/s.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
CP1 bioconjugate/ExoIII/S1-S2/BSA/HP1/DpAu/GCE aptasensor · Electrode · Seven independently fabricated electrodes measured for 50 ng/mL T-2 toxin; n = 3 error bars in Fig. 4F.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
CP1 bioconjugate/ExoIII/S1-S2/BSA/HP1/DpAu/GCE aptasensor · Electrode · T-2 toxin at 50 ng/mL tested against ZEN, AFB1/FB1 label inconsistency, DON, HT-2, DAS and mixture; interferents at 500 ng/mL.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
CP1 bioconjugate/ExoIII/S1-S2/BSA/HP1/DpAu/GCE aptasensor · Electrode · CV and EIS of bare GCE, DpAu/GCE, HP1/DpAu/GCE, BSA/HP1/DpAu/GCE, S1-S2/BSA/HP1/DpAu/GCE, ExoIII/S1-S2/BSA/HP1/DpAu/GCE and CP1 bioconjugate/ExoIII/S1-S2/BSA/HP1/DpAu/GCE in 5.0 mM [Fe(CN)6]4-/3- containing 0.1 M KCl.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
CP1 bioconjugate/ExoIII/S1-S2/BSA/HP1/DpAu/GCE aptasensor · Electrode · Aptasensor incubated with 50 ng/mL T-2 toxin after refrigeration at 4 C for up to 10 days.
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
C-Ni1.5Co1.5(HITP)2/GCE · Electrode · SWV curves of MOF-modified GCEs in 0.1 M HAc-NaAc solution (pH 5.5) containing thionine (1 mg/mL).
2025 · A conductive MOF with bimetallic spontaneously recycled systems as a signal enhancer for the ultrasensitive detection of T-2 toxin using an electrochemical aptasensor
CP1 bioconjugate/ExoIII/S1-S2/BSA/HP1/DpAu/GCE aptasensor · Electrode · SWV response after incubation with T-2 toxin concentrations from 5e-7 ng/mL to 50 ng/mL; calibration plotted against log concentration.
2025 · A Cu-based electronically conducting metal–organic framework with π–d conjugation for cathode and anode modification in aqueous zinc-ion batteries
DDA-Cu cathode electrode · Electrode · DDA-Cu cathode, zinc foil anode, 3.5 M Zn(CF3SO3)2 electrolyte; CV at 2 mV s-1 over 0.2-1.5 V vs Zn2+/Zn; GCD at 0.2-1 A g-1.
2025 · A Cu-based electronically conducting metal–organic framework with π–d conjugation for cathode and anode modification in aqueous zinc-ion batteries
Zn@DDA-Cu composite anode · Electrode · NVO cathode, 2 M Zn(CF3SO3)2 electrolyte; compared with Zn||NVO; CV at 10 mV s-1 over 0.2-1.6 V; cycling at 3 A g-1.
2025 · A Cu-based electronically conducting metal–organic framework with π–d conjugation for cathode and anode modification in aqueous zinc-ion batteries
DDA-Cu cathode electrode · Electrode · Scan rates 1-4 mV s-1; b-value and capacitive/diffusion contribution analysis.
2025 · A Cu-based electronically conducting metal–organic framework with π–d conjugation for cathode and anode modification in aqueous zinc-ion batteries
Zn@DDA-Cu composite anode · Electrode · Zn||Zn and Zn@DDA-Cu||Zn@DDA-Cu symmetric cells; EIS after standing 2 h; linear polarisation in 2 M Zn(CF3SO3)2; LSV for HER.
2025 · A mixed-organic ligands Ru(bpy)32+@Zn mMOFs-NH2 nanoreactors integrated co-reaction accelerator and morphologic regulator for the electrochemiluminescence detection of ATP
Ru(bpy)3(2+)@Zn mMOFs-NH2-CP/ATP/AP/AuNPs/GCE · Electrode · 0.1 M KCl containing 5 mM [Fe(CN)6]3-/4-; ATP concentration 100 nM; assembly stages bare GCE, AuNPs/GCE, AP/AuNPs/GCE, ATP/AP/AuNPs/GCE, final MOF-probe electrode
2025 · A novel 2D conductive MOF nanobelts for highly efficient electrosynthesis of hydrogen peroxide
Ni-PTC-60 RRDE catalyst electrode · Electrode · CV in non-Faradaic region; SI states 1.0-1.1 V_RHE with scan rates 20-100 mV s-1.
2025 · A novel 2D conductive MOF nanobelts for highly efficient electrosynthesis of hydrogen peroxide
Ni-PTC-25 RRDE catalyst electrode · Electrode · O2-saturated 0.1 M KOH; LSV 0.1-1.2 V vs RHE at 10 mV s-1.
2025 · A novel 2D conductive MOF nanobelts for highly efficient electrosynthesis of hydrogen peroxide
Ni-PTC-60 RRDE catalyst electrode · Electrode · O2-saturated 0.1 M KOH; three-electrode RRDE; LSV 0.1-1.2 V vs RHE at 10 mV s-1; Pt ring at 1.5 V vs RHE for H2O2 detection.
2025 · A novel 2D conductive MOF nanobelts for highly efficient electrosynthesis of hydrogen peroxide
XC72 carbon black RRDE control electrode · Electrode · O2-saturated 0.1 M KOH; carbon black comparison electrode.
2025 · A novel 2D conductive MOF nanobelts for highly efficient electrosynthesis of hydrogen peroxide
Ni-PTC-60 RRDE catalyst electrode · Electrode · 10,000 CV cycles in 0.1 M KOH; SI states CV in 0.6-0.8 V_RHE for electrode stability.
2025 · Beyond diffusion: ion and electron migration contribute to charge transport in redox-conducting metal-organic frameworks
Zn(NDI)@FTO thin film · Thin Film · 36 mM [Co(bpy)3]3+ in 0.5 M LiClO4/DMF; analysis of first wave near -0.12 V and quasi-plateau at low scan rates
2025 · Beyond diffusion: ion and electron migration contribute to charge transport in redox-conducting metal-organic frameworks
bare FTO control electrode · Electrode · bare FTO with 36 mM [Co(bpy)3]3+ at 50 mV s-1 in DMF; 0.5 M LiClO4 supporting electrolyte
2025 · Beyond diffusion: ion and electron migration contribute to charge transport in redox-conducting metal-organic frameworks
Zn(NDI)@FTO thin film · Thin Film · Zn(NDI)@FTO in DMF with 0.5 M LiClO4 and [Co(bpy)3]3+ concentrations 0-36 mM; key fit at 36 mM and 50 mV s-1
2025 · Beyond diffusion: ion and electron migration contribute to charge transport in redox-conducting metal-organic frameworks
[Co(bpy)3]3+ on glassy carbon · Electrode · 3 mM [Co(bpy)3]3+ in 0.5 M LiClO4/DMF; 0.071 cm2 glassy carbon disk; 100 mV s-1
2025 · Beyond diffusion: ion and electron migration contribute to charge transport in redox-conducting metal-organic frameworks
Zn(NDI)@FTO thin film · Thin Film · Zn(NDI)@FTO in 0.5 M LiClO4/DMF; scan rates 1 to 500 mV s-1
2025 · Bimetal MOF nanosheets as efficient anode materials for lithium-ion batteries
CoxFe1-x-MOF powder/nanosheet series · Nanosheet · CV curves recorded between 0.01 and 3.0 V at 0.1 mV s-1 for Co-MOF, Fe-MOF, and Co1/2Fe1/2-MOF.
2025 · Bimetal MOF nanosheets as efficient anode materials for lithium-ion batteries
CoxFe1-x-MOF powder/nanosheet series · Nanosheet · CVs at scan rates 0.2-1.0 mV s-1; b values from log i versus log v; capacitive/diffusion contributions from i = k1v + k2v1/2.
2025 · Catalysis-Assisted Synthesis of Two-Dimensional Conductive Metal–Organic Framework Films with Controllable Orientation
electrochemical and Pt-only controls · Electrode · O2 reduction and HHTP oxidation in DMF/H2O pH 3.3 and DMF controls
2025 · Catalytic Metal-Organic Framework-Functionalized Inverse-Opal Architectured Polymeric Separator for High-Performance Li-S Batteries
Li-S coin cell with ZIF-PIO separator · Electrode · LiSBs with sulfur-free and sulfur-loaded cathodes; 1.6-2.8 V vs Li/Li+.
2025 · Catalytic Metal-Organic Framework-Functionalized Inverse-Opal Architectured Polymeric Separator for High-Performance Li-S Batteries
ZIF-PIO-3 separator · Thin Film · Carbon paper/electrolyte/separator/electrolyte/carbon paper cell with Li2S4, Li2S6 or Li2S8; 0.5 mV s-1 from -1 to 1 V.
2025 · Comparing Ag-O coordinated AgMOF-5 and Ag-N coordinated Ag nanosphere catalytic polymers for real time monitoring of H2O2 level in cancer cells
AgMOF/GCE · Electrode · Current density versus scan rate for bare GCE, AgMOF/GCE and Ag nanosphere/GCE; double-layer capacitance used as ECSA proxy.
2025 · Comparing Ag-O coordinated AgMOF-5 and Ag-N coordinated Ag nanosphere catalytic polymers for real time monitoring of H2O2 level in cancer cells
Ag nanosphere/GCE · Electrode · Ag nanosphere/GCE CV calibration for H2O2 comparison.
2025 · Comparing Ag-O coordinated AgMOF-5 and Ag-N coordinated Ag nanosphere catalytic polymers for real time monitoring of H2O2 level in cancer cells
AgMOF/GCE · Electrode · AgMOF/GCE CV calibration in 0.1 M PBS using H2O2 diluted from 5 mM to 1 nM; scan rate 0.1 V/s; reduction around -0.65 V.
2025 · Comparing Ag-O coordinated AgMOF-5 and Ag-N coordinated Ag nanosphere catalytic polymers for real time monitoring of H2O2 level in cancer cells
AgMOF/GCE · Electrode · CV response for 5 mM H2O2 comparing bare GCE, AgMOF/GCE and Ag nanosphere/GCE.
2025 · Comparing Ag-O coordinated AgMOF-5 and Ag-N coordinated Ag nanosphere catalytic polymers for real time monitoring of H2O2 level in cancer cells
AgMOF/GCE · Electrode · AgMOF/GCE evaluated with 5 mM H2O2, interferents (lactose, glucose, NaCl, ascorbic acid and sucrose), pH variation and 20-fold diluted human plasma/serum samples.
2025 · Conductive Metal–Organic Frameworks Anchoring on V3O7·H2O Nanobelts Toward High-Capacity and Long-Life Zinc-Ion Batteries
VO@Cu-HHTP-2 composite cathode electrode · Electrode · Zn coin cells with Zn foil anode, glass fibre separator, 3 M Zn(CF3SO3)2 electrolyte; voltage window 0.2-1.6 V; CV at 0.1 or 0.2 mV s-1 in text/figure caption.
2025 · Conductive Metal–Organic Frameworks Anchoring on V3O7·H2O Nanobelts Toward High-Capacity and Long-Life Zinc-Ion Batteries
VO@Cu-HHTP-2 composite cathode electrode · Electrode · Scan rates from 0.2 to 1 mV s-1; power-law b-value fitting and capacitive/diffusion contribution analysis.
2025 · Construction of a portable and sensitive electrochemical immunosensor for the rapid detection of erythromycin based on semiconductive bimetallic MOF
CuxFe3-x(HHTP)2/AE modified gold electrode · Electrode · CV curves of bare AE, CuxFe3-x(HHTP)2/AE, Ab/CuxFe3-x(HHTP)2/AE, BSA/Ab/CuxFe3-x(HHTP)2/AE and ERY/BSA/Ab/CuxFe3-x(HHTP)2/AE in PBS with 5 mM [Fe(CN)6]3-/4-.
2025 · Construction of a portable and sensitive electrochemical immunosensor for the rapid detection of erythromycin based on semiconductive bimetallic MOF
CuxFe3-x(HHTP)2/AE modified gold electrode · Electrode · CHI760E electrochemical workstation; conventional three-electrode system in PBS (0.01 M, pH 7.4) with 5.0 mM [Fe(CN)6]3-/4-; CV -0.2 to 0.8 V at 50 mV s-1; EIS 0.01 Hz to 100 kHz with 5 mV AC amplitude; tests repeated at least thrice.
2025 · Construction of nanozyme based with mixed valence manganese oxide loaded on defective metal-organic frameworks for sensitive detection of biomarker procalcitonin
MdP nanoparticles · Powder · LSV curves of dPCN-224 and MdP; electrolyte 0.10 mol L-1 Na2SO4(aq), -0.50 to 2.0 V versus Ag/AgCl, scan rate 10 mV s-1.
2025 · Contorted hexabenzocoronene-based two-dimensional conductive metal-organic framework enabled electrochemical platform for monitoring of rutin in pharmaceuticals and biological samples
Cu3(HBC)2/SPE · Electrode · 0.83 mM rutin on Cu3(HBC)2/SPEs prepared from 0, 0.25, 0.5, 1, and 2 mg/mL Cu3(HBC)2 dispersions.
2025 · Contorted hexabenzocoronene-based two-dimensional conductive metal-organic framework enabled electrochemical platform for monitoring of rutin in pharmaceuticals and biological samples
Cu3(HBC)2/SPE · Electrode · Cu3(HBC)2/SPE in 0.1 M PBS (pH 3.0), 0 to +1.0 V, scan rate 100 mV/s unless otherwise specified.
2025 · Contorted hexabenzocoronene-based two-dimensional conductive metal-organic framework enabled electrochemical platform for monitoring of rutin in pharmaceuticals and biological samples
Cu3(HBC)2/SPE · Electrode · 0.83 mM rutin on bare SPE and Cu3(HBC)2/SPE in 0.1 M PBS (pH 3.0) at 100 mV/s.
2025 · Contorted hexabenzocoronene-based two-dimensional conductive metal-organic framework enabled electrochemical platform for monitoring of rutin in pharmaceuticals and biological samples
Cu3(HBC)2/SPE · Electrode · Rutin concentration series; DPV from +1.0 to 0 V in 0.1 M PBS (pH 3.0), 0.008 V step, 0.16 V pulse amplitude, 0.025 s pulse width.
2025 · Contorted hexabenzocoronene-based two-dimensional conductive metal-organic framework enabled electrochemical platform for monitoring of rutin in pharmaceuticals and biological samples
Cu3(HBC)2/SPE · Electrode · HUVECs treated with 100 uM H2O2 for 1 h, then 100 uM rutin for 12 h; 10 uL culture medium measured by DPV on Cu3(HBC)2/SPE in PBS pH 3.0; CCK-8 and morphology/cell-count assays.
2025 · Contorted hexabenzocoronene-based two-dimensional conductive metal-organic framework enabled electrochemical platform for monitoring of rutin in pharmaceuticals and biological samples
Cu3(HBC)2/SPE · Electrode · 6 mg rutin in 20 mL 99.5% methanol and 0.5 M HCl, heated at 80 C; aliquots at 0, 1, 3, and 6 h diluted in 0.1 M PBS pH 3.0.
2025 · Contorted hexabenzocoronene-based two-dimensional conductive metal-organic framework enabled electrochemical platform for monitoring of rutin in pharmaceuticals and biological samples
Cu3(HBC)2/SPE · Electrode · Rutin response in presence of 10-fold AA, Glu, Tyr, Trp, Qct, VB2 and 100-fold K+, Cl-, Na+, NO3-, Fe3+, Cu2+, SO4(2-) in 0.1 M PBS pH 3.
2025 · Contorted hexabenzocoronene-based two-dimensional conductive metal-organic framework enabled electrochemical platform for monitoring of rutin in pharmaceuticals and biological samples
Cu3(HBC)2/SPE · Electrode · 0.83 mM rutin in 0.1 M PBS at pH 2.0, 3.0, 4.0, and 5.0.
2025 · Contorted hexabenzocoronene-based two-dimensional conductive metal-organic framework enabled electrochemical platform for monitoring of rutin in pharmaceuticals and biological samples
Cu3(HBC)2/SPE · Electrode · 0.83 mM Qct CV; 20 uM rutin and 200 uM Qct DPV in 0.1 M PBS pH 3.0; Qct scan-rate data in SI Fig. S2.
2025 · Contorted hexabenzocoronene-based two-dimensional conductive metal-organic framework enabled electrochemical platform for monitoring of rutin in pharmaceuticals and biological samples
Cu3(HBC)2/SPE · Electrode · 0.83 mM rutin on Cu3(HBC)2/SPE from 10 to 300 mV/s.
2025 · Contorted hexabenzocoronene-based two-dimensional conductive metal-organic framework enabled electrochemical platform for monitoring of rutin in pharmaceuticals and biological samples
Cu3(HBC)2/SPE · Electrode · Ground commercial rutin tablets dissolved in ultrapure water, ultrasonicated, introduced into 0.1 M PBS pH 3.0, and measured by DPV in triplicate.
2025 · Copper-Based Two-Dimensional Conductive Metal-Organic Framework Thin Films for Ultrasensitive Detection of Perfluoroalkyls in Drinking Water
Bare ITO channel/control electrode · Electrode · Bare ITO working electrode with and without 10 nM PFOA, Ag/AgCl reference and Pt counter electrode.
2025 · Copper-Based Two-Dimensional Conductive Metal-Organic Framework Thin Films for Ultrasensitive Detection of Perfluoroalkyls in Drinking Water
Cu-HHTP thin-film device exposed to PFOA · Electrode · Cu-HHTP film working electrode in PBS before and after 10 nM PFOA; leakless Ag/AgCl reference, Pt mesh counter electrode, 20 mV/s scan rate.
2025 · Development of an electrochemiluminescence aptasensor combining covalent-triazine framework emitter with exonuclease III-driven DNA walker for sensitive CEA detection
rHp/CuxMn3-x(HITP)2-MCH/ssDNA/CTF/AE · Electrode · CV curves at each fabrication step in 0.1 M PBS containing 5 mM [Fe(CN)6]3-/4- and 0.1 M KCl; SI S1.6 records -0.4 to 0.8 V vs Ag/AgCl at 50 mV s-1.
2025 · Discovery of Dual Ion-Electron Conductivity of Metal-Organic Frameworks via Machine Learning-Guided Experimentation
H2L linker in 0.1 M KOH for CV · Electrode · 0.1 M KOH; glassy carbon working electrode, Pt wire auxiliary electrode, Ag/AgCl reference; scan rate 100 mV s-1; potential window -0.8 to 0.8 V stated for electrochemical measurements.
2025 · Discovery of Dual Ion-Electron Conductivity of Metal-Organic Frameworks via Machine Learning-Guided Experimentation
MOF 1 glassy-carbon working electrode slurry · Electrode · 0.1 M KOH; three-electrode configuration; scan rate 100 mV s-1; potential window -0.8 to 0.8 V; working-electrode preparation in SI.
2025 · Discovery of Dual Ion-Electron Conductivity of Metal-Organic Frameworks via Machine Learning-Guided Experimentation
MOF 2 glassy-carbon working electrode slurry · Electrode · 0.1 M KOH; three-electrode configuration; scan rate 100 mV s-1; potential window -0.8 to 0.8 V; working-electrode preparation in SI.
2025 · Dual single atomic Fe-Ni sites in N‑doped nanoporous carbon for high-efficiency potassium periodate activation toward pollutant abatement
Fe2Ni1-NC-900 coated glassy carbon electrode · Electrode · GCE with or without Fe2Ni1-NC-900 coating; PI and Orange II present under standard catalytic conditions.
2025 · Dual-metal sites enable conductive metal-organic frameworks with extraordinary high capacitance for transparent energy storage devices
Sandwich-type flexible transparent CuNi-HHTP supercapacitor · Electrode · Sandwich-type flexible transparent supercapacitor used as device-architecture control.
2025 · Dual-metal sites enable conductive metal-organic frameworks with extraordinary high capacitance for transparent energy storage devices
Laser-scribed interdigital CuNi-HHTP MSC · Electrode · PVA/KCl gel electrolyte; patterned transparent CuNi-HHTP MSC; Table S2 comparison.
2025 · Dual-metal sites enable conductive metal-organic frameworks with extraordinary high capacitance for transparent energy storage devices
CuNi-HHTP nanorods · Powder · CuNi-HHTP electrodes with Cu/Ni atomic ratios 1:1, 1:3, and 3:1; Fig. S3 at 100 mV s^-1 and 100 uA cm^-2.
2025 · Dual-metal sites enable conductive metal-organic frameworks with extraordinary high capacitance for transparent energy storage devices
CuNi-HHTP nanorods · Powder · 3 M KCl electrolyte; Ag/AgCl reference and Pt counter electrode.
2025 · Electro Fenton degradation of glyphosate by incrassated defect-free conductive Cu metal organic framework
10CAT-1 Film · Electrode · Bio-Logic SP-300; CV after 100 scans at 20 mV s-1; LSV at 5 mV s-1 in PBS pH 7.0; EIS Nyquist at 1.40 V vs RHE in 1 M KOH.
2025 · Electrochemical Synthesis of Cu3(HHTP)2Metal–Organic Frameworks from Cu Nanoparticles for Chemiresistive Gas Sensing
Cu nanoparticle-decorated Pt/glass IDE (precursor, pre-growth) · Thin Film · Cu-NP-decorated IDE in HHTP+TBMAMS growth solution; potential ramped -0.80 to +1.20 V at 0.02 V/s in 0.00244 V steps, 40 cycles; two IDE sides connected as working electrode, Ag/AgCl reference
2025 · Employing Triphenylene-Based, Layered, Conductive Metal-Organic Framework Materials as Electrochemical Sensors for Nitric Oxide in Aqueous Media
Co3(HHTP)2 dropcast on glassy carbon electrode · Electrode · 17 uM NO in 0.1 M PBS buffer, pH 7.4; 50 mV/s; second scan versus PBS.
2025 · Employing Triphenylene-Based, Layered, Conductive Metal-Organic Framework Materials as Electrochemical Sensors for Nitric Oxide in Aqueous Media
Cu3(HHTP)2 dropcast on glassy carbon electrode · Electrode · 17 uM NO in 0.1 M PBS buffer, pH 7.4; 50 mV/s; second scan versus PBS.
2025 · Employing Triphenylene-Based, Layered, Conductive Metal-Organic Framework Materials as Electrochemical Sensors for Nitric Oxide in Aqueous Media
Ni3(HHTP)2 dropcast on glassy carbon electrode · Electrode · 17 uM NO in 0.1 M PBS buffer, pH 7.4; 50 mV/s; second scan versus PBS.
2025 · Employing Triphenylene-Based, Layered, Conductive Metal-Organic Framework Materials as Electrochemical Sensors for Nitric Oxide in Aqueous Media
Zn3(HHTP)2 dropcast on glassy carbon electrode · Electrode · 17 uM NO in 0.1 M PBS buffer, pH 7.4; 50 mV/s; second scan versus PBS.
2025 · Employing Triphenylene-Based, Layered, Conductive Metal-Organic Framework Materials as Electrochemical Sensors for Nitric Oxide in Aqueous Media
Bare glassy carbon electrode · Electrode · 0.1 M PBS; CVs at 5-1000 mV/s; slopes used to determine Cdl; normalised vs bare GCE.
2025 · Employing Triphenylene-Based, Layered, Conductive Metal-Organic Framework Materials as Electrochemical Sensors for Nitric Oxide in Aqueous Media
Ni3(HHTP)2@PEDOT:PSS@GCE · Electrode · 17 uM NO in 0.1 M PBS; compare first and tenth CV scans from -0.7 to +1.2 V vs Ag/AgCl.
2025 · Engineering the structures of ZnCo-MOFs via a ligand effect for enhanced supercapacitor performance
ZnCo-MOF-HMIM/Ni-foam working electrode · Electrode · Peak-current log(i) vs log(v) analysis for HMIM, BDC and ABDC electrodes.
2025 · Engineering the structures of ZnCo-MOFs via a ligand effect for enhanced supercapacitor performance
ZnCo-MOF-ABDC/Ni-foam working electrode · Electrode · 6 M KOH; Ag/AgCl reference, glassy carbon counter; 0.0-0.5 V; scan rates 5-100 mV s^-1; comparison at 10 mV s^-1.
2025 · Engineering the structures of ZnCo-MOFs via a ligand effect for enhanced supercapacitor performance
ZnCo-MOF-BDC/Ni-foam working electrode · Electrode · 6 M KOH; Ag/AgCl reference, glassy carbon counter; 0.0-0.5 V; scan rates 5-100 mV s^-1; comparison at 10 mV s^-1.
2025 · Engineering the structures of ZnCo-MOFs via a ligand effect for enhanced supercapacitor performance
ZnCo-MOF-HMIM/Ni-foam working electrode · Electrode · 6 M KOH; Ag/AgCl reference, glassy carbon counter; 0.0-0.5 V; scan rates 5-100 mV s^-1; comparison at 10 mV s^-1.
2025 · Engineering the structures of ZnCo-MOFs via a ligand effect for enhanced supercapacitor performance
ZnCo-MOF-HMIM//AC asymmetric two-electrode device · Electrode · 6 M KOH; CV up to 100 mV s^-1 over 0-1.6 V; GCD from 1 to 10 A g^-1.
2025 · Enhanced conductivity and energy storing performances of 3D bimetallic conductive metal-organic frameworks based on linear π-conjugated thiazole for supercapacitors
Ni3Co1-DPTTZ-MOF//AC ASC device · Electrode · 3.0 M KOH electrolyte; CV from 0.0-1.0 to 0.0-1.5 V; scan rates 10-100 mV s-1; GCD 1-10 A g-1; EIS 0.01-100 kHz at open-circuit voltage
2025 · Enhanced conductivity and energy storing performances of 3D bimetallic conductive metal-organic frameworks based on linear π-conjugated thiazole for supercapacitors
Co-DPTTZ-MOF nickel-foam working electrode · Electrode · Surface-capacitance and diffusion-control contributions calculated from CV data at 10-70 mV s-1.
2025 · Enhanced conductivity and energy storing performances of 3D bimetallic conductive metal-organic frameworks based on linear π-conjugated thiazole for supercapacitors
Ni-DPTTZ-MOF nickel-foam working electrode · Electrode · Surface-capacitance and diffusion-control contributions calculated from CV data at 10-70 mV s-1.
2025 · Enhanced conductivity and energy storing performances of 3D bimetallic conductive metal-organic frameworks based on linear π-conjugated thiazole for supercapacitors
Ni1Co1-DPTTZ-MOF nickel-foam working electrode · Electrode · Surface-capacitance and diffusion-control contributions calculated from CV data at 10-70 mV s-1.
2025 · Enhanced conductivity and energy storing performances of 3D bimetallic conductive metal-organic frameworks based on linear π-conjugated thiazole for supercapacitors
Ni1Co3-DPTTZ-MOF nickel-foam working electrode · Electrode · Surface-capacitance and diffusion-control contributions calculated from CV data at 10-70 mV s-1.
2025 · Enhanced conductivity and energy storing performances of 3D bimetallic conductive metal-organic frameworks based on linear π-conjugated thiazole for supercapacitors
Ni3Co1-DPTTZ-MOF nickel-foam working electrode · Electrode · CVs fitted to i = a v^b and i = k1 v + k2 v^1/2 at scan rates 10-70 mV s-1
2025 · Enhanced conductivity and energy storing performances of 3D bimetallic conductive metal-organic frameworks based on linear π-conjugated thiazole for supercapacitors
Ni3Co1-DPTTZ-MOF nickel-foam working electrode · Electrode · Pt sheet counter electrode, Ag/AgCl reference electrode; scan rates and current densities varied; electrolyte not explicitly stated in main-text three-electrode paragraph
2025 · Enhanced Electrical Conductivity by the Heavy Chalcogen Effect in Metal-Organic Frameworks
Cu-S-HHS solvothermal powder · Powder · Cu-X-HHS/Nafion dispersion on glassy carbon electrode; Ag/Ag+ reference, Pt counter; 0.4 mol/L TBAPF6 in dry acetonitrile; -1.2 to 1.2 V vs Ag/Ag+ at 50 mV s-1 under N2.
2025 · Enhanced Electrical Conductivity by the Heavy Chalcogen Effect in Metal-Organic Frameworks
Cu-Se-HHS solvothermal powder · Powder · Cu-X-HHS/Nafion dispersion on glassy carbon electrode; Ag/Ag+ reference, Pt counter; 0.4 mol/L TBAPF6 in dry acetonitrile; -1.2 to 1.2 V vs Ag/Ag+ at 50 mV s-1 under N2.
2025 · Enhanced Electrical Conductivity by the Heavy Chalcogen Effect in Metal-Organic Frameworks
Cu-Te-HHS solvothermal powder · Powder · Cu-X-HHS/Nafion dispersion on glassy carbon electrode; Ag/Ag+ reference, Pt counter; 0.4 mol/L TBAPF6 in dry acetonitrile; -1.2 to 1.2 V vs Ag/Ag+ at 50 mV s-1 under N2.
2025 · Enhancing electrochemical hydrogen storage in nickel-based metal-organic frameworks (MOFs) through zinc and cobalt doping as bimetallic MOFs
Co-Ni(TPA)-2 electrode on Cu foam · Electrode · Potential range 0-1 V; conventional three-electrode configuration.
2025 · Enhancing electrochemical hydrogen storage in nickel-based metal-organic frameworks (MOFs) through zinc and cobalt doping as bimetallic MOFs
Ni(TPA) electrode on Cu foam · Electrode · Potential range 0-1 V; conventional three-electrode configuration; electrolyte not restated in CV paragraph, likely same KOH system as CP.
2025 · Enhancing electrochemical hydrogen storage in nickel-based metal-organic frameworks (MOFs) through zinc and cobalt doping as bimetallic MOFs
Zn-Ni(TPA)-2 electrode on Cu foam · Electrode · Potential range 0-1 V; conventional three-electrode configuration.
2025 · Enhancing the Electrochemical Energy Storage of Metal-Organic Frameworks: Linker Engineering and Size Optimization
Ni-MOF working electrode series · Electrode · CV scan rates 10-100 mV/s; b values from log(i) vs log(v); contribution ratios from i = k1v + k2v1/2
2025 · Enhancing the Electrochemical Energy Storage of Metal-Organic Frameworks: Linker Engineering and Size Optimization
Ni-tdc-bpe(0.5)//AC hybrid supercapacitor · Electrode · Ni-tdc-bpe(0.5) positive electrode, AC negative electrode, 3 M KOH electrolyte; current densities 0.5-5 A/g; scan rates 10-100 mV/s
2025 · Enhancing the Electrochemical Energy Storage of Metal-Organic Frameworks: Linker Engineering and Size Optimization
Ni-MOF working electrode series · Electrode · 3.0 M KOH electrolyte; Pt counter electrode; Hg/HgO reference; CHI760e station; room temperature
2025 · Fabrication of a Novel Cu Based Conjugated Coordination Polymer for Effective Electroreduction of Nitrate to Ammonia and Zn–Nitrate Batteries
Cu3(HHTP)2/CF pine-like comparison electrode · Electrode · Cdl determined from CV; detailed curves are in Figure S17, whose caption and rendered SI image are available.
2025 · Fabrication of a Novel Cu Based Conjugated Coordination Polymer for Effective Electroreduction of Nitrate to Ammonia and Zn–Nitrate Batteries
Cu3(HITP)2/CF pine-like electrode · Electrode · Cdl determined from CV; detailed curves are in Figure S17, whose caption and rendered SI image are available.
2025 · Fabrication of a Novel Cu Based Conjugated Coordination Polymer for Effective Electroreduction of Nitrate to Ammonia and Zn–Nitrate Batteries
Cu3(HHTP)2/CF pine-like comparison electrode · Electrode · H-type cell; 1 M KOH + 0.1 M NaNO3; graphite counter electrode; Hg/HgO reference; potentials vs RHE; room temperature.
2025 · Fabrication of a Novel Cu Based Conjugated Coordination Polymer for Effective Electroreduction of Nitrate to Ammonia and Zn–Nitrate Batteries
Cu3(HITP)2/CF pine-like electrode · Electrode · H-type cell; 1 M KOH + 0.1 M NaNO3; graphite counter electrode; Hg/HgO reference; potentials vs RHE; room temperature; potentiostatic tests 1 h from -0.5 to -0.9 V.
2025 · Fibrous Pb(II)-Based Coordination Polymer Operable as a Photocatalyst and Electrocatalyst for High-Rate, Selective CO2-to-Formate Conversion
KGF-9/Ketjen Black/Nafion electrode optimisation series · Electrode · 0.5 M KHCO3 catholyte under Ar or CO2; H-type cell at -0.8 V vs RHE for 120 min; 25 uL 5 wt% Nafion; varied KB content.
2025 · Flexible 8 V planar supercapacitors: Unleashing ionic liquid transport via Co/Ni/Mn-MOFs nanorod pore-channel modulation
Co-MOF planar symmetric supercapacitor · Electrode · Three-electrode system; scan rates 3-100 mV s^-1; potential window -4 V to 4 V.
2025 · Flexible 8 V planar supercapacitors: Unleashing ionic liquid transport via Co/Ni/Mn-MOFs nanorod pore-channel modulation
Mn-MOF planar symmetric supercapacitor · Electrode · Three-electrode system; scan rates 3-100 mV s^-1; potential window -4 V to 4 V; bending-angle CV also tested.
2025 · Flexible 8 V planar supercapacitors: Unleashing ionic liquid transport via Co/Ni/Mn-MOFs nanorod pore-channel modulation
Ni-MOF planar symmetric supercapacitor · Electrode · Three-electrode system; scan rates 3-100 mV s^-1; potential window -4 V to 4 V.
2025 · Flexible 8 V planar supercapacitors: Unleashing ionic liquid transport via Co/Ni/Mn-MOFs nanorod pore-channel modulation
Mn-MOF planar symmetric supercapacitor · Electrode · LSV curves recorded over the 8 V potential window with forward and reverse scans.
2025 · Flexible 8 V planar supercapacitors: Unleashing ionic liquid transport via Co/Ni/Mn-MOFs nanorod pore-channel modulation
Mn-MOF planar symmetric supercapacitor · Electrode · Fig. S6 compares Delta Ea,c values at 5 and 10 mV s^-1 for Co-MOF, Ni-MOF and Mn-MOF supercapacitors.
2025 · Flexible 8 V planar supercapacitors: Unleashing ionic liquid transport via Co/Ni/Mn-MOFs nanorod pore-channel modulation
2S-SP Mn-MOF supercapacitor pack · Electrode · 2S/5S series and 2P/5P parallel packs made from Mn-MOF planar supercapacitors; CV at 50 mV s^-1; GCD at 0.175 A g^-1 for selected packs.
2025 · From 0D to 2D: Microwave-assisted synthesis of electrically conductive metal-organic frameworks with controlled morphologies
0D Cu-HHTP/PTFE glassy-carbon electrode · Electrode · Three-electrode Biologic VSP-300 setup; Pt counter electrode; nonaqueous Ag/AgNO3 reference; scan rates for ECSA ranged 100-500 mV s-1.
2025 · From 0D to 2D: Microwave-assisted synthesis of electrically conductive metal-organic frameworks with controlled morphologies
1D Cu-HHTP/PTFE glassy-carbon electrode · Electrode · Three-electrode Biologic VSP-300 setup; Pt counter electrode; nonaqueous Ag/AgNO3 reference; scan rates for ECSA ranged 100-500 mV s-1.
2025 · From 0D to 2D: Microwave-assisted synthesis of electrically conductive metal-organic frameworks with controlled morphologies
2D Cu-HHTP/PTFE glassy-carbon electrode · Electrode · Three-electrode Biologic VSP-300 setup; Pt counter electrode; nonaqueous Ag/AgNO3 reference; scan rates for ECSA ranged 100-500 mV s-1.
2025 · Highly sensitive and selective electrochemical sensor for carbendazim detection in fruit juice using novel bi-metallic metal organic framework anchored graphite rod electrode
Self-standing Ni-Fe(PDC)/GR electrode · Electrode · 0.1 M PBS pH 7 with 5 uM carbendazim; scan rate 50 mV s^-1; three-electrode setup with Pt counter, Ag/AgCl/KCl reference, and MOF-deposited graphite rod working electrode.
2025 · Highly sensitive and selective electrochemical sensor for carbendazim detection in fruit juice using novel bi-metallic metal organic framework anchored graphite rod electrode
Self-standing Ni-Fe(PDC)/GR electrode · Electrode · 0.1 M PBS pH 7; carbendazim concentrations 2.5-100 uM; scan rate 25 mV s^-1.
2025 · Highly sensitive and selective electrochemical sensor for carbendazim detection in fruit juice using novel bi-metallic metal organic framework anchored graphite rod electrode
Self-standing Ni-Fe(PDC)/GR electrode · Electrode · 0.1 M PBS pH 7 containing 5.0 uM carbendazim; scan rates 5-100 mV s^-1.
2025 · Highly sensitive and selective electrochemical sensor for carbendazim detection in fruit juice using novel bi-metallic metal organic framework anchored graphite rod electrode
Self-standing Ni-Fe(PDC)/GR electrode · Electrode · 0.1 M pH 7 PBS; carbendazim concentrations 0.05-320 uM; potential range 0.3-1.3 V; pulse width 0.05 s and amplitude 50 mV.
2025 · Highly sensitive and selective electrochemical sensor for carbendazim detection in fruit juice using novel bi-metallic metal organic framework anchored graphite rod electrode
Self-standing Ni-Fe(PDC)/GR electrode · Electrode · DPV of 10 uM carbendazim in 0.1 M PBS over pH 5.0-11.0 at Ni-Fe(PDC)/GR.
2025 · Highly sensitive and selective electrochemical sensor for carbendazim detection in fruit juice using novel bi-metallic metal organic framework anchored graphite rod electrode
Ni-Fe(PDC)/GR in spiked strawberry and apple juice · Electrode · Strawberry and apple juice homogenates centrifuged, filtered, diluted 100 times with 0.1 M PBS pH 7.0, spiked with carbendazim, and analysed by DPV with HPLC comparison.
2025 · Impact of the Channel Length in Nanoporous Electric Double-Layer Capacitors on the Charge Transport Explored by Metal-Organic Framework Films
Cu3(HHTP)2 SURMOF synthesis-cycle series · Thin Film · Three-electrode cell; Cu3(HHTP)2/Au-coated Si working electrode, Pt sheet counter electrode, Ag/AgCl reference; 0-0.5 V vs Ag/AgCl; scan rates 0.1-3000 mV s-1.
2025 · Impact of the Channel Length in Nanoporous Electric Double-Layer Capacitors on the Charge Transport Explored by Metal-Organic Framework Films
Cu3(HHTP)2 SURMOF synthesis-cycle series · Thin Film · Three-electrode cell; Cu3(HHTP)2/Au-coated Si working electrode, Pt sheet counter electrode, Ag/AgCl reference; 0-0.3 V vs Ag/AgCl; scan rates 0.1-3000 mV s-1.
2025 · In situ construction of a dual-metal 2D conjugated metal-organic framework on carbon paper for asymmetric supercapacitors
Co/Ni-HHTP@CP||AC asymmetric supercapacitor · Electrode · Co/Ni-HHTP@CP positive electrode, activated carbon negative electrode, 1 M KOH electrolyte; device potential window 0-1.6 V.
2025 · In situ construction of a dual-metal 2D conjugated metal-organic framework on carbon paper for asymmetric supercapacitors
Co/Ni-HHTP@CP electrode · Electrode · CV curves at scan rates 10-100 mV s-1 in 1 M KOH; integrated areas compared among bimetallic c-MOF@CP electrodes.
2025 · In situ construction of a dual-metal 2D conjugated metal-organic framework on carbon paper for asymmetric supercapacitors
Co/Ni-HHTP@CP electrode · Electrode · c-MOFs@CP used directly as working electrode with Pt counter, Ag/AgCl reference, and 1 M KOH electrolyte under ambient conditions.
2025 · In Situ Construction of Amide-Functionalized 2D Conjugated Metal-Organic Frameworks with Multiple Active Sites for High-Performance Potassium-Ion Batteries
Super P + PVDF blank electrode · Electrode · Super P + PVDF on carbon-coated aluminium foil; 0.5 mV s-1 CV and 0.2 A g-1 GCD
2025 · In Situ Construction of Amide-Functionalized 2D Conjugated Metal-Organic Frameworks with Multiple Active Sites for High-Performance Potassium-Ion Batteries
Cu-HBB-MOF cathode electrode in CR2025 potassium half-cell · Electrode · CR2025 K half-cell; 1.0-3.8 V vs K/K+; 0.5 mV s-1; optimal electrolyte 1 M KPF6 in DME
2025 · In Situ Construction of Amide-Functionalized 2D Conjugated Metal-Organic Frameworks with Multiple Active Sites for High-Performance Potassium-Ion Batteries
Cu-Salphen-MOF cathode electrode in CR2025 potassium half-cell · Electrode · CR2025 K half-cell; 1.0-3.8 V vs K/K+; 0.5 mV s-1
2025 · In Situ Construction of Amide-Functionalized 2D Conjugated Metal-Organic Frameworks with Multiple Active Sites for High-Performance Potassium-Ion Batteries
Cu-HBB-MOF cathode electrode in CR2025 potassium half-cell · Electrode · CV curves at 0.6, 0.8, 1.0, 1.2 and 1.4 mV s-1; b-value and capacitive contribution analysis
2025 · Interconnected Lamellar 3D Semiconductive PCP for Rechargeable Aqueous Zinc Battery Cathodes
Pressed VO-HHTP pellet · Pellet · I-V curves from -1 V to 1 V at 2 mV s-1; conductivity calculated by Ohm law and pellet geometry.
2025 · Interconnected Lamellar 3D Semiconductive PCP for Rechargeable Aqueous Zinc Battery Cathodes
VO-HHTP 80 wt% composite cathode · Electrode · CV at scan rates 0.4-1.8 mV s-1; b-value and non-diffusion-controlled contribution analysis.
2025 · Ligand engineering of Co-MOF-74 with hexaaminotriphenylene for enhanced oxygen reduction reaction in zinc-air batteries
Co-MOF-74-HATP@EC-300J carbon-cloth OER electrode · Electrode · OER in N2-saturated 1 M KOH; LSV at 5 mV s-1 after 50 CV cycles activation; EIS from 10^-2 to 10^5 Hz at 5 mV amplitude; Cdl from 5-25 mV s-1 CV in non-Faradaic range.
2025 · Ligand engineering of Co-MOF-74 with hexaaminotriphenylene for enhanced oxygen reduction reaction in zinc-air batteries
Co-MOF-74-HATP@EC-300J RRDE electrode · Electrode · ORR in 1 M KOH after N2 or O2 purging for 30 min; LSV at 5 mV s-1 and different rotation speeds; Fig. 3(b) at 1600 rpm; RRDE ring electrode at 1.5 V vs RHE.
2025 · Ligand engineering of Co-MOF-74 with hexaaminotriphenylene for enhanced oxygen reduction reaction in zinc-air batteries
Co-MOF-74-HATP@EC-300J RRDE electrode · Electrode · LSV before/after 10,000 CV cycles; electron-transfer number and H2O2 yield from RRDE/K-L analysis; collection efficiency N=0.37.
2025 · Ligand-Insertion Strategy for Constructing 2D Conjugated Metal–Organic Framework with Large Pore Size for Electrochemical Analytics
Bare GCE reference electrode · Electrode · DPV for 5-HT, UA and CA under same pulse settings; comparative calibration plots in Figure S17.
2025 · Ligand-Insertion Strategy for Constructing 2D Conjugated Metal–Organic Framework with Large Pore Size for Electrochemical Analytics
Cu3(HHTP)2-coated GCE control · Electrode · Same KCl 0.1 M redox-probe conditions as target electrode, using Cu3(HHTP)2/GCE control.
2025 · Ligand-Insertion Strategy for Constructing 2D Conjugated Metal–Organic Framework with Large Pore Size for Electrochemical Analytics
Cu3(HHTP)(DHBQ)1.5/1.53-coated GCE · Electrode · PBS 0.1 M, pH 7.4; analytes 5-HT, UA and CA; CV at 100 mV s-1; DPV pulse width 0.05 s and pulse amplitude 0.05 V.
2025 · Ligand-Insertion Strategy for Constructing 2D Conjugated Metal–Organic Framework with Large Pore Size for Electrochemical Analytics
Cu3(HHTP)(DHBQ)1.5/1.53-coated GCE · Electrode · Three-electrode setup with MOF-loaded GCE working electrode, Ag/AgCl reference and Pt counter; KCl 0.1 M containing FcMeOH, Fe(CN)6(3-) or IrCl6(3-) at 1 mM; scan-rate-dependent CV.
2025 · Manganese oxide and urea-assisted engineering of nickel-iron compounds for high-performance battery-supercapacitor hybrid devices
NiFe-Mn3//rGO BSH · Unknown · CV measured for 1.2, 1.3, 1.4, 1.5 and 1.6 V at 20 mV/s.
2025 · Manganese oxide and urea-assisted engineering of nickel-iron compounds for high-performance battery-supercapacitor hybrid devices
NiFe · Electrode · 3 M KOH electrolyte; Pt counter electrode; Ag/AgCl reference; capacitance from CV curves.
2025 · Manganese oxide and urea-assisted engineering of nickel-iron compounds for high-performance battery-supercapacitor hybrid devices
NiFe-Mn1 · Electrode · 3 M KOH electrolyte; Pt counter electrode; Ag/AgCl reference; capacitance from CV curves.
2025 · Manganese oxide and urea-assisted engineering of nickel-iron compounds for high-performance battery-supercapacitor hybrid devices
NiFe-Mn2 · Electrode · 3 M KOH electrolyte; Pt counter electrode; Ag/AgCl reference; capacitance from CV curves.
2025 · Manganese oxide and urea-assisted engineering of nickel-iron compounds for high-performance battery-supercapacitor hybrid devices
NiFe-Mn3 · Electrode · 3 M KOH electrolyte; Pt counter electrode; Ag/AgCl reference; capacitance from CV curves.
2025 · Manganese oxide and urea-assisted engineering of nickel-iron compounds for high-performance battery-supercapacitor hybrid devices
NiFe-Mn4 · Electrode · 3 M KOH electrolyte; Pt counter electrode; Ag/AgCl reference; capacitance from CV curves.
2025 · Manganese oxide and urea-assisted engineering of nickel-iron compounds for high-performance battery-supercapacitor hybrid devices
NiFe-Mn3 without urea · Electrode · SI CV comparison of NiFe-Mn3 with and without urea; numeric curves unavailable in provided SI text.
2025 · Manganese oxide and urea-assisted engineering of nickel-iron compounds for high-performance battery-supercapacitor hybrid devices
NiFe-Mn3 · Electrode · Specific capacitance retention with scan rate increasing from 5 to 30 mV/s.
2025 · Metal-halide porous framework superlattices
PbI2@NU-1000 single crystals · Single Crystal · 0.1 M nBu4NPF6 in CH3CN; Pt counter; Hg/Hg2Cl2 reference; scan rate 100 mV s-1 in Methods; SI captions show 50 mV s-1 for plotted CV
2025 · Metal-halide porous framework superlattices
PbI2@PCN-606 single crystals · Single Crystal · 0.1 M nBu4NPF6 in CH3CN; Pt counter; Hg/Hg2Cl2 reference; scan rate 100 mV s-1 in Methods; SI captions show 50 mV s-1 for plotted CV
2025 · Metal-halide porous framework superlattices
PbI2@PCN-609 single crystals · Single Crystal · 0.1 M nBu4NPF6 in CH3CN; Pt counter; Hg/Hg2Cl2 reference; scan rate 100 mV s-1 in Methods; SI captions show 50 mV s-1 for plotted CV
2025 · Metal-halide porous framework superlattices
PbI2@PCN-700 single crystals · Single Crystal · 0.1 M nBu4NPF6 in CH3CN; Pt counter; Hg/Hg2Cl2 reference; scan rate 100 mV s-1 in Methods; SI captions show 50 mV s-1 for plotted CV
2025 · Metal-organic framework glass stabilizes high-voltage cathodes for efficient lithium-metal batteries
Glass@NCM-811, 2 wt% MOF Glass coating · Powder · CC charging at 6 C followed by CV charging with 0.2 C cutoff current.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Co-HITP nanosheets (Co-HITP NSs) · Nanosheet · Non-Faradaic potential window, scan rates 2-10 mV s^-1; Cdl extracted from j vs scan-rate slope.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
CoNi-HITP nanosheets (CoNi-HITP NSs) · Nanosheet · Non-Faradaic potential window, scan rates 2-10 mV s^-1; Cdl extracted from j vs scan-rate slope.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Ni-HITP nanosheets (Ni-HITP NSs) · Nanosheet · Non-Faradaic potential window, scan rates 2-10 mV s^-1; Cdl extracted from j vs scan-rate slope.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Co-HITP nanoparticles (Co-HITP NPs) · Powder · Ar-saturated 0.5 M H2SO4; conventional three-electrode configuration.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Co-HITP nanosheets (Co-HITP NSs) · Nanosheet · Ar-saturated 0.5 M H2SO4; geometric-area-normalised current density; 85% iR correction.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
CoNi-HITP nanosheets (CoNi-HITP NSs) · Nanosheet · Ar-saturated 0.5 M H2SO4; geometric-area-normalised current density; 85% iR correction.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Cu-HITP nanoparticles · Powder · Ar-saturated 0.5 M H2SO4; conventional three-electrode configuration.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Fe-HITP nanoparticles/aggregate · Powder · Ar-saturated 0.5 M H2SO4; conventional three-electrode configuration.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Ni-HITP nanoparticles (Ni-HITP NPs) · Powder · Ar-saturated 0.5 M H2SO4; three-electrode cell; RDE 5 mm; catalyst loading 0.2 mg cm^-2; 85% iR correction; 10 mV s^-1; no rotation per SI.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Ni-HITP nanoparticles (Ni-HITP NPs) · Powder · Ar-saturated 0.5 M H2SO4; conventional three-electrode configuration.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Ni-HITP nanosheets (Ni-HITP NSs) · Nanosheet · Ar-saturated 0.5 M H2SO4; three-electrode cell; RDE 5 mm; catalyst loading 0.2 mg cm^-2; 85% iR correction; 10 mV s^-1; no rotation per SI.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Ni-HITP nanosheets (Ni-HITP NSs) · Nanosheet · Ar-saturated 0.5 M H2SO4; geometric-area-normalised current density; 85% iR correction.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Zn-HITP nanoparticles/aggregate · Powder · Ar-saturated 0.5 M H2SO4; conventional three-electrode configuration.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Co-HITP nanosheets (Co-HITP NSs) · Nanosheet · 0.5 M H2SO4 HER conditions.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
CoNi-HITP nanosheets (CoNi-HITP NSs) · Nanosheet · 0.5 M H2SO4 HER conditions.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Ni-HITP nanoparticles (Ni-HITP NPs) · Powder · 0.5 M H2SO4 HER conditions.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Ni-HITP nanosheets (Ni-HITP NSs) · Nanosheet · 0.5 M H2SO4 HER conditions.
2025 · Mitigating lipid biofouling in wearable sweat sensors: A study on conductive MOF-based electrodes with tuned hydrophilicity
Cu-HHTP electrode · Electrode · Simulated sweat-lipid flow; current monitored at 0.5 V for 16 min; CV after flow
2025 · Mitigating lipid biofouling in wearable sweat sensors: A study on conductive MOF-based electrodes with tuned hydrophilicity
Cu-HHTP/OTS electrode · Electrode · Simulated sweat-lipid flow; current monitored at 0.5 V for 16 min; CV after flow
2025 · Mitigating lipid biofouling in wearable sweat sensors: A study on conductive MOF-based electrodes with tuned hydrophilicity
Cu-THQ electrode · Electrode · Simulated sweat-lipid flow; current monitored at 0.5 V for 16 min; CV after flow
2025 · Mitigating lipid biofouling in wearable sweat sensors: A study on conductive MOF-based electrodes with tuned hydrophilicity
Ni-HHTP electrode · Electrode · Simulated sweat-lipid flow; current monitored at 0.5 V for 16 min; CV after flow
2025 · Mitigating lipid biofouling in wearable sweat sensors: A study on conductive MOF-based electrodes with tuned hydrophilicity
ZIF-8 electrode · Electrode · Simulated sweat-lipid flow; current monitored at 0.5 V for 16 min; CV after flow
2025 · Mitigating lipid biofouling in wearable sweat sensors: A study on conductive MOF-based electrodes with tuned hydrophilicity
Cu-HHTP electrode · Electrode · Artificial sweat pH 5.5; three-electrode setup; step 4 mV, width 0.2 s, period 0.5 s, amplitude 50 mV
2025 · Mitigating lipid biofouling in wearable sweat sensors: A study on conductive MOF-based electrodes with tuned hydrophilicity
Cu-HHTP/OTS electrode · Electrode · Artificial sweat pH 5.5; three-electrode setup; step 4 mV, width 0.2 s, period 0.5 s, amplitude 50 mV
2025 · Mitigating lipid biofouling in wearable sweat sensors: A study on conductive MOF-based electrodes with tuned hydrophilicity
Cu-THQ electrode · Electrode · Artificial sweat pH 5.5; three-electrode setup; step 4 mV, width 0.2 s, period 0.5 s, amplitude 50 mV
2025 · Mitigating lipid biofouling in wearable sweat sensors: A study on conductive MOF-based electrodes with tuned hydrophilicity
Ni-HHTP electrode · Electrode · Artificial sweat pH 5.5; three-electrode setup; step 4 mV, width 0.2 s, period 0.5 s, amplitude 50 mV
2025 · Mitigating lipid biofouling in wearable sweat sensors: A study on conductive MOF-based electrodes with tuned hydrophilicity
ZIF-8 electrode · Electrode · Artificial sweat pH 5.5; three-electrode setup; step 4 mV, width 0.2 s, period 0.5 s, amplitude 50 mV
2025 · Mixed Ionic and Electronic Conductivity in a Tetrathiafulvalene-Phosphonate Metal-Organic Framework
Et8TTFTP red powder · Powder · Et8TTFTP measured at different scan rates.
2025 · Mixed Ionic and Electronic Conductivity in a Tetrathiafulvalene-Phosphonate Metal-Organic Framework
H8TTFTP black solid · Powder · H8TTFTP ligand measured at 0.1, 0.3 and 0.5 V/s with DPV trace.
2025 · Mixed Ionic and Electronic Conductivity in a Tetrathiafulvalene-Phosphonate Metal-Organic Framework
TTFTP-La/Nafion glassy-carbon working electrode · Electrode · TTFTP-La MOF on glassy carbon/Nafion electrode at scan rates 0.1, 0.3 and 0.5 V/s.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
Al-MOF solid-electrode CV composite · Electrode · Three-electrode Bio-Logic setup; GC working electrode composite; Ag/AgCl saturated KCl reference; graphite counter; 1 M H2SO4; 10 mV/s; 0.9-0 V vs Ag/AgCl for Al-MOF.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
Fe-MOF solid-electrode CV composite · Electrode · Three-electrode Bio-Logic setup; GC working electrode composite; Ag/AgCl saturated KCl reference; graphite counter; 1 M H2SO4; 10 mV/s; 0.85-0.0 V vs Ag/AgCl for Fe-MOF.
2025 · Modulating the redox states in a 3D conductive MOF for sweat ascorbic acid monitoring
I2@FeTHQ-1 to I2@FeTHQ-5 · Powder · CV/EIS and elemental mapping for scaled-up and physically ground samples
2025 · Modulating the redox states in a 3D conductive MOF for sweat ascorbic acid monitoring
I2@FeTHQ/ITO working electrode · Electrode · CV in three-electrode PBS/ITO setup; FeTHQ vs I2@FeTHQ and dopant controls
2025 · Modulating the redox states in a 3D conductive MOF for sweat ascorbic acid monitoring
I2@FeTHQ/ITO working electrode · Electrode · AA in 0.1 M PBS, pH 7, 500 uM; scan rates 10-200 mV/s
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
CR2032 Li-S cell with Ni-COF@PP separator · Electrode · CV curves at 0.1-0.5 mV s-1; log peak current versus log sweep rate
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
CR2032 Li-S cell with PP separator control · Electrode · CV curves at 0.1-0.5 mV s-1; log peak current versus log sweep rate
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
Ni-COF Li2S6 symmetric cell electrode · Electrode · 20 uL Li2S6 catholyte (0.2 M Li2S6 in DOL/DME), mass loading ~1 mg cm-2, -1.0 to 1.0 V, 5 mV s-1
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
CR2032 Li-S cell with Ni-COF@PP separator · Electrode · Randles-Sevcik analysis of CV curves at varied scan rates
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
CR2032 Li-S cell with PP separator control · Electrode · Randles-Sevcik analysis of CV curves at varied scan rates
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
CR2032 Li-S cell with Ni-COF@PP separator · Electrode · CV at 0.1 mV s-1; Tafel slopes from reductive and oxidative CV peaks
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
CR2032 Li-S cell with PP separator control · Electrode · CV at 0.1 mV s-1; Tafel slopes from reductive and oxidative CV peaks
2025 · Nano UiO-66 and UiO-66-NH2 MOFs as Bifunctional Electrocatalysts for Water-Splitting: A Comparative Study
U catalyst-coated nickel foam electrode · Electrode · CV potential range 0-0.7 V in 1 M KOH; scan rates 20, 40, 60, 80, and 100 mV/s for U; Cdl from DeltaJ/2 versus scan rate in non-Faradaic region at 1.4 V vs RHE; Cs = 0.04 mF/cm2.
2025 · Nano UiO-66 and UiO-66-NH2 MOFs as Bifunctional Electrocatalysts for Water-Splitting: A Comparative Study
U-N catalyst-coated nickel foam electrode · Electrode · CV comparison at 40 mV/s in 1 M KOH; Cdl from DeltaJ/2 versus scan rate in non-Faradaic region at 1.4 V vs RHE; Cs = 0.04 mF/cm2.
2025 · Nano UiO-66 and UiO-66-NH2 MOFs as Bifunctional Electrocatalysts for Water-Splitting: A Comparative Study
U catalyst-coated nickel foam electrode · Electrode · Three-electrode HER test in 1 M KOH; LSV potential range 0 to -2 V converted to RHE; overpotential at -10 mA/cm2.
2025 · Nano UiO-66 and UiO-66-NH2 MOFs as Bifunctional Electrocatalysts for Water-Splitting: A Comparative Study
U-N catalyst-coated nickel foam electrode · Electrode · Three-electrode HER test in 1 M KOH; LSV potential range 0 to -2 V converted to RHE; overpotential at -10 mA/cm2.
2025 · Nano UiO-66 and UiO-66-NH2 MOFs as Bifunctional Electrocatalysts for Water-Splitting: A Comparative Study
U catalyst-coated nickel foam electrode · Electrode · Three-electrode cell with Ag/AgCl reference, Pt counter, catalyst-coated nickel foam working electrode; 1 M KOH, pH about 14; OER LSV 0 to 1 V, converted to RHE, 5 mV/s; values compared at 20 mA/cm2.
2025 · Nano UiO-66 and UiO-66-NH2 MOFs as Bifunctional Electrocatalysts for Water-Splitting: A Comparative Study
U-N catalyst-coated nickel foam electrode · Electrode · Three-electrode cell with Ag/AgCl reference, Pt counter, catalyst-coated nickel foam working electrode; 1 M KOH, pH about 14; OER LSV 0 to 1 V, converted to RHE, 5 mV/s; values compared at 20 mA/cm2.
2025 · Nano UiO-66 and UiO-66-NH2 MOFs as Bifunctional Electrocatalysts for Water-Splitting: A Comparative Study
U-N catalyst-coated nickel foam electrode · Electrode · U-N OER stability: 200 CV cycles at 100 mV/s, then chronoamperometry for 10 h at constant potential corresponding to 20 mA/cm2.
2025 · Nanoporous synthetic metal: A nickel MOF with an amino-functionalized macrocyclic ligand
Cu-HATC CV composite electrode ink · Electrode · MOF/Super P/PTFE on glassy carbon; Ag/Ag+ reference; Pt counter; 0.1 M TABF/acetonitrile; 100 mV/s
2025 · Nanoporous synthetic metal: A nickel MOF with an amino-functionalized macrocyclic ligand
Cu-HATC CV composite electrode ink · Electrode · Same CV electrode with Ferrocene reference
2025 · Nanoporous synthetic metal: A nickel MOF with an amino-functionalized macrocyclic ligand
Ni-HATC CV composite electrode ink · Electrode · MOF/Super P/PTFE on glassy carbon; Ag/Ag+ reference; Pt counter; 0.1 M TABF/acetonitrile; 100 mV/s
2025 · Nanoporous synthetic metal: A nickel MOF with an amino-functionalized macrocyclic ligand
Ni-HATC CV composite electrode ink · Electrode · Same CV electrode with Ferrocene reference
2025 · Operando Raman and ex situ characterization of an iron-based conductive MOF as a negative electrode in Li-ion batteries
Fe-HHTP composite Li-ion battery electrode on copper foil · Electrode · Autolab M204; voltage range 0.1-3.0 V vs Li/Li+; first three cycles at 0.1 mV s-1 and third scan at scan rates 0.1-10 mV s-1.
2025 · Operando Raman and ex situ characterization of an iron-based conductive MOF as a negative electrode in Li-ion batteries
Fe-HHTP composite Li-ion battery electrode on copper foil · Electrode · Autolab M204; 1 MHz to 10 mHz; EIS at various potentials during CV cycles; equivalent circuits fitted with Z-view.
2025 · Overscreening-Driven Modulation of Ion Adsorption and Desorption in Conductive MOF Electrodes by Charging Rates
Ni3(HITP)2 c-MOF film working electrode on Au-coated quartz · Electrode · CV across 10, 100 and 1000 mV s^-1 over -0.25 to 0.25 V versus PZC while quartz frequency was tracked; [EMIM][BF4] electrolyte at 60 deg C.
2025 · Radiation-Induced in Situ Construction of 2D Conductive Defect-Rich Metal-Organic Frameworks for High-Performance Supercapacitor
Cu-CAT-Rad//Cu-CAT-Rad symmetric button cell · Electrode · KCl electrolyte; voltage window -0.5 to 0.5 V / 1.0 V; current densities 0.5-5 A g-1
2025 · Radiation-Induced in Situ Construction of 2D Conductive Defect-Rich Metal-Organic Frameworks for High-Performance Supercapacitor
Cu-CAT-Rad/NF electrode · Electrode · Three-electrode cell; 3.0 M KCl; Hg/HgO reference; Pt counter; scan rates 2-100 mV s-1
2025 · Radiation-Induced in Situ Construction of 2D Conductive Defect-Rich Metal-Organic Frameworks for High-Performance Supercapacitor
Cu-CAT-Sol/NF electrode · Electrode · Three-electrode cell; 3.0 M KCl; Hg/HgO reference; Pt counter; scan rates 2-100 mV s-1
2025 · Rational Design of Conductive MOF-Based Diatomic Electrocatalysts for Selective Ammonia Synthesis
Cu99Ni1-DBCO on carbon cloth/carbon paper electrode · Electrode
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Cd2(TTFTB) powder-coated glassy carbon electrode for CV · Electrode · 0.1 mol/L [N(t-C4H9)4](PF6) in EtOH; argon-bubbled electrolyte; Ag/AgNO3 reference calibrated with ferrocene; scan -0.3565 to 0.8435 V vs Fc+/Fc at 0.1 V/s.
2025 · Selenium-Substitution Strategy for Enhanced Mobility, Tunable Bandgap, and Improved Electrochemical Energy Storage in Semiconducting Conjugated Coordination Polymers
Ag4TSHQ/PTFE/carbon black electrode on carbon paper · Electrode · Three-electrode cell; 1 M KCl electrolyte; SCE reference; platinum counter; conductive carbon paper working electrode; scan rates in Figure 6 and Figure S13.
2025 · Selenium-Substitution Strategy for Enhanced Mobility, Tunable Bandgap, and Improved Electrochemical Energy Storage in Semiconducting Conjugated Coordination Polymers
Ag4TTHQ/PTFE/carbon black electrode on carbon paper · Electrode · Three-electrode cell; 1 M KCl electrolyte; SCE reference; platinum counter; conductive carbon paper working electrode.
2025 · Self-amplifying bimetallic conductive metal-organic framework for sensitive label-free electrochemiluminescence detection of aflatoxin B1
ZnCoMOFs black precipitate/powder · Powder · HHTP and ZnCoMOFs compared in the presence of potassium persulfate
2025 · Self-amplifying bimetallic conductive metal-organic framework for sensitive label-free electrochemiluminescence detection of aflatoxin B1
AFB1/BSA/Ab/Au NPs/ZnCoMOFs/GCE · Electrode · 10 mL PBS electrolyte (1/15 M, pH 7.4, 100 mM K2S2O8), N2 injection, CV 0 to -1.6 V, scan rate 0.2 V/s, PMT 600 V, magnification 4
2025 · Self-amplifying bimetallic conductive metal-organic framework for sensitive label-free electrochemiluminescence detection of aflatoxin B1
AFB1/BSA/Ab/Au NPs/ZnCoMOFs/GCE · Electrode · Layer-by-layer sensor construction assessed for ZnCoMOFs/GCE, Au NPs/ZnCoMOFs/GCE, Ab/Au NPs/ZnCoMOFs/GCE, BSA/Ab/Au NPs/ZnCoMOFs/GCE, and AFB1/BSA/Ab/Au NPs/ZnCoMOFs/GCE
2025 · Superhydrophilic hydrogel-enhanced conductive MOF-based wearable sweat sensors with anti-lipid biofouling capability
Hydrogel-assisted Ni-HAB MOF sweat sensor · Electrode · Hydrogel-integrated Ni-HAB MOF-based sweat sensor, applied potential 0.2 V vs Ag/AgCl, DA range 0-10 uM.
2025 · Superhydrophilic hydrogel-enhanced conductive MOF-based wearable sweat sensors with anti-lipid biofouling capability
Ni-HAB MOF electrode · Electrode · Artificial sweat containing dopamine, pH 5.5; scan rates 0.05-0.5 V/s; scan range -0.6 to 0.8 V vs Ag/AgCl.
2025 · Superhydrophilic hydrogel-enhanced conductive MOF-based wearable sweat sensors with anti-lipid biofouling capability
Ni-HAB MOF electrode · Electrode · DPV detection of ascorbic acid and uric acid; ranges in SI caption: AA 0-300 uM, UA 0-330 uM.
2025 · Superhydrophilic hydrogel-enhanced conductive MOF-based wearable sweat sensors with anti-lipid biofouling capability
Ni-HAB MOF electrode · Electrode · Artificial sweat pH 5.5; dopamine concentration range 0-20 uM from supplementary Fig. S11/S12.
2025 · Superhydrophilic hydrogel-enhanced conductive MOF-based wearable sweat sensors with anti-lipid biofouling capability
Ni-HAB MOF electrode · Electrode · Artificial sweat, pH 5.5 unless otherwise noted; 0-0.6 V vs Ag/AgCl, 4 mV step, 0.2 s pulse width, 0.5 s pulse period, 50 mV pulse amplitude; dopamine concentration range 0-285 uM.
2025 · Superhydrophilic hydrogel-enhanced conductive MOF-based wearable sweat sensors with anti-lipid biofouling capability
Ni-HAB MOF electrode · Electrode · DA detection in the presence of NaCl, KCl, urea, glucose, glycine, leucine, and lactic acid.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-W catalyst ink on glassy carbon electrode · Electrode · Non-Faradaic potential region 1.0-1.2 V vs RHE; scan-rate series in 0.1 M KCl ferri-ferro neutral solution; ECSA calculated using geometric area 0.196 cm2 and Cs = 0.035 mF/cm2.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-WO catalyst ink on glassy carbon electrode · Electrode · Non-Faradaic potential region 1.0-1.2 V vs RHE; scan-rate series in 0.1 M KCl ferri-ferro neutral solution; ECSA calculated using geometric area 0.196 cm2 and Cs = 0.035 mF/cm2.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-W catalyst ink on glassy carbon electrode · Electrode · 25 repeated CV cycles in 1 M KOH between 0.9 and 1.6 V vs RHE at 10 mV/s.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-WO catalyst ink on glassy carbon electrode · Electrode · 25 repeated CV cycles in 1 M KOH between 0.9 and 1.6 V vs RHE at 10 mV/s.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-W catalyst ink on glassy carbon electrode · Electrode · First-cycle CV at 10 mV/s; redox peaks used for Co2+/Co3+ and HOMO/LUMO estimates.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-WO catalyst ink on glassy carbon electrode · Electrode · First-cycle CV at 10 mV/s; redox peaks used for Co2+/Co3+ and HOMO/LUMO estimates.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-W catalyst ink on glassy carbon electrode · Electrode · 1 M KOH; three-electrode setup with Pt counter, Ag/AgCl reference, GCE working electrode; potentials converted to RHE; LSV before and after 25 CV cycles.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-WO catalyst ink on glassy carbon electrode · Electrode · 1 M KOH; three-electrode setup with Pt counter, Ag/AgCl reference, GCE working electrode; potentials converted to RHE; LSV before and after 25 CV cycles.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-W catalyst ink on glassy carbon electrode · Electrode · Tafel plots derived from OER LSV polarisation curves before and after CV activation.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-WO catalyst ink on glassy carbon electrode · Electrode · Tafel plots derived from OER LSV polarisation curves after CV activation unless stated.
2025 · Tuning the dxy Orbital Energy Level in 2D Cobalt-Organic-Framework via in-Plane Conjugated Phthalocyanine for Self-Powered Sensing
2D MOF@Pc/DNH · Unknown · 2D MOF@Pc/DNH hydrogel soaked in 2 mol L-1 H2SO4 and sandwiched between active carbon films; CV 0-1.0 V at 10 mV s-1; EIS 10^-2 to 10^5 Hz; GCD 0.5-10 A g-1.
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
Ni-1EG pristine powder · Powder · 1 M LiClO4 aqueous electrolyte; three-electrode setup; scan rates 2, 5, 10, 20 mV/s; 0.6-1 V vs Ag/Ag+
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
Ni-2EG pristine powder · Powder · 1 M LiClO4 aqueous electrolyte; three-electrode setup; scan rates 2, 5, 10, 20 mV/s; 0.6-1 V vs Ag/Ag+
2025 · Two dimensional Conjugated Metal–Organic Frameworks with Multiple Redox-Active Sites towards High-Performance Sodium-Ion Battery
Cu-TTPQ SIB cathode composite electrode · Electrode · Metallic Na anode, glass-fibre separator, 1 M NaPF6 in DME electrolyte, 1.0-3.8 V; room temperature.
2025 · Two dimensional Conjugated Metal–Organic Frameworks with Multiple Redox-Active Sites towards High-Performance Sodium-Ion Battery
Cu-TTPQ SIB cathode composite electrode · Electrode · CV curves tested at scan rates from 0.6 to 1.6 mV s-1; b-value and capacitive/diffusion contribution analysis.
2025 · Two-Dimensional π-d Conjugated Conductive Metal-Organic Framework with Triple Active Centers as High-Performance Cathodes for Flexible Zinc Batteries
1D Cu-TABQ composite cathode in CR2032 Zn cell · Electrode · 2032 Zn button cell, zinc metal anode; sweep rate 0.2 mV s-1, voltage window 0.3-1.5 V vs Zn2+/Zn.
2025 · Two-Dimensional π-d Conjugated Conductive Metal-Organic Framework with Triple Active Centers as High-Performance Cathodes for Flexible Zinc Batteries
2D Cu-TABQ composite cathode in CR2032 Zn cell · Electrode · 2032 Zn button cell, zinc metal anode, 2M Zn(CF3SO3)2 electrolyte; sweep rate 0.2 mV s-1, voltage window 0.3-1.5 V vs Zn2+/Zn.
2025 · Two-Dimensional π-d Conjugated Conductive Metal-Organic Framework with Triple Active Centers as High-Performance Cathodes for Flexible Zinc Batteries
2D Cu-TABQ composite cathode in CR2032 Zn cell · Electrode · CV scan rates 0.2-1.0 mV s-1; b-value fitting and k1v/k2v1/2 capacitive/diffusion separation.
2025 · Ultrathin 2D metal-organic framework nanosheet arrays to boost the overall efficiency of water splitting
TIT-1@NS/NF · Electrode · CV curves at multiple scan rates; HER potential window; reported values in mF cm-2.
2025 · Ultrathin 2D metal-organic framework nanosheet arrays to boost the overall efficiency of water splitting
TIT-1@NS/NF · Electrode · CV curves at multiple scan rates; OER potential window; reported values in mF cm-2.
2025 · Ultrathin 2D metal-organic framework nanosheet arrays to boost the overall efficiency of water splitting
TIT-1@NS/NF · Electrode · Three-electrode HER in 1.0 M KOH at ambient temperature; scan rate 5 mV s-1; compared with Pt/C, TIT-1 and bare NF.
2025 · Ultrathin 2D metal-organic framework nanosheet arrays to boost the overall efficiency of water splitting
TIT-1@NS/NF · Electrode · Three-electrode OER in 1.0 M KOH at ambient temperature; scan rate 5 mV s-1; iR correction stated in results text although methods say no iR compensation.
2025 · Unraveling the Electrical, Dielectric, and Electrocatalytic Properties of Bimetallic Cobalt-Based Metal–Organic Frameworks
1:2 Mn:Co powder drop-cast on glassy carbon electrode · Electrode · Three-electrode cell, 1 M KOH, MOF-coated GCE working electrode, Pt wire counter, Ag/AgCl reference, 1500 rpm, 0-0.8 V vs reference, 1 mV s^-1.
2025 · Unraveling the Electrical, Dielectric, and Electrocatalytic Properties of Bimetallic Cobalt-Based Metal–Organic Frameworks
Co-BTC powder drop-cast on glassy carbon electrode · Electrode · Same three-electrode 1 M KOH protocol for Mn-BTC, Co-BTC, 1:1 Mn:Co, and 2:1 Mn:Co.
2024 · 2D Conductive Metal-Organic Frameworks Based on Tetraoxa[8]circulenes as Promising Cathode for Aqueous Zinc Ion Batteries
Cu-TOC cathode electrode · Electrode · CR2032 cell, Zn foil anode, 1.0 M Zn(CF3SO3)2 electrolyte, 0.2-1.2 V vs Zn/Zn2+, CV at 1.0 mV s-1, GCD at 50 mA g-1.
2024 · 2D Conductive Metal-Organic Frameworks Based on Tetraoxa[8]circulenes as Promising Cathode for Aqueous Zinc Ion Batteries
Cu-TOC cathode electrode · Electrode · CV curves at 0.2-1.0 mV s-1; b values from log(i) versus log(v); capacitive/diffusion contribution from k1v + k2v^1/2.
2024 · 2D Conductive Metal-Organic Frameworks Based on Tetraoxa[8]circulenes as Promising Cathode for Aqueous Zinc Ion Batteries
Mn-TOC cathode electrode · Electrode · CR2032 cell, Zn foil anode, 1.0 M Zn(CF3SO3)2 electrolyte, 0.2-1.2 V vs Zn/Zn2+, CV at 1.0 mV s-1, GCD at 50 mA g-1.
2024 · 2D Conductive Metal-Organic Frameworks Based on Tetraoxa[8]circulenes as Promising Cathode for Aqueous Zinc Ion Batteries
Zn-TOC cathode electrode · Electrode · CR2032 cell, Zn foil anode, 1.0 M Zn(CF3SO3)2 electrolyte, 0.2-1.2 V vs Zn/Zn2+, CV at 1.0 mV s-1, GCD at 50 mA g-1.
2024 · A Computation-Guided Design of Highly Defined and Dense Bimetallic Active Sites on a Two-Dimensional Conductive Metal–Organic Framework for Efficient H2O2 Electrosynthesis
Ni-TCPP(Co)/CNT/Nafion RRDE catalyst layer · Electrode · O2-saturated 0.1 M KOH, 1600 rpm, 10 mV/s, ring at 1.5 V vs RHE
2024 · A Computation-Guided Design of Highly Defined and Dense Bimetallic Active Sites on a Two-Dimensional Conductive Metal–Organic Framework for Efficient H2O2 Electrosynthesis
M2-TCPP(Co)/CNT/Nafion RRDE analogue series · Electrode · M2-TCPP(Co) analogues in O2-saturated 0.1 M KOH
2024 · A novel pencil graphite electrode modified with an iron-based conductive metal-organic framework exhibited good ability in simultaneous sensing bisphenol A and bisphenol S
Fe-HHTP/PGE · Electrode · 50 uM BPA and BPS, scan rate 100 mV s-1, potential range -0.2 to 0.8 V; single and binary systems.
2024 · A novel pencil graphite electrode modified with an iron-based conductive metal-organic framework exhibited good ability in simultaneous sensing bisphenol A and bisphenol S
Fe-HHTP/PGE · Electrode · Scan rates 0.02 to 0.22 V s-1 for 50 uM BPA and BPS; Ip-v and Ep-ln(v) fitted.
2024 · A novel pencil graphite electrode modified with an iron-based conductive metal-organic framework exhibited good ability in simultaneous sensing bisphenol A and bisphenol S
Fe-HHTP/PGE · Electrode · Optimised conditions: pH 6.5, Fe-HHTP concentration 2 mg mL-1, deposition potential 0 V, deposition time 100 s; BPA/BPS concentration 0.01-100 uM.
2024 · A novel pencil graphite electrode modified with an iron-based conductive metal-organic framework exhibited good ability in simultaneous sensing bisphenol A and bisphenol S
Fe-HHTP/PGE · Electrode · 2 mM [Fe(CN)6]3-/[Fe(CN)6]4-, scan rate 100 mV s-1, potential range -0.2 to 0.6 V.
2024 · A novel pencil graphite electrode modified with an iron-based conductive metal-organic framework exhibited good ability in simultaneous sensing bisphenol A and bisphenol S
Fe-HHTP powder · Powder · Fe-HHTP compared with M-HHTP (M=Co, Ni, Cu or Zn) for simultaneous detection of BPA and BPS; values shown in radar plot.
2024 · A novel pencil graphite electrode modified with an iron-based conductive metal-organic framework exhibited good ability in simultaneous sensing bisphenol A and bisphenol S
Fe-HHTP/PGE · Electrode · pH 5.0-8.0; CFe-HHTP 0.5-4 mg mL-1; deposition potential -0.2 to 0.3 V; deposition time 10-150 s.
2024 · A Sensing Platform Based on Ni/Mn Bimetal-Organic Framework for Electrochemical Detection of Osimertinib
bare GCE · Electrode · 0.1 M NaOH with and without 0.05 mM OSIM; scan rate 0.02 V s-1; potential window shown 0 to 0.5 V.
2024 · A Sensing Platform Based on Ni/Mn Bimetal-Organic Framework for Electrochemical Detection of Osimertinib
Ni/Mn-MOF/GCE · Electrode · CV responses of Ni/Mn-MOF/GCE with OSIM additions from 0 to 0.05 mM in 0.1 M NaOH.
2024 · A Sensing Platform Based on Ni/Mn Bimetal-Organic Framework for Electrochemical Detection of Osimertinib
Ni/Mn-MOF/GCE · Electrode · 0.1 M NaOH with and without 0.05 mM OSIM; scan rate 0.02 V s-1.
2024 · A Sensing Platform Based on Ni/Mn Bimetal-Organic Framework for Electrochemical Detection of Osimertinib
Ni/Mn-MOF/GCE · Electrode · 5 to 90 mV/s in NaOH containing 0.05 mM OSIM; oxidative peak current plotted against square root of scan rate.
2024 · A Triptycene-Based Layered/Flower-Like 2D Conductive Metal–Organic Framework with 3D Extension as an Electrode for Efficient Li Storage
M-DBH Li-ion battery electrodes · Electrode · M-DBH cathode vs Li metal; 1 M LiPF6 in EC/DEC 1:1; voltage windows 1-3.5 V, 1.5-3.5 V, or 1.5-3.2 V; tests at 25 deg C where specified.
2024 · A Triptycene-Based Layered/Flower-Like 2D Conductive Metal–Organic Framework with 3D Extension as an Electrode for Efficient Li Storage
S@M-DBH Li-S battery electrodes · Electrode · S@M-DBH cathode vs Li metal; 1 M LiTFSI in DOL/DME 1:1 with 0.2 M LiNO3; scan rates 0.1-2 mV s^-1; cathode area 2 cm^2.
2024 · Aggregation-induced enhancement of pyrene-based metal-organic framework as a new electrochemiluminescence emitter for ultrasensitive detection of sulfadimethoxine
Ce-MOF/GCE · Electrode · Bare GCE and Ce-MOF/GCE measured in 5 mM K3[Fe(CN)6]/K4[Fe(CN)6] with KCl; scan rates 0.01-0.20 V s-1.
2024 · Aggregation-induced enhancement of pyrene-based metal-organic framework as a new electrochemiluminescence emitter for ultrasensitive detection of sulfadimethoxine
ZPM/GCE · Electrode · Bare GCE and ZPM/GCE in PBS with and without 0.05 M K2S2O8.
2024 · Aggregation-induced enhancement of pyrene-based metal-organic framework as a new electrochemiluminescence emitter for ultrasensitive detection of sulfadimethoxine
SDM/MCH/dsDNA/AuNPs/Ce-MOF/GCE with ZPM/SP tracer · Electrode · K3[Fe(CN)6]/K4[Fe(CN)6] (5 mM) containing 0.1 M KCl; curves for GCE, Ce-MOF/GCE, AuNPs/Ce-MOF/GCE, dsDNA/AuNPs/Ce-MOF/GCE, MCH/dsDNA/AuNPs/Ce-MOF/GCE and SDM/MCH/dsDNA/AuNPs/Ce-MOF/GCE.
2024 · Aliovalent Substitution Tunes Physical Properties in a Conductive Bis(dithiolene) Two-Dimensional Metal-Organic Framework
Fe3(THT)2 coated conductive-paper electrode · Electrode · 0.2 M LiPF6/DMF electrolyte; Fe3(THT)2 coated conductive paper working electrode
2024 · Aliovalent Substitution Tunes Physical Properties in a Conductive Bis(dithiolene) Two-Dimensional Metal-Organic Framework
Ni3(THT)2/Super P/PVDF carbon-paper electrode · Electrode · 0.2 M LiPF6/DMF electrolyte; scan rates 1-15 mV s^-1; Pt counter, Ag pseudoreference, Fc/Fc+ calibration
2024 · Aliovalent Substitution Tunes Physical Properties in a Conductive Bis(dithiolene) Two-Dimensional Metal-Organic Framework
Ni3(THT)2/Super P/PVDF carbon-paper electrode · Electrode · 0.2 M LiPF6/MeCN electrolyte; scan rates 1-15 mV s^-1
2024 · An Enzyme-Encapsulated Metal-Organic Frameworks Nanomesh Biosensor for Salivary Glucose Detection
CNT/GOx@ZIF-8 biosensor electrode · Electrode · 5 mM K3[Fe(CN)6]/K4[Fe(CN)6] containing 0.1 M KCl; scan rate 50 mV s-1 within -0.2 to 0.4 V in 0.1 M PBS (pH 7.4).
2024 · Aptasensor based on gold nanostructure-decorated 2D Cu metal–organic framework nanosheets for highly sensitive and specific electrochemical lipopolysaccharide detection
Au/Cu-THQ/GCE · Electrode · CV at scan rates from 10 to 100 mV/s in ferri/ferrocyanide; active surface areas calculated using Randles-Sevcik equation.
2024 · Aptasensor based on gold nanostructure-decorated 2D Cu metal–organic framework nanosheets for highly sensitive and specific electrochemical lipopolysaccharide detection
Apt/Au/Cu-THQ/GCE · Electrode · Human serum samples from sepsis cases measured by Apt/Au/Cu-THQ/GCE and compared with WB-80 microbial dynamic monitoring system.
2024 · Aptasensor based on gold nanostructure-decorated 2D Cu metal–organic framework nanosheets for highly sensitive and specific electrochemical lipopolysaccharide detection
Au/Cu-THQ/GCE · Electrode · CV in ferri/ferrocyanide electrolyte from -0.2 to 0.6 V at 0.1 V/s under optimal electrode fabrication conditions.
2024 · Aptasensor based on gold nanostructure-decorated 2D Cu metal–organic framework nanosheets for highly sensitive and specific electrochemical lipopolysaccharide detection
Apt/Au/Cu-THQ/GCE · Electrode · DPV and EIS used to verify aptamer immobilisation and LPS response on Au/Cu-THQ/GCE.
2024 · Aptasensor based on gold nanostructure-decorated 2D Cu metal–organic framework nanosheets for highly sensitive and specific electrochemical lipopolysaccharide detection
Apt/Au/Cu-THQ/GCE · Electrode · DPV response to LPS concentrations from 0 to 1e-10 g/mL; calibration of peak current versus logarithm of LPS concentration.
2024 · Aptasensor based on gold nanostructure-decorated 2D Cu metal–organic framework nanosheets for highly sensitive and specific electrochemical lipopolysaccharide detection
Au/Cu-THQ/GCE · Electrode · CV current peaks compared across Cu-THQ or Cu-TCPP nanosheet volumes (5, 8, 10, 15 uL) and HAuCl4 electrodeposition times (30-270 s).
2024 · Aptasensor based on gold nanostructure-decorated 2D Cu metal–organic framework nanosheets for highly sensitive and specific electrochemical lipopolysaccharide detection
Apt/Au/Cu-THQ/GCE · Electrode · Five biosensors measured for 1 pg/mL LPS reproducibility; biosensor stored at 4 C for 15 days and remeasured for 1 pg/mL LPS.
2024 · Aptasensor based on gold nanostructure-decorated 2D Cu metal–organic framework nanosheets for highly sensitive and specific electrochemical lipopolysaccharide detection
Au/Cu-THQ/GCE · Electrode · CV plots for Au/GCE, Au/Cu-TCPP/GCE and Au/Cu-THQ/GCE in 5.0 mM K3Fe(CN)6/K4Fe(CN)6 plus 0.1 M KCl at 10-100 mV/s; linear fits of peak current versus scan rate are labelled in Figure S10.
2024 · Aptasensor based on gold nanostructure-decorated 2D Cu metal–organic framework nanosheets for highly sensitive and specific electrochemical lipopolysaccharide detection
Apt/Au/Cu-THQ/GCE · Electrode · DPV responses measured with Glu, IgGs, HSA, AST, ALT and LPS, each at 0.1 pg/mL.
2024 · Aptasensor based on gold nanostructure-decorated 2D Cu metal–organic framework nanosheets for highly sensitive and specific electrochemical lipopolysaccharide detection
Apt/Au/Cu-THQ/GCE · Electrode · DPV peak currents with and without 0.1 pg/mL LPS compared in 1x PBS buffer and serum.
2024 · Aptasensor based on gold nanostructure-decorated 2D Cu metal–organic framework nanosheets for highly sensitive and specific electrochemical lipopolysaccharide detection
Apt/Au/Cu-THQ/GCE · Electrode · LPS measured in 50-fold diluted human serum spiked at 1.00e-13, 1.00e-12 and 1.00e-11 g/mL.
2024 · Carbon quantum dot-mediated binary metal-organic framework nanosheets for efficient oxygen evolution at ampere-level current densities in proton exchange membrane electrolyzers
NiFe-MOF-CQD on glassy carbon electrode · Electrode · Three-electrode OER in O2-saturated 1.0 M KOH; rotation 1600 rpm for LSV; Ag/AgCl reference; graphite counter; iR compensation applied; CV activation 0.926-1.826 V vs RHE for 15 cycles at 50 mV s-1.
2024 · Conductive Metal-Organic Framework with Superior Redox Activity as a Stable High-Capacity Anode for High-Temperature K-Ion Batteries
HAN-Cu-MOF KIB anode film · Electrode · 45 degC; potassium metal counter electrode; 5 M KFSI in EC:EMC 1:1
2024 · Conductive Metal-Organic Framework with Superior Redox Activity as a Stable High-Capacity Anode for High-Temperature K-Ion Batteries
HAN-Cu-MOF KIB anode film · Electrode · 60 degC; potassium metal counter electrode; 5 M KFSI in EC:EMC 1:1; current densities 30-5000 mA g-1
2024 · Conductive Metal−Organic Frameworks for Rechargeable LiOH-Based Li−O2 Batteries
comparative M-HHTP and KB cathode set · Electrode · LOB cathodes in Ar, 2.0-4.5 V, scan rate 1 mV s-1.
2024 · Conductive Metal−Organic Frameworks for Rechargeable LiOH-Based Li−O2 Batteries
comparative M-HHTP and KB cathode set · Electrode · LOB cathodes in O2, 2.0-4.5 V, scan rate 1 mV s-1.
2024 · Conductive Metal−Organic Frameworks for Rechargeable LiOH-Based Li−O2 Batteries
comparative M-HHTP and KB cathode set · Electrode · ORR and OER polarization curves at sweep rate 1 mV s-1.
2024 · Conductive Ni3(HITP)2 nanofilm with asymmetrical morphology prepared by gas–liquid interface self-assembly for glucose sensing
DS-Ni-HITP-3 min/ITO electrode · Electrode · 5.0 mM K3[Fe(CN)6] containing 0.1 M KCl; scan-rate dependent CV; effective catalytic activity surface area calculated from Ip-v^1/2 slope.
2024 · Conductive Ni3(HITP)2 nanofilm with asymmetrical morphology prepared by gas–liquid interface self-assembly for glucose sensing
bare ITO · Electrode · 5.0 mM K3[Fe(CN)6] containing 0.1 M KCl; scan-rate dependent CV.
2024 · Conductive Ni3(HITP)2 nanofilm with asymmetrical morphology prepared by gas–liquid interface self-assembly for glucose sensing
US-Ni-HITP-3 min/ITO electrode · Electrode · 5.0 mM K3[Fe(CN)6] containing 0.1 M KCl; scan-rate dependent CV; effective catalytic activity surface area calculated from Ip-v^1/2 slope.
2024 · Conductive Ni3(HITP)2 nanofilm with asymmetrical morphology prepared by gas–liquid interface self-assembly for glucose sensing
US-Ni-HITP-1 min/ITO electrode · Electrode · SI comparison of US-Ni-HITP-1 min/ITO and DS-Ni-HITP-1 min/ITO in different glucose concentrations; calibration of oxidation peak current versus glucose concentration.
2024 · Conductive Ni3(HITP)2 nanofilm with asymmetrical morphology prepared by gas–liquid interface self-assembly for glucose sensing
US-Ni-HITP-5 min/ITO electrode · Electrode · SI comparison of US-Ni-HITP-5 min/ITO and DS-Ni-HITP-5 min/ITO in different glucose concentrations; calibration of oxidation peak current versus glucose concentration.
2024 · Conductive Ni3(HITP)2 nanofilm with asymmetrical morphology prepared by gas–liquid interface self-assembly for glucose sensing
DS-Ni-HITP-3 min/ITO electrode · Electrode · 0.1 M NaOH, 0.2-0.8 V vs Ag/AgCl, 50 mV s^-1; glucose concentrations 0-6 mM for linear calibration.
2024 · Conductive Ni3(HITP)2 nanofilm with asymmetrical morphology prepared by gas–liquid interface self-assembly for glucose sensing
bare ITO · Electrode · 0.1 M NaOH with absence and presence of 2 mM glucose.
2024 · Conductive Ni3(HITP)2 nanofilm with asymmetrical morphology prepared by gas–liquid interface self-assembly for glucose sensing
US-Ni-HITP-3 min/ITO electrode · Electrode · 0.1 M NaOH, 0.2-0.8 V vs Ag/AgCl, 50 mV s^-1; glucose concentrations 0-8 mM.
2024 · Conductive Ni3(HITP)2 nanofilm with asymmetrical morphology prepared by gas–liquid interface self-assembly for glucose sensing
DS-Ni-HITP-3 min/ITO electrode · Electrode · DS-Ni-HITP film in 2 mM glucose at scan rates from 20 to 200 mV s^-1.
2024 · Copper-doped strontium metal-organic framework: Dual-function active material for supercapacitor and oxygen evolution reaction
Cu-doped Sr MOF//AC ASC device · Electrode · Cu-doped Sr MOF//AC ASC in 3 M KOH, working voltage window 1.6 V; CV 10-100 mV s-1; GCD at multiple current densities.
2024 · Copper-doped strontium metal-organic framework: Dual-function active material for supercapacitor and oxygen evolution reaction
Cu-doped Sr MOF OER glassy-carbon electrode · Electrode · CV scan rates 10-100 mV s-1 in non-faradaic potential range 1.09-1.19 V; Cs assumed 0.04 mF cm-2.
2024 · Copper-doped strontium metal-organic framework: Dual-function active material for supercapacitor and oxygen evolution reaction
Undoped Sr MOF OER glassy-carbon electrode · Electrode · CV scan rates 10-100 mV s-1 in non-faradaic potential range 1.09-1.19 V for undoped Sr MOF; Cs assumed 0.04 mF cm-2.
2024 · Copper-doped strontium metal-organic framework: Dual-function active material for supercapacitor and oxygen evolution reaction
Cu-doped Sr MOF OER glassy-carbon electrode · Electrode · OER LSV curves before and after 2000 cycles of a stability test; blue initial curve and red dotted post-cycling curve.
2024 · Copper-doped strontium metal-organic framework: Dual-function active material for supercapacitor and oxygen evolution reaction
Cu-doped Sr MOF OER glassy-carbon electrode · Electrode · 1 M KOH, scan rate 5 mV s-1, iR-corrected; overpotential at 10 mA cm-2 and Tafel slope compared with undoped Sr MOF.
2024 · Copper-doped strontium metal-organic framework: Dual-function active material for supercapacitor and oxygen evolution reaction
Undoped Sr MOF OER glassy-carbon electrode · Electrode · 1 M KOH, scan rate 5 mV s-1, iR-corrected; undoped Sr MOF overpotential at 10 mA cm-2 and Tafel slope.
2024 · Copper-doped strontium metal-organic framework: Dual-function active material for supercapacitor and oxygen evolution reaction
Cu-doped Sr MOF/Ni foam supercapacitor electrode · Electrode · Three-electrode setup in 3 M KOH; Ag/AgCl reference, Pt counter; CV from -0.1 to 0.45 V, scan rates 5-100 mV s-1.
2024 · Copper-doped strontium metal-organic framework: Dual-function active material for supercapacitor and oxygen evolution reaction
Undoped Sr MOF/Ni foam supercapacitor electrode · Electrode · Three-electrode setup in 3 M KOH; undoped Sr MOF/Ni foam electrode CV at scan rates 5-100 mV s-1, with Dunn capacitive/diffusion contribution analysis.
2024 · Cu/Fe-MOFs based on mixed ligands: Synthesis, crystal structure and electrocatalytic hydrogen evolution performance
Cu-MOF drop-coated glassy carbon electrode · Electrode · CV scan rates from 20 to 100 mV s-1 in 1 M KOH; Cdl from current-density difference versus scan rate.
2024 · Cu/Fe-MOFs based on mixed ligands: Synthesis, crystal structure and electrocatalytic hydrogen evolution performance
Cu-MOF drop-coated glassy carbon electrode · Electrode · Three-electrode system in 1 M KOH; Pt sheet counter electrode; saturated Ag/AgCl reference; MOF/GCE working electrode; LSV scan rate 2 mV s-1; potentials reported vs RHE.
2024 · Cu/Fe-MOFs based on mixed ligands: Synthesis, crystal structure and electrocatalytic hydrogen evolution performance
Fe-MOF drop-coated glassy carbon electrode · Electrode · CV scan rates from 20 to 100 mV s-1 in 1 M KOH; Cdl from current-density difference versus scan rate.
2024 · Cu/Fe-MOFs based on mixed ligands: Synthesis, crystal structure and electrocatalytic hydrogen evolution performance
Fe-MOF drop-coated glassy carbon electrode · Electrode · Three-electrode system in 1 M KOH; Pt sheet counter electrode; saturated Ag/AgCl reference; MOF/GCE working electrode; LSV scan rate 2 mV s-1; potentials reported vs RHE.
2024 · De Novo Design and Facile Synthesis of Highly Crystalline 2D Conductive Metal-Organic Frameworks: A “Rotor-Stator” Strategy
Cu-DCB-MOF composite cathode electrode for ZHS · Electrode · 2032 coin cell, zinc metal foil//glass fibre//Cu-DCB-MOF cathode in 2 M Zn(CH3COO)2; CV 0.7-1.2 V, scan rates 1-10 mV s-1; GCD at 0.05-10 A g-1.
2024 · Detection of Ascorbic Acid by Two-Dimensional Conductive Metal-Organic Framework-Based Electrochemical Sensors
Cu3(HHTP)2/SPE · Electrode · AA oxidation current compared for Cu3(HHTP)2 dispersion concentrations of 1, 2, 4, and 8 mg/mL on SPE; bar heights read from SI Figure S3.
2024 · Detection of Ascorbic Acid by Two-Dimensional Conductive Metal-Organic Framework-Based Electrochemical Sensors
bare SPE · Electrode · Bare SPE control in AA under the same CV comparison; 0.1 mol/L PBS and 100 mV/s reported for CV tests.
2024 · Detection of Ascorbic Acid by Two-Dimensional Conductive Metal-Organic Framework-Based Electrochemical Sensors
Cu3(HHTP)2/SPE · Electrode · 0.1 mol/L PBS; CV range -1 to 1 V; scan rate 100 mV/s; with or without 1 mM AA; optimised at pH 6 and 4 mg/mL Cu3(HHTP)2.
2024 · Detection of Ascorbic Acid by Two-Dimensional Conductive Metal-Organic Framework-Based Electrochemical Sensors
Cu3(HHTP)2/SPE · Electrode · 0.1 mol/L PBS; DPV range -1 to 1 V; potential increment 0.005 V; pulse amplitude 0.05 V; pulse width 0.3 s; AA concentration range 25-1645 umol/L.
2024 · Detection of Ascorbic Acid by Two-Dimensional Conductive Metal-Organic Framework-Based Electrochemical Sensors
Cu3(HHTP)2/SPE · Electrode · CV tests at different scan rates; Figure 3c visually spans 20-180 mV/s and Figure 3d plots peak current versus v^1/2.
2024 · Detection of Ascorbic Acid by Two-Dimensional Conductive Metal-Organic Framework-Based Electrochemical Sensors
Cu3(HHTP)2/SPE · Electrode · 200 uM AA with 2 mM KCl, Glu, Gly, and CA, respectively; interferences are 10-times AA concentration.
2024 · Diamagnetic Carrier-Doping-Induced Continuous Electronic and Magnetic Crossover in One-Dimensional Coordination Polymers
L4- ligand CV sample · Model · Comparison of L4- ligand with TTF reference.
2024 · Diffusional Electron Transport Coupled to Thermodynamically Driven Electron Transfers in Redox-Conductive Multivariate Metal-Organic Frameworks
Zn(NDI) thin film on FTO · Thin Film · MOF@FTO working electrode; Ar-saturated DMF with 0.1 M KPF6; scan rates 50 mV s-1 in Figure 2 and 10 mV s-1 for integration in SI.
2024 · Diffusional Electron Transport Coupled to Thermodynamically Driven Electron Transfers in Redox-Conductive Multivariate Metal-Organic Frameworks
Zn(NDI)0.2(PMDI)0.8 thin film on FTO · Thin Film · MOF@FTO working electrode; Ar-saturated DMF with 0.1 M KPF6; scan rates 50 mV s-1 in Figure 2 and 10 mV s-1 for integration in SI.
2024 · Diffusional Electron Transport Coupled to Thermodynamically Driven Electron Transfers in Redox-Conductive Multivariate Metal-Organic Frameworks
Zn(NDI)0.5(PMDI)0.5 thin film on FTO · Thin Film · MOF@FTO working electrode; Ar-saturated DMF with 0.1 M KPF6; scan rates 50 mV s-1 in Figure 2 and 10 mV s-1 for integration in SI.
2024 · Diffusional Electron Transport Coupled to Thermodynamically Driven Electron Transfers in Redox-Conductive Multivariate Metal-Organic Frameworks
Zn(NDI)0.8(PMDI)0.2 thin film on FTO · Thin Film · MOF@FTO working electrode; Ar-saturated DMF with 0.1 M KPF6; scan rates 50 mV s-1 in Figure 2 and 10 mV s-1 for integration in SI.
2024 · Diffusional Electron Transport Coupled to Thermodynamically Driven Electron Transfers in Redox-Conductive Multivariate Metal-Organic Frameworks
Zn(PMDI) thin film on FTO · Thin Film · MOF@FTO working electrode; Ar-saturated DMF with 0.1 M KPF6; scan rates 50 mV s-1 in Figure 2 and 10 mV s-1 for integration in SI.
2024 · Direct Electrodeposition of Electrically Conducting Ni3(HITP)2 MOF Nanostructures for Micro-Supercapacitor Integration
Bare Pt/Pt interdigitated microelectrode · Electrode · Bare and Ni3(HITP)2-coated microelectrodes compared; CV at 5 V s-1, 0-1 V in 1.0 M KOH; EIS 1 Hz to 200 kHz, 5 mV amplitude.
2024 · Direct Electrodeposition of Electrically Conducting Ni3(HITP)2 MOF Nanostructures for Micro-Supercapacitor Integration
Potentiostatic Ni3(HITP)2 film from H2O-DMF-DMA bath · Thin Film · H2O-DMF-DMA mixed-solvent bath, scan rate 10 mV s-1 vs Ag wire; cycles 1-5 shown.
2024 · Direct Electrodeposition of Electrically Conducting Ni3(HITP)2 MOF Nanostructures for Micro-Supercapacitor Integration
Ni3(HITP)2 deposits on ITO from cyclic-voltammetry electrodeposition · Thin Film · ITO working electrode, scan rate 10 mV s-1, potential window -0.5 to 1.0 V vs Ag pseudo-reference; MeOH-DMSO component screening in glovebox.
2024 · Direct Electrodeposition of Electrically Conducting Ni3(HITP)2 MOF Nanostructures for Micro-Supercapacitor Integration
Ni3(HITP)2-coated Pt/Pt interdigitated micro-supercapacitor · Electrode · 1.0 M KOH aqueous electrolyte; voltage windows 0-0.5 V, 0-0.8 V and 0-1.0 V depending on test; scan rates 1-20 V s-1 in SI methods, main data show 1, 2, 5 and 10 V s-1.
2024 · Direct Electrodeposition of Electrically Conducting Ni3(HITP)2 MOF Nanostructures for Micro-Supercapacitor Integration
Ni3(HITP)2-coated Pt/Pt interdigitated micro-supercapacitor · Electrode · 1000 CV cycles at 5 V s-1 in voltage windows 0-0.5 V and 0-0.8 V.
2024 · Efficient oxygen evolution using conductive cobalt-based metal-organic framework
Co3O4 control catalyst ink on conductive carbon paper · Electrode · CVs recorded at scan rates from 25 to 200 mV s-1 to estimate electrochemically active surface area.
2024 · Efficient oxygen evolution using conductive cobalt-based metal-organic framework
Co-BTB catalyst ink on conductive carbon paper · Electrode · CVs recorded at scan rates from 25 to 200 mV s-1 to estimate electrochemically active surface area.
2024 · Efficient oxygen evolution using conductive cobalt-based metal-organic framework
Co3O4 control catalyst ink on conductive carbon paper · Electrode · Co3O4 control electrode measured under identical 1 M KOH conditions.
2024 · Efficient oxygen evolution using conductive cobalt-based metal-organic framework
Co-BTB catalyst ink on conductive carbon paper · Electrode · Three-electrode cell in 1 M KOH; saturated Ag/AgCl reference electrode, graphite rod counter electrode, carbon-paper working electrode.
2024 · Efficient oxygen evolution using conductive cobalt-based metal-organic framework
IrO2 benchmark electrode · Electrode · Benchmark IrO2 electrode measured under identical 1 M KOH conditions.
2024 · Electrochemical Capacitance Traces with Interlayer Spacing in Two-dimensional Conductive Metal–Organic Frameworks
Bu-MOF 9:1 c-MOF/carbon electrode · Electrode · Three-electrode Swagelok cell; c-MOF/conductive carbon 9:1 on Ni foam; activated carbon counter; Ag-wire pseudo-reference; 1 M LiTFSI in ACN; capacitance from CV scans.
2024 · Electrochemical Capacitance Traces with Interlayer Spacing in Two-dimensional Conductive Metal–Organic Frameworks
Et-MOF 9:1 c-MOF/carbon electrode · Electrode · Three-electrode Swagelok cell; c-MOF/conductive carbon 9:1 on Ni foam; activated carbon counter; Ag-wire pseudo-reference; 1 M LiTFSI in ACN; capacitance from CV scans.
2024 · Electrochemical Capacitance Traces with Interlayer Spacing in Two-dimensional Conductive Metal–Organic Frameworks
H-MOF 9:1 c-MOF/carbon electrode · Electrode · Three-electrode Swagelok cell; c-MOF/conductive carbon 9:1 on Ni foam; activated carbon counter; Ag-wire pseudo-reference; 1 M LiTFSI in ACN; capacitance from CV scans.
2024 · Electrochemical Capacitance Traces with Interlayer Spacing in Two-dimensional Conductive Metal–Organic Frameworks
Pent-MOF 9:1 c-MOF/carbon electrode · Electrode · Three-electrode Swagelok cell; c-MOF/conductive carbon 9:1 on Ni foam; activated carbon counter; Ag-wire pseudo-reference; 1 M LiTFSI in ACN; capacitance from CV scans.
2024 · Electrochemical Capacitance Traces with Interlayer Spacing in Two-dimensional Conductive Metal–Organic Frameworks
H-/Et-/Bu-/Pent-MOF electrochemical electrode series · Electrode · CV sweeps from 0.2 to -0.4 V at 5 mV/s compared for H-, Et-, Bu-, and Pent-MOF electrodes.
2024 · Electrochemical investigation of copper 1D conductive polymer for hybrid supercapacitor applications
Cu-PDA-MOF working electrode on nickel foam · Electrode · Origalys/OrigaFlex workstation; 1 M KOH electrolyte; scan rates 5-40 mV/s; potential window 0-0.7 V vs Ag/AgCl.
2024 · Electrochemical investigation of copper 1D conductive polymer for hybrid supercapacitor applications
Cu-PDA-MOF//AC hybrid device · Electrode · Potential window 0-1.6 V; scan rates 5-100 mV/s.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Ni2.1Cu0.9(HITP)2 film on carbon cloth · Electrode · CV scan rates from 10 to 50 mV s-1; Cdl from DeltaJ slope; ECSA calculated assuming 40 uF cm-2 plane capacitance.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Cu3(HITP)2 film on carbon cloth · Electrode · CV scan rates from 10 to 50 mV s-1; Cdl from DeltaJ slope; ECSA calculated assuming 40 uF cm-2 plane capacitance.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Ni1.6Cu1.4(HITP)2 film on carbon cloth · Electrode · CV scan rates from 10 to 50 mV s-1; Cdl from DeltaJ slope; ECSA calculated assuming 40 uF cm-2 plane capacitance.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Ni2.1Cu0.9(HITP)2 film on carbon cloth · Electrode · CV scan rates from 10 to 50 mV s-1; Cdl from DeltaJ slope; ECSA calculated assuming 40 uF cm-2 plane capacitance.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Ni2.3Cu0.7(HITP)2 film on carbon cloth · Electrode · CV scan rates from 10 to 50 mV s-1; Cdl from DeltaJ slope; ECSA calculated assuming 40 uF cm-2 plane capacitance.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Ni3(HITP)2 film on carbon cloth · Electrode · CV scan rates from 10 to 50 mV s-1; Cdl from DeltaJ slope; ECSA calculated assuming 40 uF cm-2 plane capacitance.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Ni2.1Cu0.9(HITP)2 film on carbon cloth · Electrode · Three-electrode ORR testing at room temperature; M3(HITP)2/carbon cloth working electrode, SCE reference, carbon rod counter, 5 mV s-1 scan, potentials vs RHE.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Cu3(HITP)2 film on carbon cloth · Electrode · Three-electrode ORR testing at room temperature; M3(HITP)2/carbon cloth working electrode, SCE reference, carbon rod counter, 5 mV s-1 scan, potentials vs RHE.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Ni1.6Cu1.4(HITP)2 film on carbon cloth · Electrode · Three-electrode ORR testing at room temperature; M3(HITP)2/carbon cloth working electrode, SCE reference, carbon rod counter, 5 mV s-1 scan, potentials vs RHE.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Ni2.1Cu0.9(HITP)2 film on carbon cloth · Electrode · Three-electrode ORR testing at room temperature; M3(HITP)2/carbon cloth working electrode, SCE reference, carbon rod counter, 5 mV s-1 scan, potentials vs RHE.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Ni2.3Cu0.7(HITP)2 film on carbon cloth · Electrode · Three-electrode ORR testing at room temperature; M3(HITP)2/carbon cloth working electrode, SCE reference, carbon rod counter, 5 mV s-1 scan, potentials vs RHE.
2024 · Electrodeposition of Ni/Cu Bimetallic Conductive Metal–Organic Frameworks Electrocatalysts with Boosted Oxygen Reduction Activity for Zinc–Air Batteries
Ni3(HITP)2 film on carbon cloth · Electrode · Three-electrode ORR testing at room temperature; M3(HITP)2/carbon cloth working electrode, SCE reference, carbon rod counter, 5 mV s-1 scan, potentials vs RHE.
2024 · Electrosynthesis of a Nickel-Based Conductive Metal-Organic Framework with Controlled Morphology for Enhanced Capacitance
Ni-HHTP comparative sample set · Unknown · Three-electrode cell with degassed 0.1 M TEBF4 in acetonitrile, nonaqueous Ag/Ag+ reference and Pt counter electrode; capacitance compared at 100 mV s-1.
2024 · Electrosynthesis of a Nickel-Based Conductive Metal-Organic Framework with Controlled Morphology for Enhanced Capacitance
Ni-HHTP comparative sample set · Unknown · Ni-HHTP-Flower and Ni-HHTP-Disc cycled up to 100 cycles in 0.1 M TEBF4 in acetonitrile.
2024 · Fabrication of high-performance supercapacitor of surface-engineered ZIF-8 for energy storage applications
Ag@ZIF-8/AC hybrid supercapacitor · Electrode · AC anode supporting data: CV at 20 mV s-1 and GCD at 1 A g-1 current density from SI Fig. S1.
2024 · Fabrication of high-performance supercapacitor of surface-engineered ZIF-8 for energy storage applications
2-Ag@ZIF-8/Ni foam working electrode · Electrode · 3 M KOH electrolyte; comparison at 10 mV s-1 and scan-rate series from 10 to 100 mV s-1 shown in Fig. 5.
2024 · Glucose sensing performance of bimetallic MOFs CoFe-ZIF/CC for enzyme-free saliva sensor applications
Co0.95Fe0.05-ZIF/CC/GCE electrode · Electrode · 0.10 M NaOH electrolyte, 0.00-0.60 V, room temperature, three-electrode cell with GCE working electrode, Pt counter, Ag/AgCl reference; scan rate 20 mV s-1 for comparison in absence/presence of 500 uM glucose.
2024 · Glucose sensing performance of bimetallic MOFs CoFe-ZIF/CC for enzyme-free saliva sensor applications
Co0.95Fe0.05-ZIF/CC/GCE electrode · Electrode · Co0.95Fe0.05-ZIF/CC/GCE CV curves at scan rates 10, 20, 30, 40, 60 and 80 mV s-1.
2024 · High-performance hybrid supercapacitors enabled by CoTe@CoFeTe double-shelled nanocubes
Activated carbon electrode · Electrode · Activated carbon electrode tested from 1 to 54 A g-1 and 10 to 50 mV s-1.
2024 · High-performance hybrid supercapacitors enabled by CoTe@CoFeTe double-shelled nanocubes
AC//CoTe@CoFeTe device · Electrode · AC anode and CoTe@CoFeTe cathode in 6 M KOH; voltage window optimised to 1.60 V.
2024 · High-performance hybrid supercapacitors enabled by CoTe@CoFeTe double-shelled nanocubes
control electrodes on nickel foam · Electrode · 6 M KOH; Hg/HgO reference; Pt foil counter; active material/acetylene black/PTFE 8:1:1 on nickel foam; 4.0 mg loading.
2024 · High-performance hybrid supercapacitors enabled by CoTe@CoFeTe double-shelled nanocubes
CoTe@CoFeTe working electrode · Electrode · 6 M KOH; Hg/HgO reference; Pt foil counter; CoTe@CoFeTe electrode on nickel foam.
2024 · In-situ growth of electrically conductive MOFs in wood cellulose scaffold for flexible, robust and hydrophobic membranes with improved electrochemical performance
50%-NiCAT@TOW membrane · Thin Film · Three-electrode setup in aqueous 3 M KCl; Ag/AgCl reference and Pt counter; 0 to 0.5 V voltage window; scan rates 5-200 mV s-1.
2024 · Laccase-inspired bi-amino acid MOFs with high substrate affinity: Catalytic deposition induced “signal-down” electrochemical response towards PD-L1
PD-L1 sandwich sensor on gold electrode · Electrode · CV curves of step-by-step sensor construction and signal amplification.
2024 · Layered coordination polymer with two-dimensional covalent bismuth-organic networks: Semiconductor and lithium ion storage
Bi-DSBDC-DMA composite electrode · Electrode · BioLogic electrochemical workstation; 0.1 to 3.0 V vs Li+/Li; scan rate 0.1 mV/s.
2024 · Macrocyclic ligand-driven ion selectivity and high surface area in a 2D conductive MOF
Cu-EP/Super P/PTFE modified glassy carbon electrode · Electrode · 100-500 mV/s in 0.40-0.45 V versus Ag/Ag+ non-faradaic window in 1 M Na2CO3
2024 · Macrocyclic ligand-driven ion selectivity and high surface area in a 2D conductive MOF
Cu-EP/Super P/PTFE modified glassy carbon electrode · Electrode · 1 M aqueous Na2CO3; modified GCE; Ag/Ag+ reference; Pt counter; scan rate 10 mV/s for main CV
2024 · Macrocyclic ligand-driven ion selectivity and high surface area in a 2D conductive MOF
Cu-HHTC/Super P/PTFE modified glassy carbon electrode · Electrode · 100-500 mV/s in 0.40-0.45 V versus Ag/Ag+ non-faradaic window in 1 M Na2CO3
2024 · Macrocyclic ligand-driven ion selectivity and high surface area in a 2D conductive MOF
Cu-HHTC/Super P/PTFE modified glassy carbon electrode · Electrode · 1 M aqueous Na2CO3; modified GCE; Ag/Ag+ reference; Pt counter; scan rate 10 mV/s for main CV
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Co-Try MOF graphite paste electrode · Electrode · Single-metal MOF comparator CV over 0.01-0.5 V/s in SI; main Fig. 11 compares 0.01 V/s traces with mixed-metal MOFs.
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Try MOF graphite paste electrode (E) · Electrode · 0.1 N HCl; scan rates 0.01-0.5 V s^-1; potential window -0.15 to 0.6 V; Pt counter; Ag reference
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Try MOF graphite paste electrode (E) · Electrode · Mobility calculated from diffusion coefficient and Randles-Sevcik relation; below 0.1 cm^2 V^-1 s^-1 interpreted as hopping transport
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Er-Try MOF graphite paste electrode · Electrode · Single-metal MOF comparator CV over 0.01-0.5 V/s in SI; main Fig. 11 compares 0.01 V/s traces with mixed-metal MOFs.
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Co-Try MOF graphite paste electrode (P1) · Electrode · 0.1 N HCl; scan rates 0.01-0.5 V s^-1; potential window -0.15 to 0.6 V; Pt counter; Ag reference
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Co-Try MOF graphite paste electrode (P1) · Electrode · 1 M KOH according to text; room temperature; scan rate 5 mV s^-1
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Co-Try MOF graphite paste electrode (P1) · Electrode · Mobility calculated from diffusion coefficient and Randles-Sevcik relation; below 0.1 cm^2 V^-1 s^-1 interpreted as hopping transport
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Co-Try MOF graphite paste electrode (P1) · Electrode · 0.1 M KOH according to Fig. 12 caption; scan rate 5 mV s^-1
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Zn-Try MOF graphite paste electrode (P2) · Electrode · 0.1 N HCl; scan rates 0.01-0.5 V s^-1; potential window -0.15 to 0.6 V; Pt counter; Ag reference
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Zn-Try MOF graphite paste electrode (P2) · Electrode · 1 M KOH according to text; room temperature; scan rate 5 mV s^-1
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Zn-Try MOF graphite paste electrode (P2) · Electrode · Mobility calculated from diffusion coefficient and Randles-Sevcik relation; below 0.1 cm^2 V^-1 s^-1 interpreted as hopping transport
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Zn-Try MOF graphite paste electrode (P2) · Electrode · 0.1 M KOH according to Fig. 12 caption; scan rate 5 mV s^-1
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Er-Try MOF graphite paste electrode (P3) · Electrode · 0.1 N HCl; scan rates 0.01-0.5 V s^-1; potential window -0.15 to 0.6 V; Pt counter; Ag reference
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Er-Try MOF graphite paste electrode (P3) · Electrode · 1 M KOH according to text; room temperature; scan rate 5 mV s^-1
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Er-Try MOF graphite paste electrode (P3) · Electrode · Mobility calculated from diffusion coefficient and Randles-Sevcik relation; below 0.1 cm^2 V^-1 s^-1 interpreted as hopping transport
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Er-Try MOF graphite paste electrode (P3) · Electrode · 0.1 M KOH according to Fig. 12 caption; scan rate 5 mV s^-1
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Yb-Try MOF graphite paste electrode (P4) · Electrode · 0.1 N HCl; scan rates 0.01-0.5 V s^-1; potential window -0.15 to 0.6 V; Pt counter; Ag reference
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Yb-Try MOF graphite paste electrode (P4) · Electrode · 1 M KOH according to text; room temperature; scan rate 5 mV s^-1
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Yb-Try MOF graphite paste electrode (P4) · Electrode · Mobility calculated from diffusion coefficient and Randles-Sevcik relation; below 0.1 cm^2 V^-1 s^-1 interpreted as hopping transport
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Cu-Yb-Try MOF graphite paste electrode (P4) · Electrode · 0.1 M KOH according to Fig. 12 caption; scan rate 5 mV s^-1
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Thermally treated P1-P4 MOF set · Electrode · As-synthesised P1-P4 compared with samples thermally treated at 280 C and 580 C; potential window -0.1 to 1.2 V
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Yb-Try MOF graphite paste electrode · Electrode · Single-metal MOF comparator CV over 0.01-0.5 V/s in SI; main Fig. 11 compares 0.01 V/s traces with mixed-metal MOFs.
2024 · Mixed metal conductive MOFs constructed from Trypan blue linked metal nodes: characteristic features and electrochemical performance
Zn-Try MOF graphite paste electrode · Electrode · Single-metal MOF comparator CV over 0.01-0.5 V/s in SI; main Fig. 11 compares 0.01 V/s traces with mixed-metal MOFs.
2024 · Molecular-Level Pore Tuning in 2D Conductive Metal-Organic Frameworks for Advanced Supercapacitor Performance
Free-standing Cu3(HHTATP)2 composite electrode · Electrode · Free-standing composite working electrode, Pt counter, Ag/AgCl reference; 25 C; CV -0.4 to 0.5 V at 1-100 mV s-1; GCD 0.2-8 A g-1; EIS 10 mHz-100 kHz, 10 mV AC.
2024 · Molecular-Level Pore Tuning in 2D Conductive Metal-Organic Frameworks for Advanced Supercapacitor Performance
Free-standing Cu3(HHTP)2 composite electrode control · Electrode · Same electrolyte and electrode geometry as target; used as control.
2024 · Morphology Control of Mixed Metallic Organic Framework for High-Performance Hybrid Supercapacitors
Benzoic Acid-80 · Electrode · Benzoic acid-60/80/100 comparison, including rate capability and ESR.
2024 · Morphology Control of Mixed Metallic Organic Framework for High-Performance Hybrid Supercapacitors
H2BDC-80 · Electrode · H2BDC-60/80/100 comparison, including maximum areal capacity, rate capability and ESR.
2024 · Morphology Control of Mixed Metallic Organic Framework for High-Performance Hybrid Supercapacitors
H3BTC-100 · Electrode · H3BTC-60/80/100 comparison, including maximum specific capacity, rate capability and ESR.
2024 · Morphology Control of Mixed Metallic Organic Framework for High-Performance Hybrid Supercapacitors
H2BDC-80//3D NCF/Cu hybrid supercapacitor · Unknown · 2 M KOH; positive H2BDC-80 electrode and 3D NCF/Cu negative electrode; potential window optimised to 1.54 V.
2024 · Morphology Control of Mixed Metallic Organic Framework for High-Performance Hybrid Supercapacitors
Slurry-based H2BDC-80 electrode · Electrode · CV at 5 mV s-1; EIS fitted to extract Rs and Rct.
2024 · Morphology Control of Mixed Metallic Organic Framework for High-Performance Hybrid Supercapacitors
Benzoic Acid-80 · Electrode · 2 M KOH electrolyte; as-synthesised electrode working, Pt plate counter, Hg/HgO reference; CV -0.1 to 0.6 V.
2024 · Morphology Control of Mixed Metallic Organic Framework for High-Performance Hybrid Supercapacitors
H2BDC-80 · Electrode · 2 M KOH electrolyte; as-synthesised electrode working, Pt plate counter, Hg/HgO reference; CV -0.1 to 0.6 V.
2024 · Morphology Control of Mixed Metallic Organic Framework for High-Performance Hybrid Supercapacitors
H3BTC-100 · Electrode · 2 M KOH electrolyte; as-synthesised electrode working, Pt plate counter, Hg/HgO reference; CV -0.1 to 0.6 V.
2024 · Morphology-driven electrochemical attributes of Cu-MOF: a high-performance anodic material for battery supercapacitor hybrids
Q1 Cu-MOF composite working electrode · Electrode · 1 M KOH electrolyte; potential range 0-0.7 V vs Hg/HgO; room temperature; scan rates 3-50 mV s^-1 shown.
2024 · Morphology-driven electrochemical attributes of Cu-MOF: a high-performance anodic material for battery supercapacitor hybrids
Q2 Cu-MOF composite working electrode · Electrode · 1 M KOH electrolyte; potential range 0-0.7 V vs Hg/HgO; room temperature; scan rates 3-50 mV s^-1 shown.
2024 · Morphology-driven electrochemical attributes of Cu-MOF: a high-performance anodic material for battery supercapacitor hybrids
bare nickel foam current collector · Electrode · Q2 electrode and bare Ni-foam compared at 3 mV s^-1.
2024 · Morphology-driven electrochemical attributes of Cu-MOF: a high-performance anodic material for battery supercapacitor hybrids
Q2 Cu-MOF//activated carbon hybrid device · Electrode · Potential sweep rates 3-100 mV s^-1; operational device window 0-1.7 V.
2024 · Multimetallic Prussian Blue Analogue Nanoparticles for Oxygen Evolution Reaction and Efficient Benzyl Alcohol Oxidation
MnFeCoNiCu-PBA@carbon cloth working electrode · Electrode · 1.0 M aqueous KOH with 0.1 M benzyl alcohol, pH 13.8, three-electrode cell, 70% iR correction
2024 · Multimetallic Prussian Blue Analogue Nanoparticles for Oxygen Evolution Reaction and Efficient Benzyl Alcohol Oxidation
MnFeCoNiCu-PBA@carbon cloth working electrode · Electrode · 1.0 M aqueous KOH, pH 13.8, three-electrode cell, 70% iR correction; PBA@CC working electrode, graphite carbon rod counter electrode, Ag/AgCl reference
2024 · NiCo-MOFs in situ anchored on graphdiyne with metal-like properties form a strongly coupled electron transport interface and construct an ohmic contact to achieve efficient charge-hole spatial separation
NCCG-15 · Powder · electrochemical workstation VersaSTAT4-400; comparative curves for CG, NC, and NCCG-15
2024 · Novel 2D CuFe-MOF-based immunoprobe: Addressing antifouling electrochemical immunosensing inadequate sensitivity challenge
GCE-Gel-Ab1-Antigen-Probe immunosensor · Electrode · 10 mM PBS including 0.1 M KCl, pH 7.4; sequential GCE, GCE-Gel, GCE-Gel-Ab1, GCE-Gel-Ab1-Antigen, GCE-Gel-Ab1-Antigen-Probe.
2024 · Novel 2D CuFe-MOF-based immunoprobe: Addressing antifouling electrochemical immunosensing inadequate sensitivity challenge
2D CuFe-MOF · Nanosheet · Scan rates 10-500 mV s-1 in 1 mM K3[Fe(CN)6] containing 0.1 M KCl; Randles-Sevcik equation.
2024 · Novel 2D CuFe-MOF-based immunoprobe: Addressing antifouling electrochemical immunosensing inadequate sensitivity challenge
GCE-Gel-Ab1-Antigen-Probe immunosensor · Electrode · Five same-batch electrodes; weekly stability for 7 weeks; interferents CA19-9, IgG, PSA, CEA and NSE.
2024 · Novel 2D CuFe-MOF-based immunoprobe: Addressing antifouling electrochemical immunosensing inadequate sensitivity challenge
GCE-Gel-Ab1-Antigen-Probe immunosensor · Electrode · SWV from -0.5 to 0 V versus Ag/AgCl after SCCA immunorecognition and H2O2 cascade reaction.
2024 · Novel electrochemical sensing strategy for ultrasensitive detection of tetracycline based on porphyrin/metal phthalocyanine-covalent organic framework
TC/Apt/CuTAPc-TFPP-COF/GCE · Electrode · CV comparison for fabrication stages under the same electrolyte conditions as Fig. 4.
2024 · Novel electrochemical sensing strategy for ultrasensitive detection of tetracycline based on porphyrin/metal phthalocyanine-covalent organic framework
Apt/CuTAPc-TFPP-COF/GCE · Electrode · Three-electrode system with modified GCE working electrode, Ag/AgCl reference, Pt counter. EIS in phosphate buffer with 5 mM [Fe(CN)6]3-/4-, 0.14 M NaCl, 0.1 M KCl at 0.21 V, 100 kHz to 0.1 Hz, 5 mV amplitude. CV from -0.2 to 0.8 V at 50 mV s-1.
2024 · Ordered layered manganese-based metal–organic frameworks induce 2D growth of discharge products via LiO2 adsorbent for high performance lithium–oxygen batteries
Mn-MOF-140 C air cathode · Electrode · LOB air electrode working electrode, lithium foil auxiliary/reference, 2.0-4.5 V window, scan rate 0.1 mV/s
2024 · Ordered layered manganese-based metal–organic frameworks induce 2D growth of discharge products via LiO2 adsorbent for high performance lithium–oxygen batteries
Mn-MOF-140 C air cathode · Electrode · standard three-electrode system in 1 M KOH alkaline conditions
2024 · Organic Solvent Boosts Charge Storage and Charging Dynamics of Conductive MOF Supercapacitors
binder-free Ni3(HITP)2 MOF pellet electrode · Electrode · Two-electrode Ar-glovebox cell; Biologic VMP-3e; pure [Bmim][PF6] and [Bmim][PF6]/ACN electrolytes; CV scan rates 50, 20, 10, 5 mV s-1; GCD current densities 2, 1, 0.5, 0.1 A g-1.
2024 · Rational design of sulfur vacancy-rich NiCo2S4/C nanostructure for high-performance hybrid supercapacitors
NCSC//AC HSC device · Electrode · NCSC positive electrode and AC negative electrode; voltage window optimised to 1.6 V; capacitance from total active mass.
2024 · Rational design of sulfur vacancy-rich NiCo2S4/C nanostructure for high-performance hybrid supercapacitors
NCSC working electrode · Electrode · CV scan rates 5-100 mV s-1; log(i) versus log(v) b-value analysis and capacitive contribution fitting.
2024 · Rational design of sulfur vacancy-rich NiCo2S4/C nanostructure for high-performance hybrid supercapacitors
NCO working electrode · Electrode · 6 M KOH aqueous electrolyte; Hg/HgO reference; Pt counter; potential window 0-0.5 V.
2024 · Rational design of sulfur vacancy-rich NiCo2S4/C nanostructure for high-performance hybrid supercapacitors
NCS working electrode · Electrode · 6 M KOH aqueous electrolyte; Hg/HgO reference; Pt counter; potential window 0-0.5 V.
2024 · Rational design of sulfur vacancy-rich NiCo2S4/C nanostructure for high-performance hybrid supercapacitors
NCSC working electrode · Electrode · 6 M KOH aqueous electrolyte; Hg/HgO reference; Pt counter; potential window 0-0.5 V; active-material loading 1 mg cm-2.
2024 · Reaction-Type-Dependent Behavior of Redox-Hopping in MOFs─Does Charge Transport Have a Preferred Direction?
Ru-NU-1000 film on FTO · Electrode · 0.1 M TBAPF6 in acetonitrile; scan from open circuit to 2.0 V vs Ag/AgNO3; period 30 ms, width 50 ms, height 50 mV, increment 5 mV.
2024 · Reaction-Type-Dependent Behavior of Redox-Hopping in MOFs─Does Charge Transport Have a Preferred Direction?
Ru-NU-1000 film on FTO · Electrode · 0.1 M TBAPF6 in acetonitrile; scan from open circuit to -2.2 V vs Ag/AgNO3; period 30 ms, width 50 ms, height 50 mV, increment 5 mV.
2024 · Reaction-Type-Dependent Behavior of Redox-Hopping in MOFs─Does Charge Transport Have a Preferred Direction?
Pristine NU-1000 electrochemical control on FTO · Electrode · 0.1 M TBAPF6 in acetonitrile; CV scan rate 100 mV/s; DPV period 30 ms, width 50 ms, height 50 mV, increment 5 mV.
2024 · Reaction-Type-Dependent Behavior of Redox-Hopping in MOFs─Does Charge Transport Have a Preferred Direction?
[RuII(bpy)2(bpy-COOH)](PF6)2 homogeneous solution · Model · Glassy carbon working electrode, Pt wire counter electrode, non-aqueous Ag/AgNO3 reference; 0.1 M TBAPF6 in acetonitrile; scan rate 100 mV/s; potentials converted to Fc/Fc+.
2024 · Redox-active conductive metal-organic framework with high lithium capacities at low temperatures
SKIER-5/Super P/PVDF electrode · Electrode · CV profiles from 0.1 to 1.0 mV s^-1; log(i) versus log(v); capacitive and diffusion-controlled contribution separation
2024 · Redox-active conductive metal-organic framework with high lithium capacities at low temperatures
SKIER-5/Super P/PVDF electrode · Electrode · 1.0 M LiPF6 in EC/DMC 1:1; Li foil counter/reference; 0.01-3.0 V vs Li/Li+; 0.1 mV s^-1
2024 · Regulating Electronic Structure of Bimetallic NiFe-THQ Conductive Metal–Organic Frameworks to Boost Catalytic Activity for Oxygen Evolution Reaction
NixFe1-x-THQ series · Powder · CV in non-Faradaic region 1.223-1.323 V vs RHE at 5, 10, 15, 20, 25 mV s-1; Cs defined as 0.04 mF cm-2.
2024 · Regulating Electronic Structure of Bimetallic NiFe-THQ Conductive Metal–Organic Frameworks to Boost Catalytic Activity for Oxygen Evolution Reaction
NixFe1-x-THQ series · Powder · 1.0 M KOH, three-electrode cell, no iR compensation, LSV scan rate 5 mV s-1; catalyst ink on glassy carbon electrode.
2024 · Revealing the effect of cobalt content and ligand exchange in the bimetallic Ni–Co MOF for stable supercapacitors with high energy density
KNiCoPO4//AC asymmetric supercapacitor · Electrode · KNiCoPO4//AC cell in 2 M NaOH; 0-1.45 V; 1-10 mV s^-1
2024 · Revealing the effect of cobalt content and ligand exchange in the bimetallic Ni–Co MOF for stable supercapacitors with high energy density
KNiCoPO4 working electrode · Electrode · Three-electrode cell, 2 M NaOH, 0-0.45 V, scan-rate series
2024 · Revealing the effect of cobalt content and ligand exchange in the bimetallic Ni–Co MOF for stable supercapacitors with high energy density
MOF-based working electrode comparison series · Electrode · Three-electrode cell, 2 M NaOH, 0-0.45 V vs Ag/AgCl; representative comparative scan at 0.5 mV s^-1
2024 · Reversible Molecule Interactions Enable Ultrastretchable and Recyclable Ionogels for Wearable Piezoionic Sensors
ionogel-based flexible strain sensor · Electrode · Electrochemical testing on CHI660 workstation; detailed traces in SI Figures S7-S8.
2024 · Solid-State Electrochemical Carbon Dioxide Capture by Conductive Metal-Organic Framework Incorporating Nickel Bis(diimine) Units
Ni3(HITP)2 CV electrode on carbon fibre paper · Electrode · Ni3(HITP)2 ink on CFP; tetraethylammonium hexafluorophosphate in acetonitrile; scan rate 10 mV/s; N2 and CO2.
2024 · Solid-State Electrochemical Carbon Dioxide Capture by Conductive Metal-Organic Framework Incorporating Nickel Bis(diimine) Units
Ni(DIB)2 solution electrochemical control · Unknown · 2 mM Ni(DIB)2 in DMF with TBAPF6; three-electrode gastight cell; scan rate 100 mV/s; N2 and CO2.
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Co3O4 · Nanosheet · three-electrode cell in 3 M KOH at different sweep rates
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Co(OH)2 · Nanosheet · three-electrode cell in 3 M KOH at different sweep rates
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
CoP · Nanosheet · three-electrode cell in 3 M KOH at different sweep rates
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Ni-HHTP@Co3O4 · Electrode · three-electrode cell in 3 M KOH; scan rates 10-50 mV s-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Ni-HHTP@Co(OH)2 · Electrode · three-electrode cell in 3 M KOH; scan rates 10-50 mV s-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Ni-HHTP@CoP · Electrode · three-electrode cell in 3 M KOH; scan rates 10-50 mV s-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Ni-HHTP@Co(OH)2//AC · Electrode · Ni-HHTP@Co(OH)2//AC device in 3 M KOH; 0-1.2 V CV; current densities 0.5-5.0 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Ni-HHTP@Co(OH)2 · Electrode · b-value and capacitive/diffusive contribution analysis from CV curves at 10-50 mV s-1
2024 · Synergistic Enhancement of Supercapacitors with Cobalt–Copper Bimetal–Organic Framework
Co-MOF/Ni foam supercapacitor electrode · Electrode · Three-electrode system in 2 M KOH; Ag/AgCl reference, Pt counter, Ni foam working electrode; -0.1 to 0.5 V; scan rates 10-100 mV s-1
2024 · Synergistic Enhancement of Supercapacitors with Cobalt–Copper Bimetal–Organic Framework
CoCu-MOF/Ni foam supercapacitor electrode · Electrode · Three-electrode system in 2 M KOH; Ag/AgCl reference, Pt counter, Ni foam working electrode; -0.1 to 0.5 V; scan rates 10-100 mV s-1
2024 · Synergistic Enhancement of Supercapacitors with Cobalt–Copper Bimetal–Organic Framework
Cu-MOF/Ni foam supercapacitor electrode · Electrode · Three-electrode system in 2 M KOH; Ag/AgCl reference, Pt counter, Ni foam working electrode; -0.1 to 0.5 V; scan rates 10-100 mV s-1
2024 · Synthesis and structure of anhydrous Zn2EDTA metal-organic framework
Zn2EDTA(H2O) comparison electrode · Electrode · Comparison CV in saturated NaClO4 at 10 mV/s, shown in Fig. 5b with Zn2EDTA(H2O) curve.
2024 · Synthesis and structure of anhydrous Zn2EDTA metal-organic framework
Zn2EDTA(H2O) comparison electrode · Electrode · Comparison CV in 1 M NaOH at 10 mV/s, shown in Fig. 5a with Zn2EDTA(H2O) curve.
2024 · Synthesis and structure of anhydrous Zn2EDTA metal-organic framework
Zn2EDTA composite electrode on graphite foil · Electrode · Neutral saturated NaClO4 electrolyte, potential range -1.8 to -0.2 V, sweep rate 10 mV/s; three-electrode cell.
2024 · Synthesis and structure of anhydrous Zn2EDTA metal-organic framework
Zn2EDTA composite electrode on graphite foil · Electrode · Biologic SP-300 potentiostat-galvanostat; three-electrode cell; 1 M NaOH aqueous electrolyte; 10 mV/s sweep; Ag/AgCl (3.5 M KCl) reference; carbon cloth auxiliary.
2024 · Tri-Metallic Catalyst for Oxygen Evolution Reaction Enables Continuous Operation of Anion Exchange Membrane Electrolyzer at 1A cm−2 for Hundreds of Hours
Co100-2xNixFex MOF-74 composition series · Powder · CV scans at 10, 20, 40, 60, 80 and 100 mV s-1; slope of current density versus scan rate used as Cdl/ECSA proxy.
2024 · Tri-Metallic Catalyst for Oxygen Evolution Reaction Enables Continuous Operation of Anion Exchange Membrane Electrolyzer at 1A cm−2 for Hundreds of Hours
Fe100-2xNixCox MOF-74 composition series · Powder · CV scans at 10, 20, 40, 60, 80 and 100 mV s-1; slope of current density versus scan rate used as Cdl/ECSA proxy.
2024 · Tri-Metallic Catalyst for Oxygen Evolution Reaction Enables Continuous Operation of Anion Exchange Membrane Electrolyzer at 1A cm−2 for Hundreds of Hours
Ni100-2xCoxFex MOF-74 composition series · Powder · CV scans at 10, 20, 40, 60, 80 and 100 mV s-1; slope of current density versus scan rate used as Cdl/ECSA proxy.
2024 · Tri-Metallic Catalyst for Oxygen Evolution Reaction Enables Continuous Operation of Anion Exchange Membrane Electrolyzer at 1A cm−2 for Hundreds of Hours
Co100-2xNixFex MOF-74 composition series · Powder · O2-free 1 M KOH; N2 bubbled at least 45 min; Hg/HgO reference; Pt foil counter; scan rate 5 mV s-1; non-IR-compensated.
2024 · Tri-Metallic Catalyst for Oxygen Evolution Reaction Enables Continuous Operation of Anion Exchange Membrane Electrolyzer at 1A cm−2 for Hundreds of Hours
Fe100-2xNixCox MOF-74 composition series · Powder · O2-free 1 M KOH; N2 bubbled at least 45 min; Hg/HgO reference; Pt foil counter; scan rate 5 mV s-1; non-IR-compensated.
2024 · Tri-Metallic Catalyst for Oxygen Evolution Reaction Enables Continuous Operation of Anion Exchange Membrane Electrolyzer at 1A cm−2 for Hundreds of Hours
Ni100-2xCoxFex MOF-74 composition series · Powder · O2-free 1 M KOH; N2 bubbled at least 45 min; Hg/HgO reference; Pt foil counter; scan rate 5 mV s-1; non-IR-compensated.
2024 · Triazacoronene-Based 2D Conductive Metal–Organic Framework for High-Capacity Lithium Storage
Cu-TAC electrode · Electrode · 0.1 mV s^-1 in 0.01-3.0 V vs Li+/Li.
2024 · Triazacoronene-Based 2D Conductive Metal–Organic Framework for High-Capacity Lithium Storage
Cu-TAC electrode · Electrode · CV scan rates 0.2-1.0 mV s^-1.
2024 · Triazacoronene-Based 2D Conductive Metal–Organic Framework for High-Capacity Lithium Storage
6OH-TAC electrode · Electrode · 6OH-TAC monomer electrode under similar conditions to Cu-TAC; Figures S25-S28 and S30.
2024 · Triggering Anodic Luminol Electrochemiluminescence through Electrostatic Interactions: An Innovative Approach Utilizing Conductive Metal-Organic Framework Co-HHTP
Co-HHTP-modified glassy carbon electrode · Electrode · Three-electrode system in 0.04 M B-R buffer with catalyst-modified GCE; comparison of HHTP, Ni-HHTP and Co-HHTP under air-saturated conditions.
2024 · Unleashing the room temperature boronization: Blooming of Ni-ZIF nanobuds for efficient photo/electro catalysis of water
24-BNZ composite electrode on nickel foam · Electrode · SI Fig. S12 reports Delta V20 at 20 mA cm-2 for NF, NZ, 4-BNZ, 9-BNZ, 24-BNZ and 48-BNZ.
2024 · Unleashing the room temperature boronization: Blooming of Ni-ZIF nanobuds for efficient photo/electro catalysis of water
24-BNZ composite electrode on nickel foam · Electrode · Non-faradaic CV scans at 10, 20, 30, 40 and 50 mV/s; Cdl from positive/negative current fit, ECSA from Cdl/Cs.
2024 · Unleashing the room temperature boronization: Blooming of Ni-ZIF nanobuds for efficient photo/electro catalysis of water
24-BNZ composite electrode on nickel foam · Electrode · SI Fig. S8 tabulates OER and HER onset potentials for NF, NZ, 4-BNZ, 9-BNZ, 24-BNZ and 48-BNZ in alkaline electrolyte.
2024 · Unleashing the room temperature boronization: Blooming of Ni-ZIF nanobuds for efficient photo/electro catalysis of water
24-BNZ composite electrode on nickel foam · Electrode · 1 M KOH, three-electrode cell, same electrode fabrication and RHE calibration; overpotential at 20 mA cm-2.
2024 · Unleashing the room temperature boronization: Blooming of Ni-ZIF nanobuds for efficient photo/electro catalysis of water
24-BNZ composite electrode on nickel foam · Electrode · 1 M KOH, three-electrode cell, Ag/AgCl reference, Pt wire counter, 5 mV/s LSV, RHE calibrated, IR compensated; overpotential at 20 mA cm-2.
2024 · Unleashing the room temperature boronization: Blooming of Ni-ZIF nanobuds for efficient photo/electro catalysis of water
24-BNZ composite electrode on nickel foam · Electrode · Two pieces of 24-BNZ coated NF as cathode and anode in 1 M KOH; 10 mA cm-2 benchmark and 16 h CA.
2024 · Unleashing the room temperature boronization: Blooming of Ni-ZIF nanobuds for efficient photo/electro catalysis of water
24-BNZ composite electrode on nickel foam · Electrode · 24-BNZ on NF as both cathode and anode in 1 M KOH + 0.33 M urea; scan rate 1 mV/s in SI Fig. S13.
2024 · Upgrading Structural Conjugation in Three-Dimensional Ni-Based Metal-Organic Frameworks for Promoting Electrical Conductivity and Specific Capacitance
Ni-BPE/Ni foam working electrode · Electrode · Power-law b-value analysis and diffusion/capacitive contribution separation from CV scans 10-50 mV s-1
2024 · Upgrading Structural Conjugation in Three-Dimensional Ni-Based Metal-Organic Frameworks for Promoting Electrical Conductivity and Specific Capacitance
Ni-BPY/Ni foam working electrode · Electrode · Power-law b-value analysis and diffusion/capacitive contribution separation from CV scans 10-50 mV s-1
2024 · Upgrading Structural Conjugation in Three-Dimensional Ni-Based Metal-Organic Frameworks for Promoting Electrical Conductivity and Specific Capacitance
Ni-BPE/Ni foam working electrode · Electrode · 3 M KOH electrolyte; Pt foil counter electrode; Hg/HgO reference; operating potential 0-0.6 V; CV at 10-50 mV s-1; GCD at 1-10 A g-1
2024 · Upgrading Structural Conjugation in Three-Dimensional Ni-Based Metal-Organic Frameworks for Promoting Electrical Conductivity and Specific Capacitance
Ni-BPY/Ni foam working electrode · Electrode · 3 M KOH electrolyte; Pt foil counter electrode; Hg/HgO reference; operating potential 0-0.6 V; CV/GCD comparison
2024 · Vertical Conductive Metal–Organic Framework Single-Crystalline Nanowire Arrays for Efficient Electrocatalytic Hydrogen Evolution
Ag-MOF-NWs · Single Crystal · Cyclic voltammetry at scan rates 50-150 mV s-1 in the voltage window 0.4-0.5 V for Cdl/ECSA comparison.
2024 · Vertical Conductive Metal–Organic Framework Single-Crystalline Nanowire Arrays for Efficient Electrocatalytic Hydrogen Evolution
Ag-MOF-NWs · Single Crystal · Three-electrode HER test in 0.5 M H2SO4 droplet at ambient temperature; Ag-MOF connected to gold pad working electrode, Ag/AgCl reference, graphite rod counter; LSV scan rate 5 mV s-1.
2024 · Vertical Conductive Metal–Organic Framework Single-Crystalline Nanowire Arrays for Efficient Electrocatalytic Hydrogen Evolution
Ag-MOF-NWs · Single Crystal · 1000 CV cycles, post-HER SEM/Raman/XPS, and Ag-BHT XRD after soaking in 0.5 M H2SO4 for 24 h.
2024 · ZnS/MnO2 metal organic framework based conductive hydrogel for highly selective and sensitive detection of glutathione in serum samples
2 wt% ZnS/MnO2-MOF hydrogel electrode · Electrode · Three-electrode cell on CHI 660E workstation; hydrogel working electrode, platinum counter, Ag/AgCl reference in 0.1 M KCl; 0.1 M KCl with 5 mM Fe(CN)6^3-/4- at pH 7.4; potential range -0.1 to 0.5 V vs Ag/AgCl; with and without 10 nM GSH.
2024 · ZnS/MnO2 metal organic framework based conductive hydrogel for highly selective and sensitive detection of glutathione in serum samples
2 wt% ZnS/MnO2-MOF hydrogel electrode · Electrode · 0.1 M PBS electrolyte with 10 nM GSH; scan rates 10, 30, 50, 70, 90, 110 and 130 mV/s.
2024 · ZnS/MnO2 metal organic framework based conductive hydrogel for highly selective and sensitive detection of glutathione in serum samples
2 wt% ZnS/MnO2-MOF hydrogel electrode · Electrode · GSH sensing in PBS electrolyte solution; concentration range 10 nM to 10 mM; potential window -0.1 to 0.5 V.
2024 · ZnS/MnO2 metal organic framework based conductive hydrogel for highly selective and sensitive detection of glutathione in serum samples
2 wt% ZnS/MnO2-MOF hydrogel electrode · Electrode · Unknown GSH measured first, then known GSH added to electrolyte solution; samples S1, S2 and S3 represent different GSH concentrations; N=5 devices in Fig. 8 caption.
2023 · A Conductive 2D Conjugated Tetrathia[8]circulene-Based Nickel Metal–Organic Framework for Energy Storage
Ni-TTC symmetric solid-state supercapacitor · Electrode · Two identical Ni-TTC carbon-paper electrodes; polyacrylamide hydrogel; 50 uL 1 M KCl; operating window up to 1.2 V
2023 · A Conductive 2D Conjugated Tetrathia[8]circulene-Based Nickel Metal–Organic Framework for Energy Storage
Ni-TTC carbon-paper film electrode · Electrode · 1 M KCl aqueous electrolyte; SCE reference; Pt wire counter; CV -0.5 to 0.5 V vs SCE at 1-100 mV s-1; GCD 0.2-5.0 A g-1
2023 · A Conductive 2D Conjugated Tetrathia[8]circulene-Based Nickel Metal–Organic Framework for Energy Storage
8OH-TTC ligand · Powder · Same condition as Ni-TTC three-electrode CV, used to compare ligand redox activity
2023 · A Conductive Metal−Organic Framework Based on Triptycene Ligand: An Effective Electrochemical Sensor for Glucose and H2O2 Detection in Food and Human Serum
Cu-HHTT/CF working electrode · Electrode · 0.1 M NaOH electrolyte; scan rate 50 mV s^-1; before and after 1 mM glucose; compared with bare CF.
2023 · A Conductive Metal−Organic Framework Based on Triptycene Ligand: An Effective Electrochemical Sensor for Glucose and H2O2 Detection in Food and Human Serum
Cu-HHTT/CF working electrode · Electrode · 1 mM glucose; scan rate varied from 20 to 200 mV s^-1.
2023 · A Conductive Metal−Organic Framework Based on Triptycene Ligand: An Effective Electrochemical Sensor for Glucose and H2O2 Detection in Food and Human Serum
Cu-HHTT/CF working electrode · Electrode · 0.1 M PBS, pH 7.0; potential range -0.7 to +0.4 V; before and after 1 mM H2O2; compared with bare CF.
2023 · A Conductive Metal−Organic Framework Based on Triptycene Ligand: An Effective Electrochemical Sensor for Glucose and H2O2 Detection in Food and Human Serum
Cu-HHTT/CF working electrode · Electrode · 1 mM H2O2; scan rate varied from 20 to 200 mV s^-1.
2023 · A Novel Electrocatalyst Pd(II)@Ni3(HITP)2 for Ultrasensitive Detection of Chloramphenicol: Experimental and Computational Investigation
Pd(II)@Ni3(HITP)2, PdCl2 loading mass 0.05 mL/mg · Powder · CV and DPV in PBS under 200 μM CAP at 50 mV/s for Ni3(HITP)2, PdCl2, Pd(II)@Ni3(HITP)2, and GCE.
2023 · A Novel Electrocatalyst Pd(II)@Ni3(HITP)2 for Ultrasensitive Detection of Chloramphenicol: Experimental and Computational Investigation
Pd(II)@Ni3(HITP)2, PdCl2 loading mass 0.05 mL/mg · Powder · CV measurements under scan rates 5-80 mV/s in 200 μM CAP PBS electrolyte.
2023 · A Novel Electrocatalyst Pd(II)@Ni3(HITP)2 for Ultrasensitive Detection of Chloramphenicol: Experimental and Computational Investigation
Pd(II)@Ni3(HITP)2, PdCl2 loading mass 0.05 mL/mg · Powder · DPV measurements in CAP concentration gradient from 0 to 200 μM; calibration over 0.2 nM to 20 μM.
2023 · A Novel Electrocatalyst Pd(II)@Ni3(HITP)2 for Ultrasensitive Detection of Chloramphenicol: Experimental and Computational Investigation
Pd(II)@Ni3(HITP)2, PdCl2 loading mass 0.05 mL/mg · Powder · DPV peak currents in 200 μM CAP over Pd(II)@Ni3(HITP)2 samples with different PdCl2 loading masses.
2023 · A Novel Electrocatalyst Pd(II)@Ni3(HITP)2 for Ultrasensitive Detection of Chloramphenicol: Experimental and Computational Investigation
Pd(II)@Ni3(HITP)2, PdCl2 loading mass 0.05 mL/mg · Powder · DPV with pH 3-11 and interfering substances in 200 μM CAP.
2023 · A Novel Electrocatalyst Pd(II)@Ni3(HITP)2 for Ultrasensitive Detection of Chloramphenicol: Experimental and Computational Investigation
Pd(II)@Ni3(HITP)2, PdCl2 loading mass 0.05 mL/mg · Powder · 10 repeated DPV cycles under 50 mV/s in 200 μM CAP PBS electrolyte.
2023 · A Novel Electrocatalyst Pd(II)@Ni3(HITP)2 for Ultrasensitive Detection of Chloramphenicol: Experimental and Computational Investigation
Pd(II)@Ni3(HITP)2, PdCl2 loading mass 0.05 mL/mg · Powder · DPV after supernate storage for 1 month and modified electrode storage for 7 days in air.
2023 · A Novel Electrocatalyst Pd(II)@Ni3(HITP)2 for Ultrasensitive Detection of Chloramphenicol: Experimental and Computational Investigation
Pd(II)@Ni3(HITP)2, PdCl2 loading mass 0.076 mL/mg · Powder · EIS, DPV, and CV for lower and higher PdCl2 loading variants.
2023 · A Pyrazine-Based 2D Conductive Metal-Organic Framework for Efficient Lithium Storage†
Conductive carbon black control electrode · Electrode · CV at 0.2 mV s-1 and capacity contribution at 20 mA g-1.
2023 · A Pyrazine-Based 2D Conductive Metal-Organic Framework for Efficient Lithium Storage†
TPQG-Cu-MOF composite cathode on carbon-coated aluminium foil · Electrode · R2032 cell with Li metal counter electrode, Celgard 2325 separator, 1 mol/L LiTFSI in DOL/DME 1:1; CV window 1.3-3.8 V vs Li/Li+ at 0.2 mV s-1; GCD at 20 mAh g-1.
2023 · A simplistic approach for the synthesis of Covalent Organic Frameworks(COFs) comprising of tetrafunctionalized porphyrin and polyoxometalates to uncover catalytic applications
P@Cu-AndCOF bulk solid · Powder · DMF/CH3CN (v/v = 1:1) solution; Ag/AgCl reference electrode; Fc+/Fc internal standard.
2023 · A simplistic approach for the synthesis of Covalent Organic Frameworks(COFs) comprising of tetrafunctionalized porphyrin and polyoxometalates to uncover catalytic applications
P@Ni-AndCOF bulk solid · Powder · DMF/CH3CN (v/v = 1:1) solution; Ag/AgCl reference electrode; Fc+/Fc internal standard.
2023 · A simplistic approach for the synthesis of Covalent Organic Frameworks(COFs) comprising of tetrafunctionalized porphyrin and polyoxometalates to uncover catalytic applications
Tris@ZnP solution/control sample · Unknown · CV in DMF/CH3CN (v/v = 1:1) using Ag/AgCl reference and Fc+/Fc internal standard; UV-vis in DMSO.
2023 · A tribenzocoronene-based 2D conductive metal-organic framework for efficient energy storage
6OH-TBC ligand control electrode · Electrode · Control electrochemical performance of ligand; CV at 2 mV s-1; GCD at 1.0 A g-1; cycling at 5 A g-1
2023 · A tribenzocoronene-based 2D conductive metal-organic framework for efficient energy storage
two-electrode asymmetrical Cu-TBC//AC device · Electrode · 0-0.6 V; 0.1 M H2SO4; CV scan rates 2-100 mV s-1; GCD at 0.5-20 A g-1
2023 · A tribenzocoronene-based 2D conductive metal-organic framework for efficient energy storage
Cu-TBC modified glassy carbon electrode · Electrode · 0.1 M H2SO4; Ag/AgCl reference; Pt counter; potential window -0.4 to 0.6 V; scan rates 2-100 mV s-1; GCD current densities 0.2-20 A g-1
2023 · A Triptycene-Based 2D MOF with Vertically Extended Structure for Improving the Electrocatalytic Performance of CO2 to Methane
2D-vc-MOF(Cu) glassy carbon working electrode · Electrode · Two-compartment H-cell, Nafion-117 membrane, CO2-saturated 0.1 M KCl, Pt counter, Ag/AgCl reference; CO2 continuously purged.
2023 · Anionic metal-organic framework modified separator boosting efficient Li-ion transport
UIOSOL@PP separator · Thin Film · Coin cells with stainless steel working electrode and Li counter electrode; scan rate 1.0 mV s-1 between -0.2 and 4.3 V.
2023 · Anionic metal-organic framework modified separator boosting efficient Li-ion transport
UIOSOL@PP separator · Thin Film · Li-steel coin cell, scan speed 1 mV s-1 from initial voltage to 4.3 V; electrolyte EC/EMC/DMC 1:1:1 with 10% FEC.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Por(Co)-MOF · Powder · Cdl estimated from CV in 0.5 M KHCO3, potential window -0.15 to -0.25 V vs RHE, scan rates 10-100 mV s-1.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-MOF · Powder · Cdl estimated from CV in 0.5 M KHCO3, potential window -0.15 to -0.25 V vs RHE, scan rates 10-100 mV s-1.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(1:1) · Powder · Cdl estimated from CV in 0.5 M KHCO3, potential window -0.15 to -0.25 V vs RHE, scan rates 10-100 mV s-1.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(2:1) · Powder · Cdl estimated from CV in 0.5 M KHCO3, potential window -0.15 to -0.25 V vs RHE, scan rates 10-100 mV s-1.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(5:1) · Powder · Cdl estimated from CV in 0.5 M KHCO3, potential window -0.15 to -0.25 V vs RHE, scan rates 10-100 mV s-1.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(9:1) · Powder · Cdl estimated from CV in 0.5 M KHCO3, potential window -0.15 to -0.25 V vs RHE, scan rates 10-100 mV s-1.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Por(Co)-MOF · Powder · CO2-saturated 0.5 M KHCO3; Nafion-117 separated gas-tight H-cell; LSV from 0 to -1.2 V vs RHE at 10 mV s-1; catalyst ink on 1 x 1 cm2 carbon fibre paper.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-MOF · Powder · CO2-saturated 0.5 M KHCO3; Nafion-117 separated gas-tight H-cell; LSV from 0 to -1.2 V vs RHE at 10 mV s-1; catalyst ink on 1 x 1 cm2 carbon fibre paper.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(1:1) · Powder · CO2-saturated 0.5 M KHCO3; Nafion-117 separated gas-tight H-cell; LSV from 0 to -1.2 V vs RHE at 10 mV s-1; catalyst ink on 1 x 1 cm2 carbon fibre paper.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(2:1) · Powder · CO2-saturated 0.5 M KHCO3; Nafion-117 separated gas-tight H-cell; LSV from 0 to -1.2 V vs RHE at 10 mV s-1; catalyst ink on 1 x 1 cm2 carbon fibre paper.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(5:1) · Powder · CO2-saturated 0.5 M KHCO3; Nafion-117 separated gas-tight H-cell; LSV from 0 to -1.2 V vs RHE at 10 mV s-1; catalyst ink on 1 x 1 cm2 carbon fibre paper.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(9:1) · Powder · CO2-saturated 0.5 M KHCO3; Nafion-117 separated gas-tight H-cell; LSV from 0 to -1.2 V vs RHE at 10 mV s-1; catalyst ink on 1 x 1 cm2 carbon fibre paper.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
MOF sample series · Powder · Vg redox potentials E1/E2 measured for four proportional Vg-Por(Co)-MOFs under N2.
2023 · Conductive metal-organic framework flowers facilitate the anchoring and conversion kinetics of polysulfides for lithium‑sulfur batteries
flower-like MIL-47/CNT interlayer · Electrode · Initial CV curves of Li-S battery with MIL-47/CNT interlayer at 0.1 mV s-1.
2023 · Conductive metal-organic framework flowers facilitate the anchoring and conversion kinetics of polysulfides for lithium‑sulfur batteries
MIL-47 powder / nanosheets collected from autoclave · Powder · Symmetric batteries with MIL-47 electrode; LSV and Tafel compared against CNT/glassy carbon controls.
2023 · Conductive metal-organic framework flowers facilitate the anchoring and conversion kinetics of polysulfides for lithium‑sulfur batteries
flower-like MIL-47/CNT interlayer · Electrode · Li-Li symmetric batteries for current-time curves; CV at different scan rates for DLi+ calculation via Randles-Sevcik-type equation.
2023 · Conductive metal-organic frameworks with wheel-shaped metallomacrocycle subunits as high-performance supercapacitor electrodes
NDC//MWM-1 (Co) asymmetric supercapacitor · Electrode · CR2035 button cell; NDC positive electrode, MWM-1(Co) negative electrode, cellulose cloth separator, 6 M KOH
2023 · Conductive metal-organic frameworks with wheel-shaped metallomacrocycle subunits as high-performance supercapacitor electrodes
NDC//MWM-1 (Co/2Ni) asymmetric supercapacitor · Electrode · CR2035 button cell; NDC positive electrode, MWM-1(Co/2Ni) negative electrode, cellulose cloth separator, 6 M KOH
2023 · Conductive metal-organic frameworks with wheel-shaped metallomacrocycle subunits as high-performance supercapacitor electrodes
MWM-1 (Co) composite working electrode · Electrode · 6 M KOH; Ni foam working electrode, Pt needle counter electrode, Hg/HgO reference; CV/GCD at varied scan rates and specific currents; EIS 0.01 Hz-100 kHz
2023 · Conductive metal-organic frameworks with wheel-shaped metallomacrocycle subunits as high-performance supercapacitor electrodes
MWM-1 (Co/2Ni) composite working electrode · Electrode · 6 M KOH; Ni foam working electrode; CV/GCD at varied scan rates and specific currents; EIS 0.01 Hz-100 kHz
2023 · Conductive metal-organic frameworks with wheel-shaped metallomacrocycle subunits as high-performance supercapacitor electrodes
MWM-1 (Co/2Ni) composite working electrode · Electrode · XPS before/after 100 cycles of cyclic voltammetry; in situ Raman during charge/discharge
2023 · Controllable Construction of Two-Dimensional Conductive M3(HHTP)2 Nanorods for Electrochemical Sensing of Malachite Green in Fish
Cu-MOF/CPE electrode · Electrode · CV in 1 M KCl; capacitance from 0.40-0.50 V region.
2023 · Controllable Construction of Two-Dimensional Conductive M3(HHTP)2 Nanorods for Electrochemical Sensing of Malachite Green in Fish
Cu-MOF/CPE electrode · Electrode · Crucians exposed to 1 uM MG bath for 12 h; fish sampled over time; extracted samples measured in 5 mL 0.1 M PBS pH 7.0.
2023 · Controllable Construction of Two-Dimensional Conductive M3(HHTP)2 Nanorods for Electrochemical Sensing of Malachite Green in Fish
Cu-MOF/CPE electrode · Electrode · 0.1 uM MG with K+, Na+, Mg2+, Ca2+, Zn2+, Glu, serine, L-cysteine, UA, XA, HXA, CAP, TET, OTC and ERY interferents.
2023 · Controllable Construction of Two-Dimensional Conductive M3(HHTP)2 Nanorods for Electrochemical Sensing of Malachite Green in Fish
Cu-MOF/CPE electrode · Electrode · 0.1 M PBS, pH 7.0, 200 nM MG; comparison of CPE, Cu-MOF/CPE, Ni-MOF/CPE and Co-MOF/CPE.
2023 · Controllable Construction of Two-Dimensional Conductive M3(HHTP)2 Nanorods for Electrochemical Sensing of Malachite Green in Fish
Cu-MOF/CPE electrode · Electrode · 0.1 M PBS pH 7.0; peak MG current versus concentration without ratiometric normalisation.
2023 · Controllable Construction of Two-Dimensional Conductive M3(HHTP)2 Nanorods for Electrochemical Sensing of Malachite Green in Fish
Cu-MOF/CPE electrode · Electrode · Optimisation of Cu3(HHTP)2:graphite ratio, buffer system, PBS pH and MG accumulation time.
2023 · Controllable Construction of Two-Dimensional Conductive M3(HHTP)2 Nanorods for Electrochemical Sensing of Malachite Green in Fish
Cu-MOF/CPE electrode · Electrode · Cu-MOF/CPE with 5 uM MG in PBS pH 7.0; scan-rate dependence and Epa-ln(v) relation.
2023 · Controllable Construction of Two-Dimensional Conductive M3(HHTP)2 Nanorods for Electrochemical Sensing of Malachite Green in Fish
Cu-MOF/CPE electrode · Electrode · 0.1 M PBS, pH 7.0; MG concentration increased from 5 to 1500 nM; linear ratiometric range 5-1000 nM.
2023 · Controllable Construction of Two-Dimensional Conductive M3(HHTP)2 Nanorods for Electrochemical Sensing of Malachite Green in Fish
Cu-MOF/CPE electrode · Electrode · 5.0 mM K3/K4Fe(CN)6 + 0.1 M KCl for Figure 2F; 1 mM K3[Fe(CN)6] in 0.1 M KCl for effective area scan-rate series.
2023 · Controllable Construction of Two-Dimensional Conductive M3(HHTP)2 Nanorods for Electrochemical Sensing of Malachite Green in Fish
Cu-MOF/CPE electrode · Electrode · 0.1 M PBS pH 7.0 containing 0.5 uM MG; six repeated measurements and six independently prepared electrodes.
2023 · Controllable Construction of Two-Dimensional Conductive M3(HHTP)2 Nanorods for Electrochemical Sensing of Malachite Green in Fish
Cu-MOF/CPE electrode · Electrode · Fishing-pond water measured after filtration and pH adjustment; shrimp samples spiked/immersed with MG standards.
2023 · Copper-cobalt bimetallic conductive metal–organic frameworks as bifunctional oxygen electrocatalyst in alkaline and neutral media
Cu3(HITP)2/Nafion glassy-carbon working electrode · Electrode · Alkaline 0.1 M KOH; oxygen-saturated for ORR/OER after O2 bubbling; LSV at 5 mV s-1; EIS 10^-2 to 10^5 Hz with +/-5 mV amplitude; potentials converted to RHE.
2023 · Copper-cobalt bimetallic conductive metal–organic frameworks as bifunctional oxygen electrocatalyst in alkaline and neutral media
Cu3(HITP)2/Nafion glassy-carbon working electrode · Electrode · Neutral 0.1 M PBS; oxygen-saturated for ORR/OER after O2 bubbling; LSV at 5 mV s-1; EIS 10^-2 to 10^5 Hz with +/-5 mV amplitude; potentials converted to RHE.
2023 · Copper-cobalt bimetallic conductive metal–organic frameworks as bifunctional oxygen electrocatalyst in alkaline and neutral media
CuCo-HITP/Nafion glassy-carbon working electrode · Electrode · Alkaline 0.1 M KOH; oxygen-saturated for ORR/OER after O2 bubbling; LSV at 5 mV s-1; EIS 10^-2 to 10^5 Hz with +/-5 mV amplitude; potentials converted to RHE.
2023 · Copper-cobalt bimetallic conductive metal–organic frameworks as bifunctional oxygen electrocatalyst in alkaline and neutral media
CuCo-HITP/Nafion glassy-carbon working electrode · Electrode · Neutral 0.1 M PBS; oxygen-saturated for ORR/OER after O2 bubbling; LSV at 5 mV s-1; EIS 10^-2 to 10^5 Hz with +/-5 mV amplitude; potentials converted to RHE.
2023 · Creating Dual Active Sites in Conductive Metal-Organic Frameworks for Efficient Water Splitting
RuCo-CAT/CC nanorod arrays · Electrode · HER electrochemically active surface area proxy in alkaline media.
2023 · Creating Dual Active Sites in Conductive Metal-Organic Frameworks for Efficient Water Splitting
RuCo-CAT/CC nanorod arrays · Electrode · HER in N2-saturated 1.0 M KOH; electrolyte degassed by N2 at least 35 min; scan rate 5 mV s^-1; self-supported MOF working electrode, graphite rod counter electrode, Hg/HgO reference electrode.
2023 · Creating Dual Active Sites in Conductive Metal-Organic Frameworks for Efficient Water Splitting
RuCo-CAT/CC nanorod arrays · Electrode · HER stability after 1000 CV cycles and 15 h at 10 mA cm^-2.
2023 · Creating Dual Active Sites in Conductive Metal-Organic Frameworks for Efficient Water Splitting
RuCo-CAT/CC nanorod arrays · Electrode · OER electrochemically active surface area proxy in alkaline media.
2023 · Creating Dual Active Sites in Conductive Metal-Organic Frameworks for Efficient Water Splitting
RuCo-CAT/CC nanorod arrays · Electrode · OER in 1.0 M KOH; commercial RuO2 benchmark under same conditions.
2023 · Creating Dual Active Sites in Conductive Metal-Organic Frameworks for Efficient Water Splitting
RuCo-CAT/CC nanorod arrays · Electrode · OER stability after 1000 CV cycles and 15 h at 10 mA cm^-2.
2023 · Cu/Co bimetallic conductive MOFs: Electronic modulation for enhanced nitrate reduction to ammonia
CoHHTP/SCCB/Nafion on carbon cloth electrode · Electrode · Non-Faradaic CV at 20, 40, 60, 80 and 100 mV s-1; Cdl as ECSA proxy
2023 · Cu/Co bimetallic conductive MOFs: Electronic modulation for enhanced nitrate reduction to ammonia
Cu1Co1HHTP/SCCB/Nafion on carbon cloth electrode · Electrode · Non-Faradaic CV at 20, 40, 60, 80 and 100 mV s-1; Cdl as ECSA proxy
2023 · Cu/Co bimetallic conductive MOFs: Electronic modulation for enhanced nitrate reduction to ammonia
Cu1Co2HHTP/SCCB/Nafion on carbon cloth electrode · Electrode · Non-Faradaic CV at 20, 40, 60, 80 and 100 mV s-1; Cdl as ECSA proxy
2023 · Cu/Co bimetallic conductive MOFs: Electronic modulation for enhanced nitrate reduction to ammonia
Cu2Co1HHTP/SCCB/Nafion on carbon cloth electrode · Electrode · Non-Faradaic CV at 20, 40, 60, 80 and 100 mV s-1; Cdl as ECSA proxy
2023 · Cu/Co bimetallic conductive MOFs: Electronic modulation for enhanced nitrate reduction to ammonia
CuHHTP/SCCB/Nafion on carbon cloth electrode · Electrode · Non-Faradaic CV at 20, 40, 60, 80 and 100 mV s-1; Cdl as ECSA proxy
2023 · Cu/Co bimetallic conductive MOFs: Electronic modulation for enhanced nitrate reduction to ammonia
CoHHTP/SCCB/Nafion on carbon cloth electrode · Electrode · 0.5 M Na2SO4 + 0.1 M NaNO3, potentials vs RHE; comparison of catalytic current
2023 · Cu/Co bimetallic conductive MOFs: Electronic modulation for enhanced nitrate reduction to ammonia
Cu1Co1HHTP/SCCB/Nafion on carbon cloth electrode · Electrode · 0.5 M Na2SO4 + 0.1 M NaNO3, potentials vs RHE; comparison of catalytic current
2023 · Cu/Co bimetallic conductive MOFs: Electronic modulation for enhanced nitrate reduction to ammonia
Cu1Co2HHTP/SCCB/Nafion on carbon cloth electrode · Electrode · 0.5 M Na2SO4 + 0.1 M NaNO3, potentials vs RHE; comparison of catalytic current
2023 · Cu/Co bimetallic conductive MOFs: Electronic modulation for enhanced nitrate reduction to ammonia
Cu2Co1HHTP/SCCB/Nafion on carbon cloth electrode · Electrode · 0.5 M Na2SO4 + 0.1 M NaNO3, potentials vs RHE; comparison of catalytic current
2023 · Cu/Co bimetallic conductive MOFs: Electronic modulation for enhanced nitrate reduction to ammonia
CuHHTP/SCCB/Nafion on carbon cloth electrode · Electrode · 0.5 M Na2SO4 + 0.1 M NaNO3, potentials vs RHE; comparison of catalytic current
2023 · Decoupling Redox Hopping and Catalysis in Metal-Organic Frameworks -based Electrocatalytic CO2 Reduction
CoPc-COOH · Powder · 0.5 mM CoPc or TPP(Co) in 5 mL DMF with 0.1 M TBAPF6; glassy carbon working electrode
2023 · Decoupling Redox Hopping and Catalysis in Metal-Organic Frameworks -based Electrocatalytic CO2 Reduction
CoPc@NU-1000-h carbon/Nafion electrode · Electrode · MOF catalyst plus Nafion on graphite sheet; 0.5 M KHCO3(aq); CO2 and argon atmospheres; carbon black omitted for onset determination
2023 · Decoupling Redox Hopping and Catalysis in Metal-Organic Frameworks -based Electrocatalytic CO2 Reduction
CoPc@NU-1000-h carbon/Nafion electrode · Electrode · Non-faradaic region at varied scan rates; catalyst/carbon black/Nafion on graphite sheet; 0.5 M KHCO3 under CO2
2023 · Decoupling Redox Hopping and Catalysis in Metal-Organic Frameworks -based Electrocatalytic CO2 Reduction
CoPc@NU-1000-h carbon/Nafion electrode · Electrode · CoPc@NU-1000-h electrode after 2 h to 4 h e-CRR; digestion in 0.1 M NaOH; electrolyte supernatant checks; recycled electrode analyses
2023 · Diazo-reaction based dual-mode colorimetric-electrochemical sensing of nitrite in pickled food
Cu-MOFs/EGP · Electrode · CV of Cu-MOFs/EGP in 5.0 mM K3[Fe(CN)6] and 0.1 M KCl at scan rates from 25 to 200 mV s-1.
2023 · Diazo-reaction based dual-mode colorimetric-electrochemical sensing of nitrite in pickled food
Cu-MOFs/EGP · Electrode · DPV in 0.1 M acetate buffer, pH 3.5, containing 1.0 mM TMB; potential range 0 V to +1.1 V.
2023 · Diazo-reaction based dual-mode colorimetric-electrochemical sensing of nitrite in pickled food
Cu-MOFs/EGP · Electrode · DPV curves of Cu-MOFs/EGP-TMB system with nitrite concentrations 6.7e-7, 1.0e-6, 5.0e-5, 1.0e-4, 1.5e-4 and 2.0e-4 mol L-1.
2023 · Electrically conductive [Fe4S4]-based organometallic polymers
[Fe4S4Cl2(Me-NHC)] (1) powder · Powder · 5 uL DMF suspension (1.0 mg mL-1) drop-cast on CHI 104 3 mm glassy carbon electrode; 0.1 M LiPF6 or TBAPF6 in acetonitrile under N2; 10 mV s-1.
2023 · Electrically conductive [Fe4S4]-based organometallic polymers
[Fe4S4Cl2(Me-NHC)] (1) pressed pellet for two-contact conductivity · Pellet · DC current-voltage curves collected at 10 mV s-1 with GAMRY Interface 5000E; 25 C under N2.
2023 · Electrically conductive Pt-MOFs for acidic oxygen reduction: Optimized performance via altering conjugated ligands
Pt3(C12N6O6)2 MOF RRDE electrode · Electrode · CV of Pt3(C12N12H6)2, Pt3(C12N9H3O3)2, Pt3(C12N6O6)2 and Pt/C in oxygen-saturated 0.5 M H2SO4.
2023 · Electrically conductive Pt-MOFs for acidic oxygen reduction: Optimized performance via altering conjugated ligands
Pt3(C12N9H3O3)2 MOF RRDE electrode · Electrode · O2-saturated 0.5 M H2SO4; scan rate 5 mV s^-1; 1600 rpm; potentials vs RHE.
2023 · Electrically conductive Pt-MOFs for acidic oxygen reduction: Optimized performance via altering conjugated ligands
Pt3(C12N12H6)2 MOF RRDE electrode · Electrode · O2-saturated 0.5 M H2SO4; scan rate 5 mV s^-1; 1600 rpm; potentials vs RHE.
2023 · Electrically conductive Pt-MOFs for acidic oxygen reduction: Optimized performance via altering conjugated ligands
Pt3(C12N6O6)2 MOF RRDE electrode · Electrode · O2-saturated 0.5 M H2SO4; scan rate 5 mV s^-1; 1600 rpm; potentials vs RHE.
2023 · Electrically conductive Pt-MOFs for acidic oxygen reduction: Optimized performance via altering conjugated ligands
20 wt% Pt/C RRDE electrode · Electrode · O2-saturated 0.5 M H2SO4; 1600 rpm; Pt loading 60 microg cm^-2.
2023 · Electrically Conductive π-Intercalated Graphitic Metal-Organic Framework Containing Alternate π-Donor/Acceptor Stacks
iGMOF1 black powder · Powder · Solid-state CV of iGMOF1 and Cu3(HATP)2 drop-cast films on glassy carbon in MeCN; solution CVs of HATP, HCTP, and [HATP/HCTP]n in DMF; 0.1 M Bu4NPF6 vs Ag/AgCl.
2023 · Electrochromism in Isoreticular Metal-Organic Framework Thin Films with Record High Coloration Efficiency
Zn-NDI@FTO thin film · Thin Film · MOF thin film working electrode; glassy carbon counter; non-aqueous Ag/Ag+ reference (10 mM AgPF6 in acetonitrile); 0.5 M KPF6 in dry DMF; argon bubbled 15 min; potentials vs Fc+/0
2023 · Electrochromism in Isoreticular Metal-Organic Framework Thin Films with Record High Coloration Efficiency
Zn-PDI@FTO thin film · Thin Film · MOF thin film working electrode; glassy carbon counter; non-aqueous Ag/Ag+ reference (10 mM AgPF6 in acetonitrile); 0.5 M KPF6 in dry DMF; argon bubbled 15 min; potentials vs Fc+/0
2023 · Electrochromism in Isoreticular Metal-Organic Framework Thin Films with Record High Coloration Efficiency
Zn-PMDI@FTO thin film · Thin Film · MOF thin film working electrode; glassy carbon counter; non-aqueous Ag/Ag+ reference (10 mM AgPF6 in acetonitrile); 0.5 M KPF6 in dry DMF; argon bubbled 15 min; potentials vs Fc+/0
2023 · Elucidating d-π conjugated two-dimensional 2,3,6,7,10,11-hexahydroxytriphenylene based conductive metal-organic framework for hybrid supercapacitors
Ni3(HHTP)2//AC hybrid supercapacitor · Electrode · Ni3(HHTP)2//AC hybrid device; CV over 0-1.6 V at 3, 10, 30, 50, 70 and 100 mV/s
2023 · Elucidating d-π conjugated two-dimensional 2,3,6,7,10,11-hexahydroxytriphenylene based conductive metal-organic framework for hybrid supercapacitors
activated carbon electrode · Electrode · 3 M KOH electrolyte; activated carbon electrode evaluated from 0 to -1.0 V to define the negative-electrode window for device fabrication
2023 · Elucidating d-π conjugated two-dimensional 2,3,6,7,10,11-hexahydroxytriphenylene based conductive metal-organic framework for hybrid supercapacitors
Ni3(HHTP)2 slurry electrode on nickel foam · Electrode · 3 M KOH electrolyte; platinum counter electrode; Hg/HgO reference; Ni3(HHTP)2 electrode cycled over 0-0.7 V and at scan rates 3-50 mV/s
2023 · Engineering Band Gap and Photoconduction in Semiconducting Metal Organic Frameworks: Metal Node Effect
M-THQ-FTO photocathode series · Electrode · MOF-FTO photocathodes in 0.1 M Na2SO4; 300 W Xe lamp with IR filter and >400 nm long-pass UV filter; dark, light, and chopped-light measurements.
2023 · Engineering defective trimetallic metal-organic framework nanosheets for advanced water oxidation electrocatalysis
NiFeZn MOF nanosheets · Nanosheet · non-Faradaic CV; scan rates 10, 20, 30, 40 mV/s; 1.1-1.2 V vs RHE
2023 · Engineering defective trimetallic metal-organic framework nanosheets for advanced water oxidation electrocatalysis
Fe MOF nanosheets · Nanosheet · 1 M KOH; 5 mV/s; OER comparison control
2023 · Engineering defective trimetallic metal-organic framework nanosheets for advanced water oxidation electrocatalysis
Ni MOF nanosheets · Nanosheet · 1 M KOH; 5 mV/s; OER comparison control
2023 · Engineering defective trimetallic metal-organic framework nanosheets for advanced water oxidation electrocatalysis
NiFe MOF nanosheets · Nanosheet · 1 M KOH; 5 mV/s; OER comparison control
2023 · Engineering defective trimetallic metal-organic framework nanosheets for advanced water oxidation electrocatalysis
NiFeCd MOF nanosheets · Nanosheet · 1 M KOH; OER at 10 mA cm-2; Tafel slope
2023 · Engineering defective trimetallic metal-organic framework nanosheets for advanced water oxidation electrocatalysis
NiFeCu MOF nanosheets · Nanosheet · 1 M KOH; OER at 10 mA cm-2; Tafel slope
2023 · Engineering defective trimetallic metal-organic framework nanosheets for advanced water oxidation electrocatalysis
NiFeMn MOF nanosheets · Nanosheet · 1 M KOH; OER at 10 mA cm-2; Tafel slope
2023 · Engineering defective trimetallic metal-organic framework nanosheets for advanced water oxidation electrocatalysis
NiFePb MOF nanosheets · Nanosheet · 1 M KOH; OER at 10 mA cm-2; Tafel slope
2023 · Engineering defective trimetallic metal-organic framework nanosheets for advanced water oxidation electrocatalysis
NiFeZn MOF nanosheets · Nanosheet · 1 M KOH; 5 mV/s; OER overpotential at 10 mA cm-2 and current density at 1.53 V vs RHE
2023 · Engineering defective trimetallic metal-organic framework nanosheets for advanced water oxidation electrocatalysis
NiFeZn-1 MOF nanosheets · Nanosheet · NiFeZn-1/NiFeZn-5; 1 M KOH; LSV 5 mV/s; CA at 1.5 V vs RHE
2023 · Engineering defective trimetallic metal-organic framework nanosheets for advanced water oxidation electrocatalysis
NiFeZn MOF nanosheets · Nanosheet · 3000 CV cycles; CA at 1.5 V vs RHE; CP at 10 mA cm-2
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-A on glassy carbon electrode · Electrode · CV scan rates 40, 60, 80, 100 and 120 mV s-1; Cdl from half current-density difference versus scan rate
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-B on glassy carbon electrode · Electrode · CV scan rates 40, 60, 80, 100 and 120 mV s-1; Cdl from half current-density difference versus scan rate
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-C on glassy carbon electrode · Electrode · CV scan rates 40, 60, 80, 100 and 120 mV s-1; Cdl from half current-density difference versus scan rate
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-C on glassy carbon electrode · Electrode · 1000 CV cycles followed by LSV comparison
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-A on glassy carbon electrode · Electrode · 0.1 M KOH electrolyte; scan rate 5 mV s-1; current density target 10 mA cm-2
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-B on glassy carbon electrode · Electrode · 0.1 M KOH electrolyte; scan rate 5 mV s-1; current density target 10 mA cm-2
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-C on glassy carbon electrode · Electrode · 0.1 M KOH electrolyte; scan rate 5 mV s-1; current density target 10 mA cm-2
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-A on glassy carbon electrode · Electrode · three-electrode test in 1.0 M KOH; scan rate 5 mV s-1; 90% iR correction; potentials vs RHE
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-B on glassy carbon electrode · Electrode · three-electrode test in 1.0 M KOH; scan rate 5 mV s-1; 90% iR correction; potentials vs RHE
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-C on glassy carbon electrode · Electrode · three-electrode test in 1.0 M KOH; scan rate 5 mV s-1; 90% iR correction; potentials vs RHE
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-A on carbon fibre paper · Electrode · 1.0 M KOH; Co-MOF drop-coated on carbon fibre paper; scan rate 5 mV s-1
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-B on carbon fibre paper · Electrode · 1.0 M KOH; Co-MOF drop-coated on carbon fibre paper; scan rate 5 mV s-1
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-C on carbon fibre paper · Electrode · 1.0 M KOH; Co-MOF drop-coated on carbon fibre paper; scan rate 5 mV s-1
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-C electrode after OER testing · Electrode · PXRD of Co-MOF-C after reaction
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-A on glassy carbon electrode · Electrode · Tafel plots extracted from LSV curves using eta = b log j + a
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-B on glassy carbon electrode · Electrode · Tafel plots extracted from LSV curves using eta = b log j + a
2023 · Enhanced cobalt MOF electrocatalyst for oxygen evolution reaction via morphology regulation
Co-MOF-C on glassy carbon electrode · Electrode · Tafel plots extracted from LSV curves using eta = b log j + a
2023 · Enhancing the photo-electrocatalytic properties of g-C3N4 by boron doping and ZIF-8 hybridization
B-g-C3N4 working electrode · Electrode · CO2 bubbling, dark condition, -0.8 to 0.8 V.
2023 · Enhancing the photo-electrocatalytic properties of g-C3N4 by boron doping and ZIF-8 hybridization
B-g-C3N4/ZIF-8 working electrode · Electrode · CO2 bubbling, dark condition, -0.8 to 0.8 V.
2023 · Enhancing the photo-electrocatalytic properties of g-C3N4 by boron doping and ZIF-8 hybridization
g-C3N4 working electrode · Electrode · Six cycles for each electrode; sixth cycle recorded; CO2 bubbling; dark condition; potential range -0.8 to 0.8 V.
2023 · Enhancing the photo-electrocatalytic properties of g-C3N4 by boron doping and ZIF-8 hybridization
g-C3N4/ZIF-8 working electrode · Electrode · CO2 bubbling, dark condition, -0.8 to 0.8 V.
2023 · Enhancing the photo-electrocatalytic properties of g-C3N4 by boron doping and ZIF-8 hybridization
B-g-C3N4/ZIF-8 working electrode · Electrode · Dark and light conditions with 430 nm cut-off filter and CO2 bubbling; applied potential range -1.2 to 0.2 V vs NHE; scan rate 0.05 V s-1.
2023 · Experimental manifestation of redox-conductivity in metal-organic frameworks and its implication for semiconductor/insulator switching
UU-100(Co) thin film on FTO · Thin Film · Representative CV at 100 mV s-1 and EIS conductivity analysis in Ar-saturated DMF with 0.1 M KPF6.
2023 · Experimental manifestation of redox-conductivity in metal-organic frameworks and its implication for semiconductor/insulator switching
Zn(pyrazol-NDI) thin film on FTO · Thin Film · CV at 5 mV s-1 and steady-state redox conductivity in Ar-saturated DMF with 0.1 M KPF6, LiClO4, or TBAPF6.
2023 · Experimental manifestation of redox-conductivity in metal-organic frameworks and its implication for semiconductor/insulator switching
Zn(pyrazol-NDI) thin film on FTO · Thin Film · CV in Ar-saturated DMF with 0.1 M KPF6 supporting electrolyte; representative slow scan at 5 mV s-1.
2023 · Experimental manifestation of redox-conductivity in metal-organic frameworks and its implication for semiconductor/insulator switching
Zr(dcphOH-NDI) thin film on FTO · Thin Film · Representative CV at 100 mV s-1 and EIS conductivity analysis in Ar-saturated DMF with 0.1 M KPF6.
2023 · Framework Dimensional Control Boosting Charge Storage in Conjugated Coordination Polymers
1D-CuTABQ composite cathode electrode · Electrode · Voltage window 1.0-3.8 V vs Na/Na+; 4 M NaPF6 in DME used to widen oxidative stability; current densities as reported
2023 · Framework Dimensional Control Boosting Charge Storage in Conjugated Coordination Polymers
1D-CuTABQ composite cathode electrode · Electrode · CV scan rates 0.1-5 mV s^-1, 1.0-3.8 V; GITT 100 mA g^-1 pulses for 10 min with 30 min relaxation
2023 · Framework Dimensional Control Boosting Charge Storage in Conjugated Coordination Polymers
2D-CuTABQ composite cathode electrode · Electrode · Voltage window 1.0-3.8 V vs Na/Na+; 4 M NaPF6 in DME used to widen oxidative stability; current densities as reported
2023 · Framework Dimensional Control Boosting Charge Storage in Conjugated Coordination Polymers
2D-CuTABQ composite cathode electrode · Electrode · CV scan rates 0.1-5 mV s^-1, 1.0-3.8 V; GITT 100 mA g^-1 pulses for 10 min with 30 min relaxation
2023 · In Situ Oxidation of Pyridyl-Dihydrobenzoimidazoquinazoline and the Synthesis of a Highly Luminescent Cd(II) Coordination Polymer: A Promising Candidate for Mutagenic Nitroaromatic Detection and Device Fabrication
As-synthesised bulk compound 1 · Powder · 0.1 M KCl solution, scan rate 10 mV/s.
2023 · Ionic Liquid-Laden Zn-MOF-74-Based Solid-State Electrolyte for Sodium Batteries
IL0.5@MOF (0.5:1) · Pellet · Na/IL0.5@MOF/stainless steel 2032 coin cells; room temperature; scan rate 1 mV s-1 between 0 and 7.0 V vs Na+/Na; no additive to improve interfaces
2023 · Ionic Liquid-Laden Zn-MOF-74-Based Solid-State Electrolyte for Sodium Batteries
IL0.5@MOF (0.5:1) · Pellet · Diffractograms of IL0.5@MOF as prepared and after LSV to 7 V vs Na+/Na
2023 · Isonicotinic acid-based copper-MOF: An exotic redox propertied electrode material for high energy asymmetric supercapacitor
Cu-MOF//activated carbon asymmetric hybrid supercapacitor · Electrode · Activated carbon functionalized over 0 to -1 V; Cu-MOF over 0 to 0.7 V; Fig. S3 used to choose device voltage window.
2023 · Isonicotinic acid-based copper-MOF: An exotic redox propertied electrode material for high energy asymmetric supercapacitor
Cu-MOF/Ni foam working electrode · Electrode · Hg/HgO reference, Pt counter electrode, 1 M KOH, room temperature; CV over 0-0.7 V at multiple sweep rates.
2023 · Isonicotinic acid-based copper-MOF: An exotic redox propertied electrode material for high energy asymmetric supercapacitor
Cu-MOF//activated carbon asymmetric hybrid supercapacitor · Electrode · Voltage-window optimisation at 30 mV/s over 0-0.9, 1.1, 1.3, 1.5 and 1.7 V; device CV at 3-100 mV/s over 0-1.7 V.
2023 · Ligand-Oxidation-Based Anodic Synthesis of Oriented Films of Conductive M-Catecholate Metal-Organic Frameworks with Controllable Thickness
Cu3(HHTP)2 film on Au/Cr/glass anode deposited at 0.25 V for 45 min · Thin Film · Background, Cu(NO3)2, HHTP and Cu3(HHTP)2 precursor solutions; 100 mV/s, pH 3.3, NaCl 100 mM, 30 C, nitrogen purged.
2023 · Ligand-Oxidation-Based Anodic Synthesis of Oriented Films of Conductive M-Catecholate Metal-Organic Frameworks with Controllable Thickness
Cu3(HHTP)2 Au-film growth kinetics series · Thin Film · CV deposition -0.2 to 0.35 V at 100 mV/s; potentiostatic deposition at 0.30 V on a 3 mm GCE.
2023 · Linker-Based Bandgap Tuning in Conductive MOF Solid Solutions
Cu3(TATHB)2 / Cu-TATHB (x = 0) · Pellet · MOF ink drop-cast on glassy carbon; Ag/Ag+ reference; Pt wire counter; 0.1 M TBAPF6 acetonitrile electrolyte; scan rate 100 mV s^-1.
2023 · Metal-Organic Framework Glass Catalysts from Melting Glass-Forming Cobalt-Based Zeolitic Imidazolate Framework for Boosting Photoelectrochemical Water Oxidation
Co-agZIF-62/NiO/BiVO4 photoanode · Electrode · Three-electrode cell in 0.5 M KBi electrolyte (pH 9.5), AM 1.5G simulated sunlight, 100 mW cm-2; photocurrent density at 1.23 V vs RHE
2023 · Metal-Organic Framework Glass Catalysts from Melting Glass-Forming Cobalt-Based Zeolitic Imidazolate Framework for Boosting Photoelectrochemical Water Oxidation
Co-agZIF-62/NiO/Fe2O3 photoanode · Electrode · 1 M NaOH electrolyte under AM 1.5G simulated sunlight, 100 mW cm-2
2023 · Metal-Organic Framework Glass Catalysts from Melting Glass-Forming Cobalt-Based Zeolitic Imidazolate Framework for Boosting Photoelectrochemical Water Oxidation
Co-agZIF-62/NiO/WO3 photoanode · Electrode · 0.5 M Na2SO4 electrolyte under AM 1.5G simulated sunlight, 100 mW cm-2
2023 · Microscopic Origin of Electrochemical Capacitance in Metal-Organic Frameworks
Composite Cu3(HHTP)2 freestanding electrode film · Electrode · Three-electrode cell at 1 mV s^-1, scanned to +0.5 V vs OCV, -0.5 V vs OCV and across the full window.
2023 · Microwave discharge for rapid introduction of bimetallic-synergistic configuration to conductive catecholate toward long-term supercapacitor
Zn,Ni-CAT-T4 · Electrode · CV scan-rate analysis from 1 to 200 mV s-1; surface-controlled and diffusion-controlled capacitance components separated.
2023 · Microwave discharge for rapid introduction of bimetallic-synergistic configuration to conductive catecholate toward long-term supercapacitor
Zn,Ni-CAT-T4 · Electrode · 3.0 M KCl aqueous electrolyte; CV from 0 to 0.5 V; scan rate examples include 100 mV s-1; GCD examples include 0.5 and 3 mA cm-2.
2023 · Microwave discharge for rapid introduction of bimetallic-synergistic configuration to conductive catecholate toward long-term supercapacitor
Symmetric all-solid-state supercapacitor based on Zn,Ni-CAT-T4 · Electrode · Zn,Ni-CAT-T4 used as both electrodes; CV from 1 to 100 mV s-1; GCD at multiple current densities; cycling at 2 mA cm-2 for 10000 cycles.
2023 · Microwave discharge for rapid introduction of bimetallic-synergistic configuration to conductive catecholate toward long-term supercapacitor
Symmetric all-solid-state supercapacitor based on Zn,Ni-CAT-T4 · Electrode · Three Zn,Ni-CAT-based supercapacitors connected in series or parallel; CV at 10 mV s-1 and GCD at 0.5 mA cm-2; charged to 1.5 V for LED.
2023 · Negative electrodes for supercapacitors with good performance using conductive bismuth-catecholate metal-organic frameworks
Bi(HHTP) 4/8/12/20 h carbon-cloth electrode series · Electrode · CV profiles at 5-100 mV s^-1; log i versus log v fitted for oxidation peaks; capacitive contribution ratios estimated as a function of scan rate.
2023 · Negative electrodes for supercapacitors with good performance using conductive bismuth-catecholate metal-organic frameworks
Bi(HHTP) 4/8/12/20 h carbon-cloth electrode series · Electrode · 3 M KOH electrolyte; Hg/HgO reference and Pt counter electrode; CV at 20 mV s^-1 and GCD at 1 A g^-1 for specific capacitance.
2023 · Negative electrodes for supercapacitors with good performance using conductive bismuth-catecholate metal-organic frameworks
Bi(HHTP) 12 h carbon-cloth electrode · Electrode · Ni(OH)2 positive electrode, Bi(HHTP) negative electrode, 6 M KOH electrolyte; positive:negative active-material mass ratio 1:3.
2023 · Novel aptasensing strategy for efficiently quantitative analyzing Staphylococcus aureus based on defective copper-based metal–organic framework
Cu-BDC-, Cu-H3BTC-, and Cu-H4EBTC-based aptasensor controls · Electrode · Cu-BDC-, Cu-H3BTC-, Cu-H4EBTC-, and ML-Cu2O@Cu-MOF-based aptasensors compared through construction stages and S. aureus detection.
2023 · Novel aptasensing strategy for efficiently quantitative analyzing Staphylococcus aureus based on defective copper-based metal–organic framework
Apt/ML-Cu2O@Cu-MOF/AE aptasensor · Electrode · Construction-stage redox-current response in 0.1 M PBS containing ferri/ferrocyanide; S. aureus concentration 10 CFU mL-1 for final detection stage. SI S1.6 reports DPV -0.2 to 0.6 V, 0.01 V increment, 0.05 V amplitude, 0.05 s pulse width; CV from -0.2 to 0.8 V.
2023 · Novel aptasensing strategy for efficiently quantitative analyzing Staphylococcus aureus based on defective copper-based metal–organic framework
Apt/ML-Cu2O@Cu-MOF/AE aptasensor · Electrode · S. aureus concentrations 10 to 1e8 CFU mL-1; 0.1 M PBS pH 7.4 containing 5 mM [Fe(CN)6]3-/4-; n = 3 error bars for calibration.
2023 · Novel aptasensing strategy for efficiently quantitative analyzing Staphylococcus aureus based on defective copper-based metal–organic framework
Apt/ML-Cu2O@Cu-MOF/AE aptasensor · Electrode · Optimised ML-Cu2O@Cu-MOF dosage, aptamer concentration, S. aureus binding time, pH, and aptamer anchoring time.
2023 · Novel aptasensing strategy for efficiently quantitative analyzing Staphylococcus aureus based on defective copper-based metal–organic framework
Apt/ML-Cu2O@Cu-MOF/AE aptasensor · Electrode · Milk, honey, and biscuit samples treated according to GB4789.15-2016, spiked with S. aureus, and compared with plate count method; SI text lists Tables S3-S8 captions but not their numeric bodies.
2023 · Novel aptasensing strategy for efficiently quantitative analyzing Staphylococcus aureus based on defective copper-based metal–organic framework
Apt/ML-Cu2O@Cu-MOF/AE aptasensor · Electrode · Interferents: E. coli, Salmonella enterica, Bacillus subtilis, and Salmonella paratyphi A at 1000 CFU mL-1, plus mixture with S. aureus; reproducibility with five aptasensors; storage for 15 days at 4 C; regeneration in NaOH.
2023 · Novel insights of structure evolution between ZIF and hydroxide via controlled doses of ammonium bifluoride and applications on battery supercapacitor hybrids
M-H10/rGO battery-supercapacitor hybrid · Electrode · Potential windows 0.8-1.1 V at 20 mV/s; scan rates 10-100 mV/s at 1.0 V.
2023 · Novel insights of structure evolution between ZIF and hydroxide via controlled doses of ammonium bifluoride and applications on battery supercapacitor hybrids
M-H10 battery-type electrode · Electrode · 20 mV/s, Pt counter electrode, Ag/AgCl reference electrode
2023 · Novel insights of structure evolution between ZIF and hydroxide via controlled doses of ammonium bifluoride and applications on battery supercapacitor hybrids
M-H15 battery-type electrode · Electrode · 20 mV/s, Pt counter electrode, Ag/AgCl reference electrode
2023 · Novel insights of structure evolution between ZIF and hydroxide via controlled doses of ammonium bifluoride and applications on battery supercapacitor hybrids
M-H2 battery-type electrode · Electrode · 20 mV/s, Pt counter electrode, Ag/AgCl reference electrode, 3 M KOH electrolyte inferred from electrode/BSH section.
2023 · Novel insights of structure evolution between ZIF and hydroxide via controlled doses of ammonium bifluoride and applications on battery supercapacitor hybrids
M-H20 battery-type electrode · Electrode · 20 mV/s, Pt counter electrode, Ag/AgCl reference electrode
2023 · Novel insights of structure evolution between ZIF and hydroxide via controlled doses of ammonium bifluoride and applications on battery supercapacitor hybrids
M-H5 battery-type electrode · Electrode · 20 mV/s, Pt counter electrode, Ag/AgCl reference electrode
2023 · One-Dimensional π-d Conjugated Conductive Metal-Organic Framework with Dual Redox-Active Sites for High-Capacity and Durable Cathodes for Aqueous Zinc Batteries
Cu-BTA-H composite cathode nanosheet · Electrode · 0.3-1.6 V vs Zn2+/Zn at 0.1 mV s^-1 in 2.5 M ZnSO4 aqueous electrolyte.
2023 · One-Dimensional π-d Conjugated Conductive Metal-Organic Framework with Dual Redox-Active Sites for High-Capacity and Durable Cathodes for Aqueous Zinc Batteries
Cu-BTA-H composite cathode nanosheet · Electrode · CV at scan rates 0.1, 0.2, 0.5, 1.0 and 2.0 mV s^-1; b values and capacitive/diffusion contributions calculated.
2023 · One-Dimensional π-d Conjugated Conductive Metal-Organic Framework with Dual Redox-Active Sites for High-Capacity and Durable Cathodes for Aqueous Zinc Batteries
Ni-BTA-H composite cathode nanosheet · Electrode · CV at scan rates 0.1, 0.2, 0.5, 1.0 and 2.0 mV s^-1; b values and capacitive/diffusion contributions calculated.
2023 · One-Dimensional π-d Conjugated Conductive Metal-Organic Framework with Dual Redox-Active Sites for High-Capacity and Durable Cathodes for Aqueous Zinc Batteries
Ni-BTA-H composite cathode nanosheet · Electrode · 0.3-1.6 V vs Zn2+/Zn at 0.1 mV s^-1 in 2.5 M ZnSO4 aqueous electrolyte.
2023 · Overcoming Diffusion Limitation of Faradaic Processes: Property-Performance Relationships of 2D Conductive Metal-Organic Framework Cu3(HHTP)2 for Reversible Lithium-Ion Storage
Flake-like Cu3(HHTP)2 composite electrode · Electrode · Potential window 1.7-3.5 V vs Li|Li+; scan rates 0.5, 1, 2, 5, 10, 20, 50 and 100 mV s-1 after initial cycles.
2023 · Overcoming Diffusion Limitation of Faradaic Processes: Property-Performance Relationships of 2D Conductive Metal-Organic Framework Cu3(HHTP)2 for Reversible Lithium-Ion Storage
Rod-like Cu3(HHTP)2 composite electrode · Electrode · Potential window 1.7-3.5 V vs Li|Li+; scan rates 0.5, 1, 2, 5, 10, 20, 50 and 100 mV s-1 after initial cycles.
2023 · Overcoming Diffusion Limitation of Faradaic Processes: Property-Performance Relationships of 2D Conductive Metal-Organic Framework Cu3(HHTP)2 for Reversible Lithium-Ion Storage
Flake-like Cu3(HHTP)2 composite electrode · Electrode · Cu3(HHTP)2 || Li metal cells; 1 M LiTFSI in EC:EMC 3:7; scan rate 0.5 mV s-1; varied upper and lower cut-off potentials.
2023 · Overcoming Diffusion Limitation of Faradaic Processes: Property-Performance Relationships of 2D Conductive Metal-Organic Framework Cu3(HHTP)2 for Reversible Lithium-Ion Storage
Rod-like Cu3(HHTP)2 composite electrode · Electrode · Cu3(HHTP)2 || Li metal cells; 1 M LiTFSI in EC:EMC 3:7; scan rate 0.5 mV s-1; varied upper and lower cut-off potentials.
2023 · Overcoming Diffusion Limitation of Faradaic Processes: Property-Performance Relationships of 2D Conductive Metal-Organic Framework Cu3(HHTP)2 for Reversible Lithium-Ion Storage
Flake-like Cu3(HHTP)2 composite electrode · Electrode · Self-designed in situ cell; electrode on Be disc; Li metal negative electrode; Whatman separator with 200 uL electrolyte; 0.05 mV s-1, 1.7-3.5 V; XRD 8-35 deg 2theta with 90 min scans.
2023 · Oxidatively Doped Tetrathiafulvalene-Based Metal-Organic Frameworks for High Specific Energy of Supercapatteries
1-ox electrode · Electrode · Scan rates 5 to 100 mV s^-1; separation of capacitive and diffusive current contributions.
2023 · Oxidatively Doped Tetrathiafulvalene-Based Metal-Organic Frameworks for High Specific Energy of Supercapatteries
AC||1-ox supercapattery · Electrode · AC negatrode, 1-ox positrode, 6.0 M KOH; 0-1.7 V device window; GCD 1 to 10 A g^-1; cycling at 5 A g^-1.
2023 · Oxidatively Doped Tetrathiafulvalene-Based Metal-Organic Frameworks for High Specific Energy of Supercapatteries
AC||2-ox supercapattery · Electrode · AC negatrode, 2-ox positrode, 6.0 M KOH; 0-1.7 V device window; GCD 1 to 10 A g^-1; cycling at 5 A g^-1.
2023 · Partial selenium surface modulation of metal organic framework assisted cobalt sulfide hollow spheres for high performance bifunctional oxygen electrocatalysis and rechargeable zinc-air batteries
Se-doped MOF CoS2 hollow spheres on carbon cloth · Electrode · 1.0 M KOH, three-electrode setup, room temperature, Ag/AgCl reference calibrated to RHE, Pt foil counter, LSV 5 mV s-1, CV stability 50 mV s-1, EIS 0.01 Hz to 100 kHz.
2023 · Partial selenium surface modulation of metal organic framework assisted cobalt sulfide hollow spheres for high performance bifunctional oxygen electrocatalysis and rechargeable zinc-air batteries
Se-doped MOF CoS2 hollow spheres on RDE · Electrode · 0.1 M KOH, O2- or N2-saturated, RDE 100-2500 rpm, LSV 5 mV s-1, 1600 rpm durability and methanol tolerance tests.
2023 · Piperazine-linked metal covalent organic framework-coated fibers for efficient electro-enhanced solid-phase microextraction of chlorophenols
CuPc-MCOF-coated stainless steel fibre · Electrode · Reversible Fe2+/Fe3+ redox system; solution containing 0.01 mM [Fe(CN)6]3+/4+ and 0.1 M KCl.
2023 · Reconstruction of Co/Ni metal-organic-framework based electrode materials with excellent conductivity and integral stability via extended hydrothermal treatment toward improved performance of supercapacitors
Co/Ni-MOF@CC-12//AC ASC · Electrode · Two-electrode ASC on LAND CT2001A; voltage windows up to 1.7 V at 5 mV s-1; scan rates 5-50 mV s-1 at selected 0-1.6 V window.
2023 · Reconstruction of Co/Ni metal-organic-framework based electrode materials with excellent conductivity and integral stability via extended hydrothermal treatment toward improved performance of supercapacitors
Co/Ni-MOF@CC-12 · Electrode · Working electrode: as-obtained sample; counter: Pt wire; reference: Ag/AgCl; electrolyte: 2 M KOH; potential range -0.2 to 0.6 V; scan rates 5-20 mV s-1.
2023 · Redox-Active Two-Dimensional Tetrathiafulvalene-Copper Metal-Organic Framework with Boosted Electrochemical Performances for Supercapatteries
AC||1-ox supercapattery device · Electrode · AC||1-ox device in 6 M KOH; potential window 0-1.7 V; scan rates 10-100 mV s^-1; GCD 1-10 A g^-1; cycling at 5 A g^-1 for 5000 cycles.
2023 · Redox-Active Two-Dimensional Tetrathiafulvalene-Copper Metal-Organic Framework with Boosted Electrochemical Performances for Supercapatteries
AC||1-ox' supercapattery device · Electrode · AC||1-ox' device in 6 M KOH; scan rates 10-100 mV s^-1; GCD 1-10 A g^-1; cycling at 5 A g^-1 for 5000 cycles.
2023 · Redox-Active Two-Dimensional Tetrathiafulvalene-Copper Metal-Organic Framework with Boosted Electrochemical Performances for Supercapatteries
1-ox working electrode · Electrode · Three-electrode configuration in 6 M KOH electrolyte at room temperature; calomel reference and Pt counter electrode; CV 10-100 mV s^-1; GCD 1-10 A g^-1; EIS 0.1 Hz-100 kHz.
2023 · Ruthenium(II) complex-grafted conductive metal-organic frameworks with conductivity- and confinement-enhanced electrochemiluminescence for ultrasensitive biosensing application
Fc-S1/HT/aptamer/AuNPs/Ru@Ni3(HITP)2/GCE biosensor · Electrode · CV and EIS in 5 mM [Fe(CN)6]3-/4-; ECL in PBS pH 7.0 with 10 uL TPrA for bare GCE, Ru@Ni3(HITP)2/GCE, AuNPs/Ru@Ni3(HITP)2/GCE, aptamer/HT/Fc-S1-modified electrodes, and TB/Exo I-treated biosensor.
2023 · Ruthenium(II) complex-grafted conductive metal-organic frameworks with conductivity- and confinement-enhanced electrochemiluminescence for ultrasensitive biosensing application
Ni3(HITP)2/GCE · Electrode · Ni3(HITP)2/GCE and bare GCE in PBS (0.1 M, pH 7.0) containing Ru(bpydc)3 (1 uM) and TPrA (5 mM); CV in TPrA solution (5 mM).
2023 · Self-supporting electrocatalyst constructed from in-situ transformation of Co(OH)2 to metal-organic framework to Co/CoP/NC nanosheets for high-current-density water splitting
Co/CoP/NC/CoF-550 / 6 h · Electrode · CV collected between 0.425 and 0.625 V vs RHE at 50-500 mV s^-1 in 1.0 M KOH.
2023 · Self-supporting electrocatalyst constructed from in-situ transformation of Co(OH)2 to metal-organic framework to Co/CoP/NC nanosheets for high-current-density water splitting
Co/CoP/NC/CoF-550 / 6 h · Electrode · HER LSV in 1.0 M KOH for 0, 1, 3, 6 and 12 h MOF growth time, phosphated at 550 C.
2023 · Self-supporting electrocatalyst constructed from in-situ transformation of Co(OH)2 to metal-organic framework to Co/CoP/NC nanosheets for high-current-density water splitting
Co/CoP/NC/CoF-550 / 6 h · Electrode · HER LSV from 0.1 to -0.6 V vs RHE in 1.0 M KOH using Hg/HgO reference and graphite counter electrode.
2023 · Self-supporting electrocatalyst constructed from in-situ transformation of Co(OH)2 to metal-organic framework to Co/CoP/NC nanosheets for high-current-density water splitting
Co/CoP/NC/CoF-550 / 6 h · Electrode · HER LSV and Nyquist plots in 1.0 M KOH for phosphating at 350, 450, 550 and 650 C.
2023 · Self-supporting electrocatalyst constructed from in-situ transformation of Co(OH)2 to metal-organic framework to Co/CoP/NC nanosheets for high-current-density water splitting
Co/CoP/NC/CoF-550 / 6 h · Electrode · Mass-normalised polarisation curves of Co/CoP/NC/CoF and Exo-Co/CoP/NC/CoF using active component mass loading.
2023 · Self-supporting electrocatalyst constructed from in-situ transformation of Co(OH)2 to metal-organic framework to Co/CoP/NC nanosheets for high-current-density water splitting
Co/CoP/NC/CoF-550 / 6 h · Electrode · OER LSV and Nyquist plots in 1.0 M KOH for 0, 1, 3, 6 and 12 h MOF growth time.
2023 · Self-supporting electrocatalyst constructed from in-situ transformation of Co(OH)2 to metal-organic framework to Co/CoP/NC nanosheets for high-current-density water splitting
Co/CoP/NC/CoF-550 / 6 h · Electrode · OER LSV from 1.0 to 2.0 V vs RHE in 1.0 M KOH using same three-electrode setup as HER.
2023 · Self-supporting electrocatalyst constructed from in-situ transformation of Co(OH)2 to metal-organic framework to Co/CoP/NC nanosheets for high-current-density water splitting
Co/CoP/NC/CoF-550 / 6 h · Electrode · OER LSV and Nyquist plots in 1.0 M KOH for phosphating at 350, 450, 550 and 650 C.
2023 · Self-supporting electrocatalyst constructed from in-situ transformation of Co(OH)2 to metal-organic framework to Co/CoP/NC nanosheets for high-current-density water splitting
Co/CoP/NC/CoF||Co/CoP/NC/CoF electrolyzer · Electrode · Co/CoP/NC/CoF used as both anode and cathode in 1.0 M KOH; compared with Pt/C/CoF||RuO2/CoF.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Bare GCE · Electrode · SWV paracetamol calibration in the same 10-50 uM range as Cu-BTC/GCE.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Cu-BTC/GCE, optimised 5 min film · Electrode · SWV in potential range +200 to +700 mV; paracetamol concentration 10-50 uM for calibration.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Cu-BTC/GCE, optimised 5 min film · Electrode · CVs recorded in 100 mM KCl over -600 mV to +600 mV vs Ag/AgCl.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Cu-BTC/GCE, optimised 5 min film · Electrode · Chronoamperometry at -1.0, -1.1, -1.2 and -1.3 V vs Ag/AgCl for 5 min, followed by CV in 100 mM KCl.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Cu-BTC/GCE, optimised 5 min film · Electrode · 100 mM KCl containing 5 mM K3[Fe(CN)6]/K4[Fe(CN)6], scan rate 50 mV s-1; Laviron scan-rate series 10-200 mV s-1 for Ks.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Cu-BTC/GCE, optimised 5 min film · Electrode · Electrodeposition solution in DMF with 10 mM Et3N, 15 mM H3BTC and 10 mM CuCl2.2H2O; Ag/AgCl reference, Pt counter, GCE working electrode.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Bare GCE · Electrode · 1 mM paracetamol in PBS buffer at pH 7.4, scan rate 50 mV s-1.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Cu-BTC/GCE, optimised 5 min film · Electrode · 1 mM paracetamol in PBS buffer at pH 7.4, scan rate 50 mV s-1.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Cu-BTC/GCE, optimised 5 min film · Electrode · 1 mM paracetamol solutions at pH 5 to 9; SI Fig. 5S compares Cu-BTC/GCE and GCE.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Cu-BTC/GCE, optimised 5 min film · Electrode · 1 mg traditional painkiller powder dissolved in 10 mL PBS buffer; SWV recorded on Cu-BTC/GCE.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Cu-BTC/GCE, optimised 5 min film · Electrode · Five Cu-BTC/GCE sensors analysed under identical SWV conditions.
2023 · Sensing interface based on electrodeposited Cu-BTC microporous film for electrochemical detection of the painkiller paracetamol
Cu-BTC/GCE, 15 min film · Electrode · SI Fig. 8S compares GCE, Cu-BTC 5 minutes and Cu-BTC 15 minutes for paracetamol calibration.
2023 · Stabilizing Redox-Active Hexaazatriphenylene in a 2D Conductive Metal–Organic Framework for Improved Lithium Storage Performance
6OH-HATN electrode · Electrode · 6OH-HATN and HATN controls at 0.2-1.0 mV s^-1; b-value fitting and capacitive contribution analysis.
2023 · Stabilizing Redox-Active Hexaazatriphenylene in a 2D Conductive Metal–Organic Framework for Improved Lithium Storage Performance
HATN electrode · Electrode · HATN and 6OH-HATN control electrodes, 0.1 mV s^-1, 0.01-3.0 V vs Li+/Li.
2023 · Stabilizing Redox-Active Hexaazatriphenylene in a 2D Conductive Metal–Organic Framework for Improved Lithium Storage Performance
Cu-HATN electrode · Electrode · Cu-HATN electrode, 0.1 mV s^-1, 0.01-3.0 V vs Li+/Li.
2023 · Stabilizing Redox-Active Hexaazatriphenylene in a 2D Conductive Metal–Organic Framework for Improved Lithium Storage Performance
Cu-HATN electrode · Electrode · CV at 0.2-1.0 mV s^-1; b-value fitting and i=k1v+k2v^1/2 analysis.
2023 · Strategies to enhance electrochemical performance of isoreticular 2d conjugated metal correlated organic frameworks via transition metals intercalation for battery-supercapacitor hybrids
Activated-carbon electrode · Electrode · Activated carbon capacitive-electrode control prior to hybrid device fabrication.
2023 · Strategies to enhance electrochemical performance of isoreticular 2d conjugated metal correlated organic frameworks via transition metals intercalation for battery-supercapacitor hybrids
Cu-MOF//AC hybrid supercapacitor · Electrode · Cu-MOF//AC device; 0-1.6 V optimised potential window; scan rates shown 3-100 mV/s.
2023 · Strategies to enhance electrochemical performance of isoreticular 2d conjugated metal correlated organic frameworks via transition metals intercalation for battery-supercapacitor hybrids
Cu-MOF slurry electrode on nickel foam · Electrode · 3 M KOH electrolyte; Pt wire counter; Hg/HgO reference; nickel foam working electrode; potential window 0-0.7 V; scan rates shown 3-50 mV/s.
2023 · Strategies to enhance electrochemical performance of isoreticular 2d conjugated metal correlated organic frameworks via transition metals intercalation for battery-supercapacitor hybrids
Ni-MOF//AC hybrid supercapacitor · Electrode · Ni-MOF//AC device; 0-1.6 V optimised potential window; scan rates shown 3-100 mV/s.
2023 · Strategies to enhance electrochemical performance of isoreticular 2d conjugated metal correlated organic frameworks via transition metals intercalation for battery-supercapacitor hybrids
Ni-MOF slurry electrode on nickel foam · Electrode · 3 M KOH electrolyte; Pt wire counter; Hg/HgO reference; nickel foam working electrode; potential window 0-0.7 V; scan rates shown 3-50 mV/s.
2023 · Strategies to enhance electrochemical performance of isoreticular 2d conjugated metal correlated organic frameworks via transition metals intercalation for battery-supercapacitor hybrids
Cu-MOF//AC hybrid supercapacitor · Electrode · Regression parameters k1 and k2 and separated capacitive/diffusive currents at scan rates including 3, 60 and 100 mV/s.
2023 · Strategies to enhance electrochemical performance of isoreticular 2d conjugated metal correlated organic frameworks via transition metals intercalation for battery-supercapacitor hybrids
Ni-MOF//AC hybrid supercapacitor · Electrode · Regression parameters k1 and k2 and separated capacitive/diffusive currents at scan rates including 3, 60 and 100 mV/s.
2023 · Sulfur-Bridged Bonds Heightened Na-Storage Properties in MnS Nanocubes Encapsulated by S-Doped Carbon Matrix Synthesized via Solvent-Free Tactics for High-Performance Hybrid Sodium Ion Capacitors
Commercial AC cathode · Electrode · AC cathode in sodium-ion half cells; voltage window 1.5-4.0 V for cycling.
2023 · Sulfur-Bridged Bonds Heightened Na-Storage Properties in MnS Nanocubes Encapsulated by S-Doped Carbon Matrix Synthesized via Solvent-Free Tactics for High-Performance Hybrid Sodium Ion Capacitors
MSC SIB anode electrode · Electrode · SIB half cell, voltage 0.01-3.0 V, scan rate 0.1 mV s-1, first three cycles.
2023 · Sulfur-Bridged Bonds Heightened Na-Storage Properties in MnS Nanocubes Encapsulated by S-Doped Carbon Matrix Synthesized via Solvent-Free Tactics for High-Performance Hybrid Sodium Ion Capacitors
MSC SIB anode electrode · Electrode · CV scan rates 0.1-10 mV s-1; b-value and capacitive/diffusion contribution analysis.
2023 · Sulfur-Bridged Bonds Heightened Na-Storage Properties in MnS Nanocubes Encapsulated by S-Doped Carbon Matrix Synthesized via Solvent-Free Tactics for High-Performance Hybrid Sodium Ion Capacitors
AC//MSC sodium-ion hybrid capacitor full cell · Electrode · AC//MSC sodium-ion hybrid capacitor; voltage 0.01-4.0 V; active material mass ratio MSC:AC = 1:2.
2023 · Synthesis, structure, and lithium storage performance of non-conductive metal–organic frameworks for high-performance lithium-ion batteries
Ni-mba-K lithium-ion battery working electrode · Electrode · CR2032 Li-ion cell, potential range 0.01-3.0 V vs Li+/Li, scan rates in Fig. 4a from 0.2 to 1.0 mV s-1
2023 · Synthesis, structure, and lithium storage performance of non-conductive metal–organic frameworks for high-performance lithium-ion batteries
Ni-mba-Na lithium-ion battery working electrode · Electrode · CR2032 Li-ion cell, potential range 0.01-3.0 V vs Li+/Li, scan rates in Fig. 3a from 0.2 to 1.0 mV s-1
2023 · The rise of 2D conductive metal-organic framework: Cu3(HHTP)2 d-π MOF for integrated battery-supercapacitor hybrids
Asymmetric Cu3(HHTP)2//AC hybrid device · Electrode · Asymmetric Cu3(HHTP)2//AC device; scan rates 3-100 mV/s; potential window up to 1.6 V.
2023 · The rise of 2D conductive metal-organic framework: Cu3(HHTP)2 d-π MOF for integrated battery-supercapacitor hybrids
Activated-carbon composite electrode · Electrode · Separate AC electrode measurement before asymmetric device fabrication; compared with Cu3(HHTP)2 electrode.
2023 · The rise of 2D conductive metal-organic framework: Cu3(HHTP)2 d-π MOF for integrated battery-supercapacitor hybrids
Cu3(HHTP)2 composite electrode for three-electrode tests · Electrode · Three-electrode assembly in 1 M KOH aqueous electrolyte; scan rates 3-50 mV/s; Hg/HgO reference, Pt counter electrode.
2023 · Toward High-Performance Metal–Organic-Framework-Based Quasi-Solid-State Electrolytes: Tunable Structures and Electrochemical Properties
Li@Co-MOF-74/Li-IL electrolyte pellet · Pellet · 0.5 mV s-1 at 30 C; +/-5 uA cm-2 threshold.
2023 · Toward High-Performance Metal–Organic-Framework-Based Quasi-Solid-State Electrolytes: Tunable Structures and Electrochemical Properties
Li@Cu-MOF-74/Li-IL electrolyte pellet · Pellet · 0.5 mV s-1 at 30 C; +/-5 uA cm-2 threshold.
2023 · Toward High-Performance Metal–Organic-Framework-Based Quasi-Solid-State Electrolytes: Tunable Structures and Electrochemical Properties
Li@HKUST-1/Li-IL electrolyte pellet · Pellet · Cu foil or stainless-steel working electrode, Li foil counter/reference; 0.5 mV s-1 at 30 C; +/-5 uA cm-2 threshold.
2023 · Toward High-Performance Metal–Organic-Framework-Based Quasi-Solid-State Electrolytes: Tunable Structures and Electrochemical Properties
Li@Mg-MOF-74/Li-IL electrolyte pellet · Pellet · Cu foil or stainless-steel working electrode, Li foil counter/reference; 0.5 mV s-1 at 30 C; +/-5 uA cm-2 threshold.
2023 · Toward High-Performance Metal–Organic-Framework-Based Quasi-Solid-State Electrolytes: Tunable Structures and Electrochemical Properties
Li@Mn-MOF-74/Li-IL electrolyte pellet · Pellet · 0.5 mV s-1 at 30 C; +/-5 uA cm-2 threshold.
2023 · Toward High-Performance Metal–Organic-Framework-Based Quasi-Solid-State Electrolytes: Tunable Structures and Electrochemical Properties
Li@MOF-5/Li-IL electrolyte pellet · Pellet · Cu foil or stainless-steel working electrode, Li foil counter/reference; 0.5 mV s-1 at 30 C; +/-5 uA cm-2 threshold.
2023 · Toward High-Performance Metal–Organic-Framework-Based Quasi-Solid-State Electrolytes: Tunable Structures and Electrochemical Properties
Li@Ni-MOF-74/Li-IL electrolyte pellet · Pellet · 0.5 mV s-1 at 30 C; +/-5 uA cm-2 threshold.
2023 · Toward High-Performance Metal–Organic-Framework-Based Quasi-Solid-State Electrolytes: Tunable Structures and Electrochemical Properties
Li@Zn-MOF-74/Li-IL electrolyte pellet, 1:1.5 · Pellet · Cu foil or stainless-steel working electrode, Li foil counter/reference; 0.5 mV s-1 at 30 C; +/-5 uA cm-2 threshold.
2023 · Ultrasensitive levofloxacin electrochemical biosensor based on semiconducting covalent organic framework/poly-L-cysteine/triangular Ag nanoplates modified glassy carbon electrode
TABQ-CHHO-COF/Poly-L-Cys/Tri-AgNP/GCE · Electrode · LEV oxidation in 0.1 M PBS at pH 5.5; Fig. 3 caption reports 100 uM LEV at 100 mV/s.
2023 · Ultrasensitive levofloxacin electrochemical biosensor based on semiconducting covalent organic framework/poly-L-cysteine/triangular Ag nanoplates modified glassy carbon electrode
TABQ-CHHO-COF/Poly-L-Cys/Tri-AgNP/GCE · Electrode · DPV in 0.1 M PBS at pH 5.5 for LEV concentrations from 0.05 to 600 uM; scan rate 100 mV/s reported in Fig. 4 caption.
2023 · Ultrasensitive levofloxacin electrochemical biosensor based on semiconducting covalent organic framework/poly-L-cysteine/triangular Ag nanoplates modified glassy carbon electrode
TABQ-CHHO-COF/Poly-L-Cys/Tri-AgNP/GCE · Electrode · Effective electroactive surface areas measured in 1.0 mM [Fe(CN)6]3-/4- with 0.1 M KCl at scan rates from 40 to 200 mV/s.
2023 · Ultrasensitive levofloxacin electrochemical biosensor based on semiconducting covalent organic framework/poly-L-cysteine/triangular Ag nanoplates modified glassy carbon electrode
TABQ-CHHO-COF/Poly-L-Cys/Tri-AgNP/GCE · Electrode · Optimisation of COF loading, Tri-AgNP loading, poly-L-cysteine cycles, pH, and scan rate for LEV response.
2023 · Ultrasensitive levofloxacin electrochemical biosensor based on semiconducting covalent organic framework/poly-L-cysteine/triangular Ag nanoplates modified glassy carbon electrode
TABQ-CHHO-COF/Poly-L-Cys/Tri-AgNP/GCE · Electrode · Serum centrifuged and diluted in 0.1 M PBS pH 5.5; urine filtered with 0.22 um membrane and diluted; spiked with 50.0 or 100 uM LEV.
2023 · Ultrasensitive levofloxacin electrochemical biosensor based on semiconducting covalent organic framework/poly-L-cysteine/triangular Ag nanoplates modified glassy carbon electrode
TABQ-CHHO-COF/Poly-L-Cys/Tri-AgNP/GCE · Electrode · Human blood serum and urine samples treated according to Inorganic Chemistry 60 (2021) 6585-6599 and diluted 20 times; spiked with 50.0 or 100 uM LEV; n = 3.
2023 · Ultrasensitive levofloxacin electrochemical biosensor based on semiconducting covalent organic framework/poly-L-cysteine/triangular Ag nanoplates modified glassy carbon electrode
TABQ-CHHO-COF/Poly-L-Cys/Tri-AgNP/GCE · Electrode · Five separately fabricated electrodes; one electrode measured 10 times; once-daily DPV for 10 days; interferences tested against 60 uM LEV.
2023 · Wavy Two-Dimensional Conjugated Metal-Organic Framework with Metallic Charge Transport
Cu3(HFcHBC)2 working electrode composite · Electrode · Cu3(HFcHBC)2 composite working electrode; over-capacitive activated carbon counter electrode; glass fibre separator; aqueous 5 M LiCl electrolyte; Ag/AgCl reference.
2022 · 3D Co-doped Ni-based conductive MOFs modified electrochemical sensor for highly sensitive detection of L-tryptophan
Co-Ni-MOFs-1%/GCE · Electrode · 5 mmol L^-1 K3[Fe(CN)6]/K4[Fe(CN)6] solution; Co-Ni-MOFs-1%/GCE compared with Ni-MOFs/GCE and bare GCE.
2022 · 3D Co-doped Ni-based conductive MOFs modified electrochemical sensor for highly sensitive detection of L-tryptophan
Co-Ni-MOFs ratio-series/GCE electrodes · Electrode · Co-Ni-MOFs-0.1%/GCE, Co-Ni-MOFs-1%/GCE, Co-Ni-MOFs-2%/GCE and Co-Ni-MOFs-5%/GCE tested in 0.1 mol L^-1 PBS, pH 2.5, containing 0.1 mmol L^-1 L-tryptophan.
2022 · 3D Co-doped Ni-based conductive MOFs modified electrochemical sensor for highly sensitive detection of L-tryptophan
Co-Ni-MOFs-1%/GCE · Electrode · 0.1 mmol L^-1 L-tryptophan in 0.1 mol L^-1 PBS, pH 2.5; comparison of Co-Ni-MOFs-1%/GCE, Ni-MOFs/GCE and bare GCE.
2022 · 3D Co-doped Ni-based conductive MOFs modified electrochemical sensor for highly sensitive detection of L-tryptophan
Co-Ni-MOFs-1%/GCE · Electrode · 0.1 mol L^-1 PBS, pH 2.5, containing L-tryptophan concentrations from 0.01 to 300 umol L^-1.
2022 · 3D Co-doped Ni-based conductive MOFs modified electrochemical sensor for highly sensitive detection of L-tryptophan
Co-Ni-MOFs-1%/GCE · Electrode · Interferents tested against detection of 0.1 mmol L^-1 L-tryptophan.
2022 · 3D Co-doped Ni-based conductive MOFs modified electrochemical sensor for highly sensitive detection of L-tryptophan
Co-Ni-MOFs-1%/GCE · Electrode · 0.1 mmol L^-1 L-tryptophan in 0.1 mol L^-1 PBS at pH 1, 2, 2.5, 3, 4 and 5.
2022 · 3D Co-doped Ni-based conductive MOFs modified electrochemical sensor for highly sensitive detection of L-tryptophan
Co-Ni-MOFs-1%/GCE · Electrode · Simulated samples at 8, 60 and 100 umol L^-1; mouse plasma diluted 100-fold with pH 2.5 PBS and centrifuged at 12000 rpm before detection.
2022 · 3D Co-doped Ni-based conductive MOFs modified electrochemical sensor for highly sensitive detection of L-tryptophan
Co-Ni-MOFs-1%/GCE · Electrode · 0.1 mol L^-1 PBS with 100 umol L^-1 L-tryptophan; scan rates 20-500 mV s^-1.
2022 · 3D Co-doped Ni-based conductive MOFs modified electrochemical sensor for highly sensitive detection of L-tryptophan
Co-Ni-MOFs-1%/GCE · Electrode · DPV current of 0.1 mmol L^-1 L-tryptophan recorded every three days, five times, over about two weeks.
2022 · A 2D copper-imidazolate framework without thermal treatment as an efficient ORR electrocatalyst for Zn-air batteries
GCE/2DCIF electrocatalyst electrode · Electrode · GCE/2DCIF in O2- or N2-saturated 0.1 M KOH; scan rate 10 mV s-1; rotation rates 250-2500 rpm
2022 · A 2D copper-imidazolate framework without thermal treatment as an efficient ORR electrocatalyst for Zn-air batteries
GCE/2DCIF electrocatalyst electrode · Electrode · 1000 continuous potential cycles in O2-saturated 0.1 M KOH; static and 2500 rpm rotating conditions
2022 · A Monocrystalline Coordination Polymer with Multiple Redox Centers as a High-Performance Cathode for Lithium-Ion Batteries
CuCA composite electrode in quasi-solid-state LIB coin cell · Electrode · CR2032 LIB cells, Li metal anode, PPC-PEO-LiTFSI-Al2O3 based quasi-solid-state electrolyte; voltage window 1.7-4.0 V; CV at 0.3 mV s-1.
2022 · A Novel Electrically Conductive Perylene Diimide-Based MOF-74 Series Featuring Luminescence and Redox Activity
PDI-MOF-74(Mg) CV mesh electrode · Electrode · Three-electrode setup; Pt-wire counter electrode; silver wire pseudo-reference; dry DMF; 0.1 M TBAPF6; scan rate 0.1 V/s; argon; ferrocene added after CV for reference
2022 · A Novel Electrically Conductive Perylene Diimide-Based MOF-74 Series Featuring Luminescence and Redox Activity
PDI-MOF-74(Ni) CV mesh electrode · Electrode · Three-electrode setup; Pt-wire counter electrode; silver wire pseudo-reference; dry DMF; 0.1 M TBAPF6; scan rate 0.1 V/s; argon; ferrocene added after CV for reference
2022 · A Novel Electrically Conductive Perylene Diimide-Based MOF-74 Series Featuring Luminescence and Redox Activity
PDI-MOF-74(Zn) CV mesh electrode · Electrode · Three-electrode setup; Pt-wire counter electrode; silver wire pseudo-reference; dry DMF; 0.1 M TBAPF6; scan rate 0.1 V/s; argon; ferrocene added after CV for reference
2022 · A novel Sn-based coordination polymer with high-efficiency and ultrafast lithium storage
Sn-DHTPA composite LIB electrode · Electrode · Initial five cycles at 0.2 mV s^-1 unless otherwise noted; voltage window 0.01-3 V vs Li+/Li
2022 · A novel Sn-based coordination polymer with high-efficiency and ultrafast lithium storage
Sn-DHTPA composite LIB electrode · Electrode · CV scan rates 0.2-2.0 mV s^-1; b-value analysis by log(i) versus log(v)
2022 · A one-dimensional conductive metal-organic framework with extended π-d conjugated nanoribbon layers
DDA-Cu MOF crystals / bulk precipitate · Powder · glassy carbon working electrode; Ag/AgCl reference; Pt counter; 100 mV/s for selected curves
2022 · A one-dimensional conductive metal-organic framework with extended π-d conjugated nanoribbon layers
DDA-Cu composite electrode on nickel foam · Electrode · three-electrode and symmetric supercapacitor; DDA-Cu/carbon black/PTFE electrode
2022 · A Rationally Designed Iron–Dihydroxybenzoquinone Metal–Organic Framework as Practical Cathode Material for Rechargeable Batteries
Fe2(DHBQ)3 electrode A/default (AM/KB/PTFE = 6:3:1, low loading) · Electrode · 1.5-3.8 V vs Li+/Li; scan rates 0.05, 0.1, 0.2, 0.5, 1.0 mV s-1; Fe2(DHBQ)3 working electrode, Li reference/counter.
2022 · A stable lanthanum hydroxamate metal-organic framework with radical character and electrical conductivity
La-ONDI-DMA single crystals · Single Crystal · Three-electrode cell at room temperature; about 8 mg La-ONDI abraded with ethanol, water and 5 wt% Nafion, drop-cast on glassy carbon; Pt wire counter, Ag/Ag+ reference; 0.1 M [(n-Bu)4N]PF6 in acetonitrile under N2; referenced to Fc/Fc+.
2022 · Ag doped Co/Ni bimetallic organic framework for determination of luteolin
Ag-CoNi-MOF/GCE · Electrode · 2.0 uM luteolin in 0.1 M Britton-Robinson buffer, pH 3.0; scan rate 100 mV/s.
2022 · Ag doped Co/Ni bimetallic organic framework for determination of luteolin
Ag-CoNi-MOF/GCE · Electrode · Luteolin concentrations 2.0 nM, 4.0 nM, 10.0 nM, 20.0 nM, 50.0 nM, 0.1 uM, 0.2 uM, 0.4 uM, 0.6 uM, 0.8 uM and 1.0 uM in 0.1 M BR buffer, pH 3.0.
2022 · Ag doped Co/Ni bimetallic organic framework for determination of luteolin
Ag-CoNi-MOF/GCE · Electrode · 2.0 uM luteolin on bare GCE, CoNi-MOF/GCE and Ag-CoNi-MOF/GCE.
2022 · Ag doped Co/Ni bimetallic organic framework for determination of luteolin
Ag-CoNi-MOF/GCE · Electrode · CV curves at scan rates 20-400 mV/s; linear-current analysis over 20-400 mV/s; log(v)-potential analysis over 160-400 mV/s.
2022 · Ag doped Co/Ni bimetallic organic framework for determination of luteolin
Ag-CoNi-MOF/GCE · Electrode · 2 uM luteolin on Ag-CoNi-MOF/GCE with pH varied from 2.0 to 6.0.
2022 · Ag doped Co/Ni bimetallic organic framework for determination of luteolin
Ag-CoNi-MOF/GCE · Electrode · Six different Ag-CoNi-MOF sensors used to determine 1.0 uM luteolin by DPV.
2022 · Ag doped Co/Ni bimetallic organic framework for determination of luteolin
Ag-CoNi-MOF/GCE · Electrode · Current for 1.0 uM luteolin assessed every 2 days over 20 days.
2022 · Ag doped Co/Ni bimetallic organic framework for determination of luteolin
Ag-CoNi-MOF/GCE · Electrode · Human urine diluted 10-fold with BR buffer pH 3.0; luteolin added at 0, 50, 100 and 500 nM; n = 4.
2022 · Atomic Ruthenium-Riveted Metal-Organic Framework with Tunable d-Band Modulates Oxygen Redox for Lithium-Oxygen Batteries
Ni-HTP nanowire-array electrode on carbon paper · Electrode · Li-O2 cell cathode; 2.0-4.0 V; 0.10 mV s-1; room temperature
2022 · Atomic Ruthenium-Riveted Metal-Organic Framework with Tunable d-Band Modulates Oxygen Redox for Lithium-Oxygen Batteries
NiRu-HTP nanowire-array electrode on carbon paper · Electrode · Li-O2 cell cathode; 2.0-4.0 V; 0.10 mV s-1; room temperature
2022 · Atomic Ruthenium-Riveted Metal-Organic Framework with Tunable d-Band Modulates Oxygen Redox for Lithium-Oxygen Batteries
Ni-HTP nanowire-array electrode on carbon paper · Electrode · 1.0 M LiTFSI/G4 electrolyte with O2, 900 rpm, 10 mV s-1
2022 · Atomic Ruthenium-Riveted Metal-Organic Framework with Tunable d-Band Modulates Oxygen Redox for Lithium-Oxygen Batteries
NiRu-HTP nanowire-array electrode on carbon paper · Electrode · 1.0 M LiTFSI/G4 electrolyte with O2, 900 rpm, 10 mV s-1
2022 · Atomically Precise Integration of Multiple Functional Motifs in Catalytic Metal-Organic Frameworks for Highly Efficient Nitrate Electroreduction
As-synthesised In4 red block crystals/powder · Single Crystal · 3D In-MOF, In4 and In8 compared; In4 Fig. S12 at 400 mV s-1 in 0.1 M LiBF4 in CH3CN.
2022 · Atomically Precise Integration of Multiple Functional Motifs in Catalytic Metal-Organic Frameworks for Highly Efficient Nitrate Electroreduction
As-synthesised In8 red block crystals/powder · Single Crystal · In8 over four consecutive cycles at 400 mV s-1 in 0.1 M LiBF4 in CH3CN.
2022 · Atomically Precise Integration of Multiple Functional Motifs in Catalytic Metal-Organic Frameworks for Highly Efficient Nitrate Electroreduction
In8 catalyst ink on carbon paper electrode · Electrode · pH 1-5 H2SO4 electrolyte with or without 0.5 g L-1 KNO3; optimal comparison at -0.7 V vs RHE.
2022 · Bifunctional 3D-MOF-based nanoprobes for electrochemical sensing and nanozyme enhanced with peroxidase mimicking for colorimetric detection of acetaminophen
ZIF-67-C/GCE modified electrode · Electrode · Successive ACM addition from 0 to 280 uM at 50 mV/s in pH 7 electrolyte.
2022 · Bifunctional 3D-MOF-based nanoprobes for electrochemical sensing and nanozyme enhanced with peroxidase mimicking for colorimetric detection of acetaminophen
ZIF-67-C/GCE modified electrode · Electrode · PB solution at pH 7 with 130 uM ACM; sweep rate 50 mV/s; compared ZIF-67-C/GCE, ZIF-67-A/GCE, ZIF-67-H/GCE, and bare GCE.
2022 · Bifunctional 3D-MOF-based nanoprobes for electrochemical sensing and nanozyme enhanced with peroxidase mimicking for colorimetric detection of acetaminophen
ZIF-67-C/GCE modified electrode · Electrode · pH 3 to 11; 50 mV/s scan rate; 130 uM ACM.
2022 · Bifunctional 3D-MOF-based nanoprobes for electrochemical sensing and nanozyme enhanced with peroxidase mimicking for colorimetric detection of acetaminophen
ZIF-67-C/GCE modified electrode · Electrode · 130 uM ACM in pH 7 at ZIF-67-C/GCE; scan rate varied from 20 to 200 mV/s.
2022 · Bifunctional 3D-MOF-based nanoprobes for electrochemical sensing and nanozyme enhanced with peroxidase mimicking for colorimetric detection of acetaminophen
ZIF-67-C/GCE modified electrode · Electrode · ACM concentration varied from 0.199 to 1098.31 uM at ZIF-67-C/GCE in pH 7.
2022 · Bifunctional 3D-MOF-based nanoprobes for electrochemical sensing and nanozyme enhanced with peroxidase mimicking for colorimetric detection of acetaminophen
ZIF-67-C/GCE modified electrode · Electrode · Catechol, dopamine, levofloxacin, ibuprofen, uric acid, nilutamide, aspirin, ciprofloxacin, sodium ions, and flutamide injected at 20-fold higher concentrations than ACM in pH 7.
2022 · Bifunctional 3D-MOF-based nanoprobes for electrochemical sensing and nanozyme enhanced with peroxidase mimicking for colorimetric detection of acetaminophen
ZIF-67-C/GCE modified electrode · Electrode · Five independently chosen ZIF-67-C/GCE electrodes; 130 uM ACM in pH 7 at 50 mV/s. Stability tested on day 1, day 15, and day 30 after storage at 3 C.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co1Fe1-B-P · Nanosheet · 3000 CV cycles from 1.2 to 1.5 V vs RHE at 100 mV s-1; 20 h chronoamperometry at potential corresponding to 10 mA cm-2.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co1Fe1-B · Nanosheet · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co1Fe1-B-P · Nanosheet · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co1Fe1-P · Powder · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co1Fe2-B · Unknown · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co1Fe2-B-P · Unknown · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co1Fe2-P · Powder · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co2Fe1-B · Nanosheet · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co2Fe1-B-P · Nanosheet · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co2Fe1-P · Powder · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co-B · Unknown · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co-B-P · Powder · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Boron-doped cobalt-iron bimetal phosphides nanosheets for enhanced oxygen evolution
Co-P · Powder · 1.0 M KOH; room temperature; rotating glassy carbon disk electrode at 1600 rpm; catalyst loading 0.50 mg cm-2; iR compensated.
2022 · Bromine Vapor Induced Continuous p- to n-Type Conversion of a Semiconductive Metal-Organic Framework Cu[Cu(pdt)2]
[Cu(pdt)2] model species · Model · Not measured first-hand in this paper; values cited from Robira et al., Kobayashi et al., and CRC electrochemical series.
2022 · Coarsening-induced hierarchically interconnected porous carbon polyhedrons for stretchable ionogel-based supercapacitors
HIC · Electrode · [EMI][BF4] liquid electrolyte; 0-4 V; CV 10-200 mV s-1; GCD 0.5-50 A g-1; 25 degC per SI.
2022 · Coarsening-induced hierarchically interconnected porous carbon polyhedrons for stretchable ionogel-based supercapacitors
MMC · Electrode · [EMI][BF4] liquid electrolyte; 0-4 V; CV 10-200 mV s-1; GCD 0.5-50 A g-1; 25 degC per SI.
2022 · Coarsening-induced hierarchically interconnected porous carbon polyhedrons for stretchable ionogel-based supercapacitors
NIC · Electrode · [EMI][BF4] liquid electrolyte; 0-4 V; CV 10-200 mV s-1; GCD 0.5-50 A g-1; 25 degC per SI.
2022 · Coarsening-induced hierarchically interconnected porous carbon polyhedrons for stretchable ionogel-based supercapacitors
stretchable HIC-based SC · Electrode · P(VDF-HFP)/[EMI][TFSI] ionogel; CV 50-500 mV s-1; GCD 0.4-4 mA cm-2; external tensile strains 0-120%; measurements in air per SI.
2022 · Conductive Co-based metal organic framework nanostructures for excellent potassium- and lithium-ion storage: kinetics and mechanism studies
Co-CAT MOF LIB anode electrode · Electrode · LIB half-cell, 0.01-3.0 V vs Li+/Li; CV at 0.1 mV s^-1; galvanostatic cycling at 200 mA g^-1 and rate tests to 2000 mA g^-1.
2022 · Conductive Co-based metal organic framework nanostructures for excellent potassium- and lithium-ion storage: kinetics and mechanism studies
Co-CAT MOF LIB anode electrode · Electrode · LIB kinetic analysis from Fig. S13-S15; CV b-values, pseudocapacitive contribution, lithium diffusion coefficient, and EIS before/after cycling.
2022 · Conductive Co-based metal organic framework nanostructures for excellent potassium- and lithium-ion storage: kinetics and mechanism studies
Co-CAT MOF PIB anode electrode · Electrode · PIB half-cell, 0.01-3.0 V vs K+/K; CV at 0.1 mV s^-1; galvanostatic curves at 200 mA g^-1.
2022 · Conductive Co-based metal organic framework nanostructures for excellent potassium- and lithium-ion storage: kinetics and mechanism studies
Co-CAT MOF PIB anode electrode · Electrode · CV curves at 0.1-2.0 mV s^-1; b-value and pseudocapacitive contribution calculated.
2022 · Conductive metal organic framework for ion-selective membrane-free solid-contact potentiometric Cu2+ sensing
ISM-free Cu3(HHTP)2/PVDF-coated GCE solid-contact ion-selective electrode · Electrode · Conventional three-electrode setup in 0.1 M KCl; scan rate 5 mV s-1.
2022 · Conductive Metal-Organic Frameworks Bearing M−O4 Active Sites as Highly Active Biomass Valorization Electrocatalysts
Co-CAT-Carbon Paper · Electrode · Three-electrode cell; 1 M KOH with/without 10 mM HMF; carbon-paper-supported Co-CAT.
2022 · Conductive Metal-Organic Frameworks Bearing M−O4 Active Sites as Highly Active Biomass Valorization Electrocatalysts
Co-CAT-FTO · Electrode · Three-electrode cell; 1 M KOH, then 1 M KOH plus 10 mM HMF; scan rate 20 mV s-1; Ag/AgCl reference converted to RHE.
2022 · Conductive Metal-Organic Frameworks Bearing M−O4 Active Sites as Highly Active Biomass Valorization Electrocatalysts
Ni-CAT-Carbon Paper · Electrode · Three-electrode cell; 1 M KOH with/without 10 mM HMF; carbon-paper-supported Ni-CAT.
2022 · Conductive Metal-Organic Frameworks Bearing M−O4 Active Sites as Highly Active Biomass Valorization Electrocatalysts
Ni-CAT-FTO · Electrode · Three-electrode cell; 1 M KOH, then 1 M KOH plus 10 mM HMF; scan rate 20 mV s-1; Ag/AgCl reference converted to RHE.
2022 · Conductive Metal-Organic Frameworks Bearing M−O4 Active Sites as Highly Active Biomass Valorization Electrocatalysts
Co-CAT-FTO · Electrode · 1 M KOH electrolyte, applied potential from 0.82 to 1.42 V vs RHE; scan-rate series used as charge-transfer/conductivity proxy.
2022 · Conductive Metal-Organic Frameworks Bearing M−O4 Active Sites as Highly Active Biomass Valorization Electrocatalysts
Ni-CAT-FTO · Electrode · 1 M KOH electrolyte, applied potential from 0.82 to 1.42 V vs RHE; scan-rate series used as charge-transfer/conductivity proxy.
2022 · Conductive Metal-Organic Frameworks Bearing M−O4 Active Sites as Highly Active Biomass Valorization Electrocatalysts
Co-CAT powder on glassy carbon disk · Electrode · Rotating disk configuration at 1600 rpm; LSV scan 0.5 mV/s; HMF transport enhanced.
2022 · Conductive Metal-Organic Frameworks Bearing M−O4 Active Sites as Highly Active Biomass Valorization Electrocatalysts
Ni-CAT powder on glassy carbon disk · Electrode · Rotating disk configuration at 1600 rpm; LSV scan 0.5 mV/s; HMF transport enhanced.
2022 · Conductive NiCo bimetal-organic framework nanorods with conductivity-enhanced electrochemiluminescence for constructing biosensing platform
NiCo-HHTP/PtNP/H1/MCH biosensor electrode · Electrode · CV and EIS in 5 mM [Fe(CN)6]3-/4- solution for bare GCE through H3-Fc/S1/MCH/H1/PtNPs/NiCo-HHTP/GCE; ECL response tracked during fabrication.
2022 · Conjugated Metal-Organic Macrocycles: Synthesis, Characterization, and Electrical Conductivity
CuTOTP-OC2 drop-cast glassy-carbon CV electrode · Electrode · CuTOTP-OC2 drop-cast on glassy carbon; 0.05 M NaClO4 in acetonitrile, N2-filled glovebox, Pt counter, Ag pseudo-reference, 10 mV/s.
2022 · Construction of sulfur vacancies enriched hollow zinc cobalt bimetallic sulfides for high-performance supercapacitors
activated carbon negative electrode · Electrode · AC tested as negative electrode for HSC; CV rectangular and GCD linear; 3 M KOH.
2022 · Construction of sulfur vacancies enriched hollow zinc cobalt bimetallic sulfides for high-performance supercapacitors
Zn0.3Co2.7S4//AC aqueous hybrid supercapacitor · Electrode · Zn0.3Co2.7S4//AC device in 3 M KOH; operating voltage window selected as 0-1.6 V; CV at different windows and scan rates, GCD at 1-10 A g-1.
2022 · Construction of sulfur vacancies enriched hollow zinc cobalt bimetallic sulfides for high-performance supercapacitors
Zn0.3Co2.7S4 working electrode on nickel foam · Electrode · Peak current density versus scan rate; surface capacitive contribution evaluated at 5-40 mV s-1.
2022 · Construction of sulfur vacancies enriched hollow zinc cobalt bimetallic sulfides for high-performance supercapacitors
Zn0.3Co2.7S4 working electrode on nickel foam · Electrode · CHI 760E workstation; platinum foil counter, SCE reference, 3 M KOH electrolyte; -0.1 to 0.6 V; scan rates 3-50 mV s-1; key figures use 5-40 mV s-1 and 10 mV s-1 comparisons.
2022 · Crystal Structure and Electrochemical and Charge Transfer Properties in Redox-Active Coordination Polymers Based on a Truncated Tetrathiafulvalene Linker
as-synthesised Cd-m-TTFTB red rod-like crystals · Powder · Powder paste on glassy carbon working electrode; 0.1 M LiBF4 in CH3CN/MeCN; scan rate 100 mV/s; potentials versus Fc/Fc+.
2022 · Crystal Structure and Electrochemical and Charge Transfer Properties in Redox-Active Coordination Polymers Based on a Truncated Tetrathiafulvalene Linker
as-synthesised Zn-m-TTFTB red rod-like crystals · Powder · Powder paste on glassy carbon working electrode; 0.1 M LiBF4 in CH3CN/MeCN; scan rate 100 mV/s; potentials versus Fc/Fc+.
2022 · Defect Engineering to Tailor Metal Vacancies in 2D Conductive Metal-Organic Frameworks: An Example in Electrochemical Sensing
Cu-BHT film prepared at pH 2 · Thin Film · Non-Faradaic potential range 0.52-0.60 V vs RHE; scan rates 10, 20, 30, 40, 50, and 60 mV s-1.
2022 · Dense Conductive Metal-Organic Frameworks as Robust Electrocatalysts for Biosensing
GC/Cu3(THQ)2/AChE biosensor · Electrode · 1 mM ATCh and PBS buffer at GC/AChE, GC/Ni3(HHTP)2/AChE, GC/Cu3(HHTP)2/AChE, and GC/Cu3(THQ)2/AChE in 50 mM PBS, pH 7.4.
2022 · Dense Conductive Metal-Organic Frameworks as Robust Electrocatalysts for Biosensing
Comparative pristine cMOF powder series · Powder · 5.0 mM K3Fe(CN)6/K4Fe(CN)6 (1:1) containing 0.1 M KCl; HET inferred from peak separation.
2022 · Dense Conductive Metal-Organic Frameworks as Robust Electrocatalysts for Biosensing
Comparative pristine cMOF powder series · Powder · CV response to Ru(NH3)6(3+) and methyl green used to infer pore-size-dependent access to interior sites.
2022 · Dissecting π-conjugated covalent-coupling over conductive MOFs toward efficient two-electron oxygen reduction
Cu-HHTP nanorod powder · Powder · O2-saturated 0.1 M KOH; same RRDE ink and loading procedure; LSV at 10 mV s-1; Pt ring collection efficiency N = 0.39 from SI calibration.
2022 · Dissecting π-conjugated covalent-coupling over conductive MOFs toward efficient two-electron oxygen reduction
Cu-HITP powder · Powder · O2-saturated 0.1 M KOH; same RRDE ink and loading procedure as Ni-HITP and Cu-HHTP.
2022 · Dissecting π-conjugated covalent-coupling over conductive MOFs toward efficient two-electron oxygen reduction
Ni-HITP black powder · Powder · O2-saturated 0.1 M KOH; three-electrode cell; catalyst ink made from 5 mg catalyst, 730 uL water, 250 uL ethanol, 20 uL Nafion; 5 uL on 4 mm RRDE; loading about 0.2 mg cm-2; LSV at 10 mV s-1 after CV cycling.
2022 · Does the Mode of Metal-Organic Framework/Electrode Adhesion Determine Rates for Redox-Hopping-Based Charge Transport within Thin-Film Metal-Organic Frameworks?
EPD-MOF-525 · Thin Film · 0.1 M TBAPF6 in DCM; 100 mV/s scan rate from 0 to 2 V; current density normalised to immersed electrode area
2022 · Does the Mode of Metal-Organic Framework/Electrode Adhesion Determine Rates for Redox-Hopping-Based Charge Transport within Thin-Film Metal-Organic Frameworks?
EPD-MOF-525 · Thin Film · 0.5 M TBAPF6 in DCM
2022 · Does the Mode of Metal-Organic Framework/Electrode Adhesion Determine Rates for Redox-Hopping-Based Charge Transport within Thin-Film Metal-Organic Frameworks?
FTO blank CV control · Electrode · FTO blank CV in 0.5 M TBAPF6 in DCM
2022 · Does the Mode of Metal-Organic Framework/Electrode Adhesion Determine Rates for Redox-Hopping-Based Charge Transport within Thin-Film Metal-Organic Frameworks?
ST-MOF-525 · Thin Film · 0.1 M TBAPF6 in DCM; 100 mV/s scan rate from 0 to 2 V; current density normalised to immersed electrode area
2022 · Does the Mode of Metal-Organic Framework/Electrode Adhesion Determine Rates for Redox-Hopping-Based Charge Transport within Thin-Film Metal-Organic Frameworks?
ST-MOF-525 · Thin Film · 0.5 M TBAPF6 in DCM
2022 · Does the Mode of Metal-Organic Framework/Electrode Adhesion Determine Rates for Redox-Hopping-Based Charge Transport within Thin-Film Metal-Organic Frameworks?
free TCPP linker in DCM/DMF · Unknown · Free linker in DCM with small amount of DMF; redox-wave assignment
2022 · Dual nanozyme based on ultrathin 2D conductive MOF nanosheets intergraded with gold nanoparticles for electrochemical biosensing of H2O2 in cancer cells
Au-NPs/Cu-HHTP-NSs/GCE · Electrode · CV in 0.1 M PBS (pH 7.4) containing 5 mM H2O2; scan rate 50 mV s-1 for concentration series.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
2.8-IrOx@Ni/Co-ZIF-67 / IrOx@Ni/Co-ZIF-67 · Nanosheet · CV curves obtained at scan rates 10, 20, 40, 60 and 80 mV s^-1 in non-Faradaic potential region; Cdl calculated from Delta j versus scan rate.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
Ni/Co-ZIF-67-2 / Ni/Co-ZIF-67 · Nanosheet · CV curves obtained at scan rates 10, 20, 40, 60 and 80 mV s^-1 in non-Faradaic potential region; Cdl calculated from Delta j versus scan rate.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
ZIF-67 nanosheet powder/control · Nanosheet · CV curves obtained at scan rates 10, 20, 40, 60 and 80 mV s^-1 in non-Faradaic potential region; Cdl calculated from Delta j versus scan rate.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
Commercial IrO2 benchmark electrode · Electrode · Three-electrode OER testing in 1 M KOH under ambient air; glassy carbon working electrode area 0.196 cm2 loaded with catalyst/Nafion/isopropanol ink at 0.2 mg cm^-2; Pt counter, Ag/AgCl/KCl reference; potentials converted to RHE; LSV scan rate 2 mV s^-1 without iR correction where specified.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
2.8-IrOx@Ni/Co-ZIF-67 / IrOx@Ni/Co-ZIF-67 · Nanosheet · Three-electrode OER testing in 1 M KOH under ambient air; glassy carbon working electrode area 0.196 cm2 loaded with catalyst/Nafion/isopropanol ink at 0.2 mg cm^-2; Pt counter, Ag/AgCl/KCl reference; potentials converted to RHE; LSV scan rate 2 mV s^-1 without iR correction where specified.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
1.6-IrOx@Ni/Co-ZIF-67 · Nanosheet · Three-electrode OER testing in 1 M KOH under ambient air; glassy carbon working electrode area 0.196 cm2 loaded with catalyst/Nafion/isopropanol ink at 0.2 mg cm^-2; Pt counter, Ag/AgCl/KCl reference; potentials converted to RHE; LSV scan rate 2 mV s^-1 without iR correction where specified.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
6.5-IrOx@Ni/Co-ZIF-67 · Nanosheet · Three-electrode OER testing in 1 M KOH under ambient air; glassy carbon working electrode area 0.196 cm2 loaded with catalyst/Nafion/isopropanol ink at 0.2 mg cm^-2; Pt counter, Ag/AgCl/KCl reference; potentials converted to RHE; LSV scan rate 2 mV s^-1 without iR correction where specified.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
Ni/Co-ZIF-67-1 · Nanosheet · Three-electrode OER testing in 1 M KOH under ambient air; glassy carbon working electrode area 0.196 cm2 loaded with catalyst/Nafion/isopropanol ink at 0.2 mg cm^-2; Pt counter, Ag/AgCl/KCl reference; potentials converted to RHE; LSV scan rate 2 mV s^-1 without iR correction where specified.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
Ni/Co-ZIF-67-2 / Ni/Co-ZIF-67 · Nanosheet · Three-electrode OER testing in 1 M KOH under ambient air; glassy carbon working electrode area 0.196 cm2 loaded with catalyst/Nafion/isopropanol ink at 0.2 mg cm^-2; Pt counter, Ag/AgCl/KCl reference; potentials converted to RHE; LSV scan rate 2 mV s^-1 without iR correction where specified.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
Ni/Co-ZIF-67-3 · Nanosheet · Three-electrode OER testing in 1 M KOH under ambient air; glassy carbon working electrode area 0.196 cm2 loaded with catalyst/Nafion/isopropanol ink at 0.2 mg cm^-2; Pt counter, Ag/AgCl/KCl reference; potentials converted to RHE; LSV scan rate 2 mV s^-1 without iR correction where specified.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
Ni/Co-ZIF-67-4 · Nanosheet · Three-electrode OER testing in 1 M KOH under ambient air; glassy carbon working electrode area 0.196 cm2 loaded with catalyst/Nafion/isopropanol ink at 0.2 mg cm^-2; Pt counter, Ag/AgCl/KCl reference; potentials converted to RHE; LSV scan rate 2 mV s^-1 without iR correction where specified.
2022 · Electrocatalytic oxygen evolution reaction at IrOx supported by Ni/Co-ZIF-67: Controlled ratio of metallic Ir and Ir3+ states
ZIF-67 nanosheet powder/control · Nanosheet · Three-electrode OER testing in 1 M KOH under ambient air; glassy carbon working electrode area 0.196 cm2 loaded with catalyst/Nafion/isopropanol ink at 0.2 mg cm^-2; Pt counter, Ag/AgCl/KCl reference; potentials converted to RHE; LSV scan rate 2 mV s^-1 without iR correction where specified.
2022 · Engineering the modulation of the active sites and pores of pristine metal-organic frameworks for high-performance sodium-ion storage
Ni-HHTP-250 electrode · Electrode · CV in sodium-ion coin cell; first five curves at 0.1 mV s-1; voltage window 0.01-3.0 V vs Na+/Na.
2022 · Engineering the modulation of the active sites and pores of pristine metal-organic frameworks for high-performance sodium-ion storage
Ni-HHTP-250 electrode · Electrode · CV scan rates from 0.1 to 1.0 mV s-1; b-values and capacitive/diffusion contributions calculated.
2022 · Engineering the modulation of the active sites and pores of pristine metal-organic frameworks for high-performance sodium-ion storage
Ni-HHTP-160 electrode · Electrode · SI Fig. S6 shows CV curves, log(peak current) vs log(scan rate) fits and capacitive/diffusion contribution ratios for comparison electrodes.
2022 · Engineering the modulation of the active sites and pores of pristine metal-organic frameworks for high-performance sodium-ion storage
Ni-HHTP-340 electrode · Electrode · SI Fig. S6 shows CV curves, log(peak current) vs log(scan rate) fits and capacitive/diffusion contribution ratios for comparison electrodes.
2022 · Engineering the modulation of the active sites and pores of pristine metal-organic frameworks for high-performance sodium-ion storage
pristine Ni-HHTP electrode · Electrode · SI Fig. S6 shows CV curves, log(peak current) vs log(scan rate) fits and capacitive/diffusion contribution ratios for comparison electrodes.
2022 · Enhancing the energy storage performances of metal-organic frameworks by controlling microstructure
A-CuHHTP composite electrode · Electrode · CR2032 SS316 symmetric coin cells; undiluted EMIM-BF4; CV at 10 mV s^-1 to 1 V; GCD to 1 V unless slow-charge test limited to 0.5 V; EIS 1 MHz to 10 mHz at OCV.
2022 · Enhancing the energy storage performances of metal-organic frameworks by controlling microstructure
A-CuHHTP composite electrode · Electrode · CR2032 SS316 symmetric coin cells; 1 M NEt4BF4 in ACN; CV at 10 mV s^-1 to 1 V; GCD to 1 V over 0.025-1 A g^-1; EIS 1 MHz to 10 mHz at OCV, 10 mV amplitude.
2022 · Enhancing the energy storage performances of metal-organic frameworks by controlling microstructure
Neat A-CuHHTP pellet electrode · Pellet · Neat A-CuHHTP pellet electrodes; 1 M NEt4BF4/ACN; CV at 10 mV s^-1; GCD charging to 0.6 V.
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
Ni3(HHTP)2 {001} oriented film on GCE · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
Ni3(HHTP)2 {100} nanorods on GCE · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
Co3(HHTP)2 {001} oriented film on GCE · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
Co3(HHTP)2 {100} nanorods on GCE · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
bare glassy carbon electrode · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
Ni3(HHTP)2 {001} oriented film on GCE · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
Co3(HHTP)2 {001} oriented film on GCE · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
Co3(HHTP)2 {100} nanorods on GCE · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
bare glassy carbon electrode · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
Ni3(HHTP)2 {100} nanorods on GCE · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
Ni3(HHTP)2 {001} oriented film on GCE · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
bare glassy carbon electrode · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
Ni3(HHTP)2 {001} oriented film on GCE · Electrode
2022 · Epitaxial Self-Assembly of Interfaces of 2D Metal-Organic Frameworks for Electroanalytical Detection of Neurotransmitters
Ni3(HHTP)2 {100} nanorods on GCE · Electrode
2022 · Exploration of Variable Temperature Magnetism and Electrical Properties of a Pyridyl-isonicotinoyl Hydrazone Bridged Three-Dimensional Mn-Metal-Organic Framework with a Thiophene Dicarboxylato Link
compound 1/graphite/PVDF coated glassy carbon electrode · Electrode · Ag/AgCl reference, Pt counter, compound 1/graphite/PVDF on glassy carbon working electrode; 1 M Na2SO4; scan rates 100, 80, 60, 40, 20, 10, 5, 2 mV/s; working potential window selected after full -2.0 to +2.0 V scan
2022 · Fe–O–Zr in MOF for effective photo-Fenton Bisphenol A degradation: Boosting mechanism of electronic transmission
FeUiO-1 powder/FTO electrochemical electrode · Electrode · CV of UiO-66 and FeUiO-1; I-t curves at 0 V vs Ag/AgCl in 0.5 M Na2SO4 with H2O2 and BPA additions; LSV from 0.0-1.5 V vs Ag/AgCl at 50 mV/s.
2022 · From 2D to 3D: Postsynthetic Pillar Insertion in Electrically Conductive MOF
THQ, BPY and Cu salt control electrodes · Electrode · CV at 10 mV s-1 using ligand and salt controls under the electrochemical performance protocol.
2022 · From 2D to 3D: Postsynthetic Pillar Insertion in Electrically Conductive MOF
Cu-THQ-BPY (1:1) drop-cast electrochemical electrode · Electrode · Three-electrode cell: Ag/AgCl reference, Pt wire counter, glassy carbon working electrode, 1 M KOH aqueous electrolyte; CV from -0.3 to -0.9 V at scan rates below 200 mV s-1 and up to 600 mV s-1 for capacitance plots.
2022 · From 2D to 3D: Postsynthetic Pillar Insertion in Electrically Conductive MOF
Cu-THQ-BPY, Cu2+:BPY feed ratio 1:1 · Powder · MOFs dispersed in isopropyl alcohol for UV-vis-NIR; LUMO measured with 0.01 M Ag/AgNO3 in 0.1 M TBAPF6 acetonitrile reference, Pt counter, glassy carbon working electrode, 0.1 M TBAPF6 acetonitrile electrolyte, Fc/Fc+ reference.
2022 · Hierarchical 3D micro-nanostructures based on in situ deposited bimetallic metal-organic structures on carbon fabric for supercapacitor applications
NZMF powder drop-cast on carbon fabric · Electrode · 1 M KOH, Ag/AgCl reference, Pt mesh counter; -0.3 to 0.3 V vs Ag/AgCl; scan rates reported as 2-200 mV s^-1 in main text and 2-150 mV s^-1 in SI.
2022 · Hierarchical 3D micro-nanostructures based on in situ deposited bimetallic metal-organic structures on carbon fabric for supercapacitor applications
in situ NZMF/CF · Electrode · 1 M KOH, -0.3 to 0.3 V vs Ag/AgCl, multiple scan rates; binder-free in situ electrode.
2022 · Hierarchical 3D micro-nanostructures based on in situ deposited bimetallic metal-organic structures on carbon fabric for supercapacitor applications
SC-ASD NZMF/CF//AC/CF device · Electrode · PVA/KOH gel electrolyte; CV windows 0.4-2.0 V and device working window 1.5 V; GCD at current densities including 1.1-8.8 A g^-1; energy/power calculated by SI Eqs. (2)-(3).
2022 · High-Entropy Metal-Organic Framework Arrays Boost Oxygen Evolution Electrocatalysis
HE-MOF nanosheet array electrode on nickel foam · Electrode · 1 M KOH; catalyst working electrode, graphite rod counter electrode, Hg/Hg2Cl2 reference; LSV at 5 mV s-1 with 85% iR compensation; EIS 100000 to 0.01 Hz at 10 mA cm-2; Cdl from 100-200 mV s-1 CVs.
2022 · High-Entropy Metal-Organic Framework Arrays Boost Oxygen Evolution Electrocatalysis
pristine nickel foam · Electrode · 1.0 M KOH; pure NF and IrO2/NF benchmark controls.
2022 · High-Entropy Metal-Organic Framework Arrays Boost Oxygen Evolution Electrocatalysis
NiFe-MOF electrode on NF · Electrode · 1.0 M KOH; Figure S15 LSV/EIS, Figure S19 Cdl; result rows specify individual samples in result names.
2022 · High-Entropy Metal-Organic Framework Arrays Boost Oxygen Evolution Electrocatalysis
HE-MOF nanosheet array electrode on nickel foam · Electrode · 1.0 M KOH; 85% iR-compensated LSV at 5 mV s-1; CV scan rates 100-200 mV s-1 for Cdl.
2022 · High-Entropy Metal-Organic Framework Arrays Boost Oxygen Evolution Electrocatalysis
HE-MOF bulk drop-cast electrode · Electrode · 1.0 M KOH; bulk morphology control.
2022 · High-Entropy Metal-Organic Framework Arrays Boost Oxygen Evolution Electrocatalysis
HE-MOF powder · Powder · 1.0 M KOH; compared with HE-MOF array and HE-MOF bulk.
2022 · High-Entropy Metal-Organic Framework Arrays Boost Oxygen Evolution Electrocatalysis
NiFeZnMo-MOF electrode on NF · Electrode · 1.0 M KOH; Figure S17 LSV/EIS, Figure S21 Cdl; result rows specify individual samples in result names.
2022 · High-Entropy Metal-Organic Framework Arrays Boost Oxygen Evolution Electrocatalysis
Fe-MOF electrode on NF · Electrode · 1.0 M KOH; Figure S14 LSV/EIS, Figure S18 Cdl; result rows specify individual samples in result names.
2022 · High-Entropy Metal-Organic Framework Arrays Boost Oxygen Evolution Electrocatalysis
NiFeZn-MOF electrode on NF · Electrode · 1.0 M KOH; Figure S16 LSV/EIS, Figure S20 Cdl; result rows specify individual samples in result names.
2022 · Imparting Functionality and Enhanced Surface Area to a 2D Electrically Conductive MOF via Macrocyclic Linker
Co-metalated Cu-HHTC · Powder · Three-electrode system with 0.01 M Ag/AgNO3 in 0.1 M TBAPF6-acetonitrile reference, Pt counter, glassy carbon working electrode, 0.1 M TBAPF6 acetonitrile electrolyte; ferrocene internal standard, 100 mV/s.
2022 · In-Built Fabrication of MOF Assimilated Porous Hollow Carbon from Pre-Hydrolysate for Supercapacitor
C1-ZIF-67 working electrode · Electrode · Three-electrode system in 1 M KOH; Hg/HgO reference; platinum counter electrode; scan rates 20, 30, 50 and 100 mV s-1.
2022 · In-Built Fabrication of MOF Assimilated Porous Hollow Carbon from Pre-Hydrolysate for Supercapacitor
C2-ZIF-67 working electrode · Electrode · Three-electrode system in 1 M KOH; Hg/HgO reference; platinum counter electrode; scan rates 20, 30, 50 and 100 mV s-1.
2022 · Iodine-induced electrical conductivity of novel columnar lanthanide metal-organic frameworks based on a butterfly-shaped π-extended tetrathiafulvalene ligand
iodine-treated Tb-MOF bulk powder · Powder · Iodine-treated Tb-MOF paste in MeCN mounted on glassy carbon electrode; Ag/AgCl reference, Pt-mesh counter, 0.1 M Bu4NPF6 in MeCN supporting electrolyte.
2022 · Iodine-induced electrical conductivity of novel columnar lanthanide metal-organic frameworks based on a butterfly-shaped π-extended tetrathiafulvalene ligand
pristine Tb-MOF bulk powder/crystals · Powder · Tb-MOF paste in MeCN mounted on glassy carbon electrode; Ag/AgCl reference, Pt-mesh counter, 0.1 M Bu4NPF6 in MeCN supporting electrolyte.
2022 · Iron-Based 2D Conductive Metal-Organic Framework Nanostructure with Enhanced Pseudocapacitance
HHTP ligand electrochemical control · Unknown · Acetonitrile with 0.1 M TBAPF6; scan rate 100 mV s-1.
2022 · Iron-Based 2D Conductive Metal-Organic Framework Nanostructure with Enhanced Pseudocapacitance
Fe-HHTP composite working electrode · Electrode · Three-electrode system in acetonitrile with 0.1 M TBAPF6; Ag/Ag+ reference, Pt counter, glassy carbon working electrode; scan rate 100 mV s-1; potential range -2 to 2 V for comparative CV.
2022 · Iron-Based 2D Conductive Metal-Organic Framework Nanostructure with Enhanced Pseudocapacitance
Fe-HHTP composite working electrode · Electrode · Electrode material scraped after electrochemical measurements, dispersed in acetone, retrieved by centrifugation and measured by PXRD.
2022 · Li-TFSI endohedral Metal-Organic frameworks in stable perovskite solar cells for Anti-Deliquescent and restricting ion migration
Li-TFSI@NH2-MIL-101 powder · Powder · band alignment of MOF additives
2022 · Metal organic frameworks (MOFs) as potential anode materials for improving power generation from algal biophotovoltaic (BPV) platforms
biofilm loaded Cu-Ni MOF/ITO · Electrode · Three-electrode assembly in Chlorella sp. UMACC 313; working electrode biofilm attached ITO/bare ITO, Pt wire counter, Ag/AgCl reference; degassed N2 10 min; sweep rate 50 mV/s.
2022 · Microscopic Insights into Cation-Coupled Electron Hopping Transport in a Metal-Organic Framework
dcphOH-NDI homogeneous linker solution · Unknown · dcphOH-NDI in 0.5 M LiClO4, KPF6 or TBAPF6 in DMF/EtOH/THF; 50 mV s-1; potentials vs Fc+/0.
2022 · Microscopic Insights into Cation-Coupled Electron Hopping Transport in a Metal-Organic Framework
Zr(dcphOH-NDI)@FTO thin-film electrodes · Electrode · Zr(dcphOH-NDI)@FTO in 0.5 M LiClO4, KPF6 or TBAPF6 in DMF; 50 mV s-1; potentials vs Fc+/0.
2022 · Morphologies of thienyl based bimetallic metal-organic frameworks controlled by solvents for high specific capacitance supercapacitor
E-NCT MOF working electrode · Electrode · 1 M KOH; E/M/D-NCT MOF and PTA-NC MOF electrodes; 10 mV s^-1 comparison.
2022 · Morphologies of thienyl based bimetallic metal-organic frameworks controlled by solvents for high specific capacitance supercapacitor
E-NCT MOF//AC ASC · Electrode · E-NCT MOF//AC ASC measured in 0 to 1.6 V potential window at different scan rates.
2022 · Morphologies of thienyl based bimetallic metal-organic frameworks controlled by solvents for high specific capacitance supercapacitor
E-NCT MOF working electrode · Electrode · E-NCT MOF analysed over 2.5 to 20 mV s^-1 using i(V)=k1v+k2v^1/2.
2022 · Morphologies of thienyl based bimetallic metal-organic frameworks controlled by solvents for high specific capacitance supercapacitor
E-NCT MOF working electrode · Electrode · E-NCT MOF CV at 2.5 mV s^-1 shown in SI Figure S6.
2022 · Nanostructured Conductive Metal Organic Frameworks for Sustainable Low Charge Overpotentials in Li–Air Batteries
Cu-THQ nanoflakes coated on GDE · Electrode · Cu-THQ catalyst coated on GDE working electrode; Li chips counter/reference; 1 M LiNO3 in TEGDME; no InBr3; pure O2 purge 30 min; scan rate 10 mV/s
2022 · Ni(II)-Based Coordination Polymer with Pi-Conjugated Organic Linker as Catalyst for Oxygen Evolution Reaction Activity
CP 1 catalyst ink drop-cast on glassy carbon electrode · Electrode · CV at scan rates 20 to 100 mV s-1 in the non-Faradaic region; current density at 0.91 V vs RHE plotted versus scan rate.
2022 · Ni(II)-Based Coordination Polymer with Pi-Conjugated Organic Linker as Catalyst for Oxygen Evolution Reaction Activity
CP 1 catalyst ink drop-cast on glassy carbon electrode · Electrode · 0.1 M KOH; three-electrode configuration; GCE working electrode; Ag/AgCl reference converted to RHE; Pt wire counter; scan rate 20 mV s-1; catalyst loading 0.20 mg cm-2.
2022 · Ni(II)-Based Coordination Polymer with Pi-Conjugated Organic Linker as Catalyst for Oxygen Evolution Reaction Activity
CP 2 catalyst ink drop-cast on glassy carbon electrode · Electrode · CV at scan rates 20 to 100 mV s-1 in the non-Faradaic region; current density at 0.91 V vs RHE plotted versus scan rate.
2022 · Ni(II)-Based Coordination Polymer with Pi-Conjugated Organic Linker as Catalyst for Oxygen Evolution Reaction Activity
CP 2 catalyst ink drop-cast on glassy carbon electrode · Electrode · 0.1 M KOH; three-electrode configuration; GCE working electrode; Ag/AgCl reference converted to RHE; Pt wire counter; scan rate 20 mV s-1; catalyst loading 0.20 mg cm-2.
2022 · Ni(II)-Based Coordination Polymer with Pi-Conjugated Organic Linker as Catalyst for Oxygen Evolution Reaction Activity
RuO2 benchmark electrode · Electrode · 0.1 M KOH; comparison with CP 1 and CP 2 in Figure 4A.
2022 · Nickel(II) Cluster-Based Pillar-Layered Metal-Organic Frameworks for High-Performance Supercapacitors
Ni-mba-K//NDC asymmetric supercapacitor · Electrode · CR2035 Ni-mba-K//NDC device, cellulose cloth diaphragm, 6 M KOH; operating voltage 0-1.6 V.
2022 · Nickel(II) Cluster-Based Pillar-Layered Metal-Organic Frameworks for High-Performance Supercapacitors
Ni-mba-Na//NDC asymmetric supercapacitor · Electrode · CR2035 Ni-mba-Na//NDC device, cellulose cloth diaphragm, 6 M KOH; operating voltage 0-1.6 V.
2022 · Nickel(II) Cluster-Based Pillar-Layered Metal-Organic Frameworks for High-Performance Supercapacitors
Ni-mba-K nickel-foam working electrode · Electrode · 6 M KOH, CHI760E, Ni-mba-K/Ni foam working electrode, Pt counter, Hg/HgO reference; voltage 0-0.6 V for CV and 0-0.5 V for GCD.
2022 · Nickel(II) Cluster-Based Pillar-Layered Metal-Organic Frameworks for High-Performance Supercapacitors
Ni-mba-Na nickel-foam working electrode · Electrode · 6 M KOH, CHI760E, Ni-mba-Na/Ni foam working electrode, Pt counter, Hg/HgO reference; voltage 0-0.6 V for CV and 0-0.5 V for GCD.
2022 · Nickel(II) Cluster-Based Pillar-Layered Metal-Organic Frameworks for High-Performance Supercapacitors
NDC negative electrode · Electrode · NDC characterised as negative electrode material; details in Figure S7 and main text.
2022 · NiPd mediated by conductive metal organic frameworks with facilitated electron transfer for assaying of H2O2 released from living cells
NiPd@Ni3HHTP2/GC · Electrode · Bare GC, NiPd/GC, Ni3HHTP2/GC and NiPd@Ni3HHTP2/GC in N2-saturated 10 mM PBS, pH 7.4.
2022 · NiPd mediated by conductive metal organic frameworks with facilitated electron transfer for assaying of H2O2 released from living cells
NiPd/GC · Electrode · Bare GC background and NiPd/GC electrode in 0.1 M H2SO4; scan rate 50 mV s-1.
2022 · NiPd mediated by conductive metal organic frameworks with facilitated electron transfer for assaying of H2O2 released from living cells
NiPd@Ni3HHTP2/GC · Electrode · N2-saturated 10 mM PBS (pH 7.4) containing 5 mM H2O2; scan rate 50 mV s-1 for Fig. 3F comparisons.
2022 · NiPd mediated by conductive metal organic frameworks with facilitated electron transfer for assaying of H2O2 released from living cells
NiPd@Ni3HHTP2/GC · Electrode · 10 mV s-1 in N2-saturated 10 mM PBS (pH 7.4) containing 1.0 mM H2O2; rotating speeds 200-1600 rpm.
2022 · NiPd mediated by conductive metal organic frameworks with facilitated electron transfer for assaying of H2O2 released from living cells
NiPd@Ni3HHTP2/GC · Electrode · N2-saturated 10 mM PBS (pH 7.4) containing 1 mM H2O2; scan rates 10-200 mV s-1.
2022 · NiPd mediated by conductive metal organic frameworks with facilitated electron transfer for assaying of H2O2 released from living cells
Ni3HHTP2/GC · Electrode · Ni3HHTP2/GC electrochemically scanned in 10 mM PBS (pH 7.4) for 24 h.
2022 · One-step electrochemical synthesis of tremella-like Co-MOFs/carbon nanohorns films for enhanced electrochemical sensing of carbendazim in vegetable and fruit samples
Co-MOFs/CNHs/GCE composite sensing electrode · Electrode · CBZ concentration series 0.0005, 0.005, 0.01, 0.05, 0.1, 0.5, 1.0, 5.0, 10.0, and 20.0 uM in 0.1 M PBS, pH 6.0; optimum conditions.
2022 · One-step electrochemical synthesis of tremella-like Co-MOFs/carbon nanohorns films for enhanced electrochemical sensing of carbendazim in vegetable and fruit samples
Co-MOFs/CNHs/GCE composite sensing electrode · Electrode · 10.0 uM CBZ in 0.1 M PBS, pH 6.0; scan rates 10-300 mV s-1.
2022 · One-step electrochemical synthesis of tremella-like Co-MOFs/carbon nanohorns films for enhanced electrochemical sensing of carbendazim in vegetable and fruit samples
Co-MOFs/CNHs/GCE composite sensing electrode · Electrode · 0.1 M PBS, pH 6.0, containing 10.0 uM CBZ; working potential 0.4-1.2 V; pulse width 0.05 s; amplitude 50 mV.
2022 · One-step electrochemical synthesis of tremella-like Co-MOFs/carbon nanohorns films for enhanced electrochemical sensing of carbendazim in vegetable and fruit samples
Co-MOFs/CNHs/GCE composite sensing electrode · Electrode · 10.0 uM CBZ in 0.1 M PBS over pH 4.0-8.0.
2022 · One-step electrochemical synthesis of tremella-like Co-MOFs/carbon nanohorns films for enhanced electrochemical sensing of carbendazim in vegetable and fruit samples
Co-MOFs/CNHs/GCE composite sensing electrode · Electrode · Real samples centrifuged, filtered through 0.45 um membrane, diluted 100 times with 0.1 M PBS pH 6.0, and analysed by standard addition.
2022 · One-step electrochemical synthesis of tremella-like Co-MOFs/carbon nanohorns films for enhanced electrochemical sensing of carbendazim in vegetable and fruit samples
Co-MOFs/CNHs/GCE composite sensing electrode · Electrode · 10.0 uM CBZ in 0.1 M PBS, pH 6.0; seven independent electrodes; one electrode measured twenty times; interferents K+, Na+, Cu2+, Cl-, NO3-, SO4(2-), uric acid, ascorbic acid, fenitrothion, malathion, and thiabendazole.
2022 · One-step electrochemical synthesis of tremella-like Co-MOFs/carbon nanohorns films for enhanced electrochemical sensing of carbendazim in vegetable and fruit samples
Co-MOFs/CNHs/GCE composite sensing electrode · Electrode · 10.0 uM CBZ on Co-MOFs/CNHs/GCE in 0.1 M PBS, pH 6.0.
2022 · One-Step Solvothermal Synthesis of Raspberry-like NiCo-MOF for High-Performance Flexible Supercapacitors for a Wide Operation Temperature Range
NiCo-MOF-3//MnO2 flexible asymmetric supercapacitor · Electrode · NiCo-MOF-3//MnO2 quasi-solid-state FASC with PVA/KOH/K3[Fe(CN)6]/glycerin gel electrolyte; operating potential up to 1.6 V; CV 10-100 mV/s; GCD 1-20 A/g; EIS 10^-2 to 10^4 Hz.
2022 · One-Step Solvothermal Synthesis of Raspberry-like NiCo-MOF for High-Performance Flexible Supercapacitors for a Wide Operation Temperature Range
NiCo-MOF-3//MnO2 flexible asymmetric supercapacitor · Electrode · Device tested at bending angles 0, 45, 90, and 135 deg and operating temperatures -20, 20, and 40 deg C.
2022 · One-Step Solvothermal Synthesis of Raspberry-like NiCo-MOF for High-Performance Flexible Supercapacitors for a Wide Operation Temperature Range
MnO2 negative electrode · Electrode · Independent MnO2 electrode in 3.0 M KOH; negative potential interval from -1.0 V to 0 V.
2022 · One-Step Solvothermal Synthesis of Raspberry-like NiCo-MOF for High-Performance Flexible Supercapacitors for a Wide Operation Temperature Range
NiCo-MOF-3 powder · Powder · CV at 5, 10, 20, 50, 100 mV/s; GCD at 1, 2, 5, 10 A/g; 7000 continuous charge-discharge cycles at 1 A/g.
2022 · One-Step Solvothermal Synthesis of Raspberry-like NiCo-MOF for High-Performance Flexible Supercapacitors for a Wide Operation Temperature Range
NiCo-MOF-3 powder · Powder · Working electrode prepared active material; Pt counter; Hg/HgO reference; 3.0 M KOH electrolyte; CV 0-0.42 V at 5 mV/s for comparison; GCD current density 1 A/g for specific capacitance.
2022 · Operando Elucidation of Electrocatalytic and Redox Mechanisms on a 2D Metal Organic Framework Catalyst for Efficient Electrosynthesis of Hydrogen Peroxide in Neutral Media
Ni-HAB RRDE disk catalyst film · Electrode · Ni-HAB catalyst in Ar-saturated 0.05 M NaPi; scan-rate CVs used to identify linker redox potential.
2022 · Operando Elucidation of Electrocatalytic and Redox Mechanisms on a 2D Metal Organic Framework Catalyst for Efficient Electrosynthesis of Hydrogen Peroxide in Neutral Media
Ni-HAB RRDE disk catalyst film · Electrode · Ni-HAB, Ni-HITP and Cu-HAB compared in 0.025 M Na2HPO4/NaH2PO4 buffer pH 6.5-6.6 at 1600 rpm.
2022 · Operando Elucidation of Electrocatalytic and Redox Mechanisms on a 2D Metal Organic Framework Catalyst for Efficient Electrosynthesis of Hydrogen Peroxide in Neutral Media
Ni-HAB RRDE disk catalyst film · Electrode · 0.05 M NaPi buffer pH 6.5-6.6, 1600 rpm, 50 mV/s LSV or CA; O2-saturated and Ar-saturated conditions.
2022 · Phthalocyanine-Based Two-Dimensional Conductive Metal-Organic Framework as Electrochemical Sensor for Highly Sensitive Detection of Nifedipine
CoPc-Cu MOF/GCE · Electrode · 20 uM NIF in 10 ml 0.2 M PBS buffer (pH 7.0), comparing bare GCE, CoPc/GCE, and CoPc-Cu MOF/GCE; blank buffer also measured.
2022 · Phthalocyanine-Based Two-Dimensional Conductive Metal-Organic Framework as Electrochemical Sensor for Highly Sensitive Detection of Nifedipine
CoPc-Cu MOF/GCE · Electrode · DPV curves for 0.01-92.55 uM NIF in pH 7.0 PBS buffer at CoPc-Cu MOF/GCE.
2022 · Phthalocyanine-Based Two-Dimensional Conductive Metal-Organic Framework as Electrochemical Sensor for Highly Sensitive Detection of Nifedipine
CoPc-Cu MOF/GCE · Electrode · NIF response measured while varying CoPc-Cu MOF concentration, coating amount, and PBS pH.
2022 · Phthalocyanine-Based Two-Dimensional Conductive Metal-Organic Framework as Electrochemical Sensor for Highly Sensitive Detection of Nifedipine
CoPc-Cu MOF/GCE · Electrode · 50 uM NIF in pH 7.0 PBS for reproducibility/stability; 2.0 uM NIF with common interferents for selectivity.
2022 · Phthalocyanine-Based Two-Dimensional Conductive Metal-Organic Framework as Electrochemical Sensor for Highly Sensitive Detection of Nifedipine
CoPc-Cu MOF/GCE · Electrode · 20 uM NIF; scan rates from 10 to 100 mV s-1.
2022 · Phthalocyanine-Based Two-Dimensional Conductive Metal-Organic Framework as Electrochemical Sensor for Highly Sensitive Detection of Nifedipine
CoPc-Cu MOF/GCE · Electrode · NIF tablet solutions filtered and diluted in methanol; measurements repeated three times for each sample.
2022 · Preparation of Bimetallic Conductive Metal-organic Framework Material Ni/Co-CAT for Electrocatalytic Oxygen Reduction 双金属导电金属有机框架材料 Ni/Co-CAT 的制备及其氧还原催化性能研究
Ni-Co-CAT/carbon black/PTFE air cathode · Electrode · Three-electrode system in 50 mmol/L phosphate buffer; electrode clip working-electrode base, graphite rod counter electrode, Hg/HgO reference; potential window -0.6 to 0.6 V; scan rate 0.01 V/s.
2022 · Preparation of Bimetallic Conductive Metal-organic Framework Material Ni/Co-CAT for Electrocatalytic Oxygen Reduction 双金属导电金属有机框架材料 Ni/Co-CAT 的制备及其氧还原催化性能研究
Ni-Co-CAT/carbon black/PTFE air cathode · Electrode · Three-electrode system in 50 mmol/L phosphate buffer; potential window -0.6 to 0.6 V; scan rate 0.01 V/s.
2022 · Preparation of Bimetallic Conductive Metal-organic Framework Material Ni/Co-CAT for Electrocatalytic Oxygen Reduction 双金属导电金属有机框架材料 Ni/Co-CAT 的制备及其氧还原催化性能研究
Ni-Co-CAT/carbon black/PTFE air cathode · Electrode · Tafel curves calculated from LSV using η = a + b lg i; current density in mA/cm2; Tafel slope in mV/dec.
2022 · Probing the electronic and ionic transport in topologically distinct redox-active metal-organic frameworks in aqueous electrolytes
Mn-CAU-24 dry pellet · Pellet · Dry pellet sandwiched between two Ti foils; measured at room temperature in air under two-electrode mode; resistance fitted near 0 V.
2022 · Probing the electronic and ionic transport in topologically distinct redox-active metal-organic frameworks in aqueous electrolytes
Mn-MOF-808 dry pellet · Pellet · Dry pellet sandwiched between two Ti foils; measured at room temperature in air under two-electrode mode; resistance fitted near 0 V.
2022 · Probing the electronic and ionic transport in topologically distinct redox-active metal-organic frameworks in aqueous electrolytes
Mn-UiO-66 dry pellet · Pellet · Dry pellet sandwiched between two Ti foils; measured at room temperature in air under two-electrode mode; resistance fitted near 0 V.
2022 · Probing the electronic and ionic transport in topologically distinct redox-active metal-organic frameworks in aqueous electrolytes
All powder materials: MOF-808, Mn-MOF-808, UiO-66, Mn-UiO-66, CAU-24 and Mn-CAU-24 · Powder · MOF-808, UiO-66 and CAU-24 pristine control thin films measured at 50 mV s-1 in 0.5 M Na2SO4(aq), conventional three-electrode setup with Ag/AgCl/NaCl (3 M) reference and Pt counter.
2022 · Probing the electronic and ionic transport in topologically distinct redox-active metal-organic frameworks in aqueous electrolytes
Mn-CAU-24 thin film on FTO · Thin Film · Mn-CAU-24 thin film in 0.05-1.0 M Na2SO4(aq); anodic peak near +0.6 V vs Ag/AgCl/NaCl (3 M) used.
2022 · Probing the electronic and ionic transport in topologically distinct redox-active metal-organic frameworks in aqueous electrolytes
Mn-MOF-808 thin film on FTO · Thin Film · Mn-MOF-808 thin film in 0.05-1.0 M Na2SO4(aq); anodic peak near +0.6 V vs Ag/AgCl/NaCl (3 M) used.
2022 · Probing the electronic and ionic transport in topologically distinct redox-active metal-organic frameworks in aqueous electrolytes
Mn-UiO-66 thin film on FTO · Thin Film · Mn-UiO-66 thin film in 0.05-1.0 M Na2SO4(aq); anodic peak near +0.6 V vs Ag/AgCl/NaCl (3 M) used.
2022 · Rapid and sensitive detection of PD-L1 exosomes using Cu-TCPP 2D MOF as a SPR sensitizer
2D MOF-modified gold electrode · Electrode · Three-electrode system with modified gold electrode, saturated calomel reference, platinum counter electrode; stepwise addition of 2D MOF, peptides, and exosomes.
2022 · Redox-Active Metal-Organic Frameworks with Three-Dimensional Lattice Containing the m-Tetrathiafulvalene-Tetrabenzoate
Er-m-TTFTB polycrystalline/powder sample · Powder · Same solid-state CV setup as Tb; SI Figure S6 reports Er-m-TTFTB consecutive cycles and scan-rate dependence.
2022 · Redox-Active Metal-Organic Frameworks with Three-Dimensional Lattice Containing the m-Tetrathiafulvalene-Tetrabenzoate
Gd-m-TTFTB polycrystalline/powder sample · Powder · Same solid-state CV setup as Tb; SI Figure S7 reports Gd-m-TTFTB consecutive cycles and scan-rate dependence.
2022 · Redox-Active Metal-Organic Frameworks with Three-Dimensional Lattice Containing the m-Tetrathiafulvalene-Tetrabenzoate
Tb-m-TTFTB polycrystalline/powder sample · Powder · 0.1 M LiBF4 in distilled CH3CN; glassy carbon working electrode with powder sample paste in ethanol; Pt wire auxiliary; Ag wire quasi-reference; ferrocene internal standard; potentials vs Fc/Fc+.
2022 · Redox-Active Ni(II) Nodes Induced Electrochromism in a Two-Dimensional Conductive Metal-Organic Framework
Ni3(HITP)2-362 nm/FTO electrode · Electrode · CV at 10, 20, 30, 40, 50, 60, and 70 mV/s in LiClO4/PC; Dcv calculated by eq S4.
2022 · Redox-Active Ni(II) Nodes Induced Electrochromism in a Two-Dimensional Conductive Metal-Organic Framework
Ni3(HITP)2-362 nm/FTO electrode · Electrode · CV at 10 mV/s with corresponding in situ transmittance at 780 nm; potentials between 0.2 and -1.5 V in 1 M LiClO4/PC.
2022 · Redox-Active Ni(II) Nodes Induced Electrochromism in a Two-Dimensional Conductive Metal-Organic Framework
Ni3(HITP)2-290 nm/FTO electrode · Electrode · Transmittance at 780 nm cycled between 0.2 V and -1.5 V; Raman and CV before/after 100 cycles.
2022 · Self-supporting electrochemical sensors for monitoring of cell-released H2O2 based on metal nanoparticle/MOF nanozymes
Ag/2D Zn-MOF/GCE · Electrode · CV in 0.1 M PBS with H2O2; scan rate 100 mV/s; concentration and scan-rate series in SI.
2022 · Size-Dependent Properties of Solution-Processable Conductive MOF Nanocrystals
Fe(TA)2 colloid CV series in 0.1 M TBAPF6/DMF · Electrode · DMF with 0.1 M TBAPF6; glassy carbon working electrode, silver wire pseudo-reference, platinum counter electrode; scans at 10, 40, 70, 100 and 130 mV/s.
2022 · Size-Dependent Properties of Solution-Processable Conductive MOF Nanocrystals
16 nm Fe(TA)2 drop-cast glassy-carbon electrode · Electrode · 0.1 M TBAPF6/MeCN and 0.1 M TBABF4/MeCN; scans at 10, 100, 300 and 500 mV/s.
2022 · Size-Dependent Properties of Solution-Processable Conductive MOF Nanocrystals
16 nm Fe(TA)2 spin-coated QCM film · Electrode · 16 nm Fe(TA)2 films on Pt/Ti QCM in 0.1 M TBAPF6 or TBABF4 in MeCN; frequency converted to mass using Sauerbrey relation.
2022 · sp-Carbon Incorporated Conductive Metal-Organic Framework as Photocathode for Photoelectrochemical Hydrogen Generation
Cu3HHAE2 photocathode on Cu foam · Electrode · Three-electrode cell in 0.1 M Na2SO4 aqueous solution (pH 6.8); Cu foam with catalyst working electrode, Ag/AgCl reference, graphite rod counter; 200 W Xenon lamp, AM 1.5G, 100 mW cm-2; electrolyte degassed with Ar 30 min; i-t at 0 V vs RHE and LSV at 2 mV s-1.
2022 · sp-Carbon Incorporated Conductive Metal-Organic Framework as Photocathode for Photoelectrochemical Hydrogen Generation
HHAE monomer cathode on Cu foam · Electrode · Same three-electrode PEC HER conditions as Cu3HHAE2 control: 0.1 M Na2SO4, 200 W Xenon lamp, AM 1.5G, 100 mW cm-2, 0 V vs RHE for i-t.
2022 · Split-cell symmetric supercapacitor performance of bimetallic MOFs yolk-shell hierarchical microstructure
Ni-Zn MOF//Ni-Zn MOF split-cell symmetric device (SC-SD) · Electrode · SC-SD CV profiles at a stated 1.6 V figure-caption potential window across scan rates; SI gives 10-400 mV s-1, while Fig. 3b legend also includes 500 mV s-1.
2022 · Split-cell symmetric supercapacitor performance of bimetallic MOFs yolk-shell hierarchical microstructure
Ni-Zn MOF//Ni-Zn MOF split-cell symmetric device (SC-SD) · Electrode · CV profiles at different potential windows; Fig. 3a scan rate 50 mV s-1; SI says CV tests at 10-400 mV s-1 and 0-2 V on a Biologic SP-200.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
2-GCE · Electrode · 0.5 M H2SO4 containing ascorbic acid at different concentrations; 50 mV s-1; compared with {P2W18O62}-GCE and 1-GCE.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
1-GCE · Electrode · 0.5 M H2SO4, three-electrode system, 20-200 mV s-1; voltage window -0.65 to 0.50 V.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
2-CPE · Electrode · 0.5 M H2SO4, 10-100 mV s-1, voltage window -0.6 to 0.5 V; b-value and pseudocapacitive contribution analysis.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
2-GCE · Electrode · 0.5 M H2SO4, three-electrode system, 20-200 mV s-1; voltage window -0.65 to 0.60 V.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
{P2W18O62}-GCE · Electrode · 0.5 M H2SO4, three-electrode system, 20-200 mV s-1; voltage window -0.65 to 0.50 V.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
2-GCE · Electrode · 0.5 M H2SO4 containing H2O2 at different concentrations; 50 mV s-1; compared with {P2W18O62}-GCE and 1-GCE.
2022 · Surface Structure Construction of Fibers in a Conductive Metal-Organic Framework/Metal/Cotton Electrode for Flexible Textile Supercapacitors
CPAMOF Cu-MOF/Au/cotton electrode · Electrode · CV curves analysed at scan rates from 1 to 100 mV s-1.
2022 · Surface Structure Construction of Fibers in a Conductive Metal-Organic Framework/Metal/Cotton Electrode for Flexible Textile Supercapacitors
CPAMOF Cu-MOF/Au/cotton electrode · Electrode · Bending: 100 cycles at 180 degrees; twisting: 0 to 45 degrees.
2022 · Surface Structure Construction of Fibers in a Conductive Metal-Organic Framework/Metal/Cotton Electrode for Flexible Textile Supercapacitors
Symmetrical all-solid-state TSC assembled from CPAMOF electrodes · Electrode · TSC bending: 200 cycles at 90 degrees; twisting: angles from 0 to 45 degrees.
2022 · Surface Structure Construction of Fibers in a Conductive Metal-Organic Framework/Metal/Cotton Electrode for Flexible Textile Supercapacitors
CPAMOF Cu-MOF/Au/cotton electrode · Electrode · 3 mol L-1 KCl aqueous electrolyte; CPAMOF working electrode, Ag/AgCl reference and Pt wire counter; CHI 660E workstation.
2022 · Surface Structure Construction of Fibers in a Conductive Metal-Organic Framework/Metal/Cotton Electrode for Flexible Textile Supercapacitors
Symmetrical all-solid-state TSC assembled from CPAMOF electrodes · Electrode · Assembled symmetrical all-solid-state TSC tested in two-electrode configuration.
2022 · Synergistic effect of Co/Ni bimetallic metal–organic nanostructures for enhanced electrochemical energy storage
Co/Ni-MOF-2:1//AC ASC device · Electrode · Co/Ni-MOF-2:1 positive electrode and activated carbon negative electrode in 3.0 M KOH; 0-1.4 V CV window; GCD 0.5-5 A g-1; cycling at 5 A g-1.
2022 · Synergistic effect of Co/Ni bimetallic metal–organic nanostructures for enhanced electrochemical energy storage
Co/Ni-MOF-2:1 three-electrode working electrode · Electrode · 3.0 M KOH at room temperature; Hg/HgO reference; 0-0.6 V window; scan rates including 20 mV s-1 and 10-100 mV s-1.
2022 · Synergistic effect of Co/Ni bimetallic metal–organic nanostructures for enhanced electrochemical energy storage
Co/Ni-MOF-1:1 three-electrode working electrode · Electrode · Specific peak currents extracted from CV curves at scan rates from 10 to 100 mV s-1 in 3.0 M KOH.
2022 · Synergistic effect of Co/Ni bimetallic metal–organic nanostructures for enhanced electrochemical energy storage
Co/Ni-MOF-1:2 three-electrode working electrode · Electrode · Specific peak currents extracted from CV curves at scan rates from 10 to 100 mV s-1 in 3.0 M KOH.
2022 · Synergistic effect of Co/Ni bimetallic metal–organic nanostructures for enhanced electrochemical energy storage
Co/Ni-MOF-2:1 three-electrode working electrode · Electrode · CV curves from 10 to 100 mV s-1 in 3.0 M KOH; ip = a v^b and i(V) = k1 v + k2 v^1/2 analysis.
2022 · Synergistic effect of Co/Ni bimetallic metal–organic nanostructures for enhanced electrochemical energy storage
Co/Ni-MOF-3:1 three-electrode working electrode · Electrode · Specific peak currents extracted from CV curves at scan rates from 10 to 100 mV s-1 in 3.0 M KOH.
2022 · Synergistic effect of Co/Ni bimetallic metal–organic nanostructures for enhanced electrochemical energy storage
Ni-MOF three-electrode working electrode · Electrode · Specific peak currents extracted from CV curves at scan rates from 10 to 100 mV s-1 in 3.0 M KOH.
2022 · Synthesis of Tostadas-Shaped Metal-Organic Frameworks for Remitting Capacity Fading of Li-Ion Batteries
NHM composite working electrode · Electrode · Initial three cycles; 0.01-3.0 V; 0.1 mV s-1.
2022 · Synthesis of Tostadas-Shaped Metal-Organic Frameworks for Remitting Capacity Fading of Li-Ion Batteries
NHM composite working electrode · Electrode · Scan rates 0.2-1.2 mV s-1; b-value analysis and capacitive/diffusion separation.
2022 · Synthesis of Tostadas-Shaped Metal-Organic Frameworks for Remitting Capacity Fading of Li-Ion Batteries
NHP composite working electrode · Electrode · Scan rates 0.2-1.2 mV s-1.
2022 · Synthesis of Tostadas-Shaped Metal-Organic Frameworks for Remitting Capacity Fading of Li-Ion Batteries
NHS composite working electrode · Electrode · Scan rates 0.2-1.2 mV s-1.
2022 · Target-triggered hybridization chain reaction for ultrasensitive dual-signal miRNA detection
DNA1-Fc + DNA2-MB/miRNA/MCH/T4-DNA/AuNPs/N-PCD/GCE biosensor · Electrode · Constructed electrochemical sensor used to detect miRNA-21 in total RNA from cell samples.
2022 · Target-triggered hybridization chain reaction for ultrasensitive dual-signal miRNA detection
DNA1-Fc + DNA2-MB/miRNA/MCH/T4-DNA/AuNPs/N-PCD/GCE biosensor · Electrode · DPV compared final electrode with N-PCD against no-N-PCD Au/GCE control at 2000 fM miRNA-21. SI DPV: 10 mM PBS pH 7.0 under N2, -0.6 to 0.4 V.
2022 · Target-triggered hybridization chain reaction for ultrasensitive dual-signal miRNA detection
Dual miRNA-21/miRNA-141 biosensor · Electrode · MB signal detects miRNA-21 and Fc signal detects miRNA-141 for 0-10000 fM target concentrations.
2022 · Target-triggered hybridization chain reaction for ultrasensitive dual-signal miRNA detection
DNA1-Fc + DNA2-MB/miRNA/MCH/T4-DNA/AuNPs/N-PCD/GCE biosensor · Electrode · DPV peak currents of Fc and MB probes recorded for 0, 5, 10, 50, 100, 500, 2000, 5000 and 10000 fM miRNA-21.
2022 · Target-triggered hybridization chain reaction for ultrasensitive dual-signal miRNA detection
N-PCD modified glassy carbon electrode · Electrode · CV of N-PCD/GCE; scan rate 20-200 mV/s at 20 mV/s intervals. SI CV electrolyte: 0.1 M PBS pH 7.4 with 5 mM [Fe(CN)6]3-/4- and 0.1 M KCl, -0.2 to 0.6 V at 100 mV/s for standard CV.
2022 · Target-triggered hybridization chain reaction for ultrasensitive dual-signal miRNA detection
DNA1-Fc + DNA2-MB/miRNA/MCH/T4-DNA/AuNPs/N-PCD/GCE biosensor · Electrode · Six electrodes measured for reproducibility; five electrodes stored at 4 deg C for 10 days and tested every 2 days.
2022 · Target-triggered hybridization chain reaction for ultrasensitive dual-signal miRNA detection
DNA1-Fc + DNA2-MB/miRNA/MCH/T4-DNA/AuNPs/N-PCD/GCE biosensor · Electrode · DPV responses to 2000 fM miRNA-21 and interfering RNA sequences.
2022 · Target-triggered hybridization chain reaction for ultrasensitive dual-signal miRNA detection
DNA1-Fc + DNA2-MB/miRNA/MCH/T4-DNA/AuNPs/N-PCD/GCE biosensor · Electrode · Optimised Au deposition time, miRNA incubation time, DNA1-Fc/DNA2-MB concentration and co-incubation time using 2000 fM miRNA.
2022 · Target-triggered hybridization chain reaction for ultrasensitive dual-signal miRNA detection
Single-signal Fc miRNA-21 biosensor · Electrode · Fc DPV signal for 0, 5, 10, 50, 100, 500, 2000, 5000 and 10000 fM miRNA-21.
2022 · Target-triggered hybridization chain reaction for ultrasensitive dual-signal miRNA detection
Single-signal MB miRNA-21 biosensor · Electrode · MB DPV signal for 0, 5, 10, 50, 100, 500, 2000, 5000 and 10000 fM miRNA-21.
2022 · Target-triggered hybridization chain reaction for ultrasensitive dual-signal miRNA detection
DNA1-Fc + DNA2-MB/miRNA/MCH/T4-DNA/AuNPs/N-PCD/GCE biosensor · Electrode · CV of electrodes modified with GCE, N-PCD/GCE, AuNPs/N-PCD/GCE, T4-DNA, MCH, miRNA and DNA probes.
2022 · Thousand-fold increase in O2electroreduction rates with conductive MOFs
0.4 mg cm^-2 Ni3(HITP)2 GDE · Electrode · CVs in N2 before potentiostatic electrolysis; ten cycles at 200, 100, 75, 50 and 20 mV s^-1; capacitance divided by 18 uF cm_real^-2 to estimate ECSA.
2022 · Tunable Capacitive Behavior in Metallopolymer-based Electrochromic Thin Film Supercapacitors
poly-Fe-L1 drop-cast thin film · Thin Film · 0.1 M LiClO4 in dry acetonitrile; metallopolymer-modified FTO/TCO working electrode, Ag/AgCl reference, Pt counter; pulse width 5 s; potential window 0.7-1.5 V
2022 · Tunable Capacitive Behavior in Metallopolymer-based Electrochromic Thin Film Supercapacitors
poly-Fe-L2 drop-cast thin film · Thin Film · 0.1 M LiClO4 in dry acetonitrile; metallopolymer-modified FTO/TCO working electrode, Ag/AgCl reference, Pt counter; pulse width 5 s; potential window 0.7-1.5 V
2022 · Tunable Capacitive Behavior in Metallopolymer-based Electrochromic Thin Film Supercapacitors
poly-Fe-L3 drop-cast thin film · Thin Film · 0.1 M LiClO4 in dry acetonitrile; metallopolymer-modified FTO/TCO working electrode, Ag/AgCl reference, Pt counter; pulse width 5 s; potential window 0.7-1.5 V
2022 · Tunable Capacitive Behavior in Metallopolymer-based Electrochromic Thin Film Supercapacitors
poly-Fe-L1 symmetric supercapacitor electrode composite · Electrode · 0.0-1.0 V window; current densities 0.25-2.0 A g-1; cycling at 1.0 A g-1; room temperature
2022 · Tunable Capacitive Behavior in Metallopolymer-based Electrochromic Thin Film Supercapacitors
poly-Fe-L2 symmetric supercapacitor electrode composite · Electrode · 0.0-1.0 V window; current densities 0.25-2.0 A g-1; cycling at 1.0 A g-1; room temperature
2022 · Tunable Capacitive Behavior in Metallopolymer-based Electrochromic Thin Film Supercapacitors
poly-Fe-L3 symmetric supercapacitor electrode composite · Electrode · 0.0-1.0 V window; current densities 0.25-2.0 A g-1; cycling at 1.0 A g-1; room temperature
2022 · Ultrafast transformation of metal-organic frameworks into advanced oxygen evolution electrocatalysts with good universality and scalability
Fe-CoNi MOFs on Ni foam, 0.10 M Fe(NO3)3 · Electrode · CV curves recorded from 5 to 25 mV s^-1 with 5 mV s^-1 interval; ECSA = Cdl/Cs with Cs = 40 uF cm^-2.
2022 · Wet-Adhesive On-Skin Sensors Based on Metal–Organic Frameworks for Wireless Monitoring of Metabolites in Sweat
Ni3HHTP2 film working electrode on Au/BNC · Electrode · CV in PBS solution using AA as electrochemical probe; Figure S9 scanned at 50 mV/s in 0.1 M PBS with/without AA.
2022 · Wet-Adhesive On-Skin Sensors Based on Metal–Organic Frameworks for Wireless Monitoring of Metabolites in Sweat
Ni3HHTP2 film working electrode on Au/BNC · Electrode · 0.1 M PBS; DPV range -0.2 to 0.7 V, incremental potential 0.004 V, pulse amplitude 0.05 V; UA concentrations read from Figure 2f inset.
2021 · 2D/2D NiCo-MOFs/GO hybrid nanosheets for high-performance asymmetrical supercapacitor
Activated carbon negative electrode · Electrode · AC electrode characterised over -1.0 to 0 V by CV, GCD and Nyquist plot; shown in SI Fig. S9 as negative-electrode control/context for ASC.
2021 · 2D/2D NiCo-MOFs/GO hybrid nanosheets for high-performance asymmetrical supercapacitor
NCMG-10//AC asymmetric supercapacitor · Electrode · NCMG-10 positive electrode, AC negative electrode, 2 M KOH electrolyte; working voltage set to 1.5 V; CV from 5-50 mV s-1; cycling over 10000 cycles.
2021 · 2D/2D NiCo-MOFs/GO hybrid nanosheets for high-performance asymmetrical supercapacitor
NCMG-10 · Nanosheet · NCMG-10 CV curves at different scan rates; b-values from log(v)-log(ip); capacitive contribution from k1v + k2v1/2 analysis.
2021 · 2D/2D NiCo-MOFs/GO hybrid nanosheets for high-performance asymmetrical supercapacitor
NCMG-10 · Nanosheet · Three-electrode system in 2 mol L-1 KOH; CV 0-0.5 V; GCD 0-0.4 V; capacities at 0.5 A g-1 and rate/cycling tests.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
1-Dy · Powder · Three forward scans and scan-rate series from 50-400 mV s-1; potentials vs Fc/Fc+.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
1-Er · Powder · Same setup as 1-Dy; redox potentials reported vs Fc/Fc+.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
1-Gd · Powder · Sample dispersed in ethanol and dropped on glassy carbon; SCE reference; Pt auxiliary; Fc/Fc+ internal standard; 0.1 mol L-1 tetrabutylammonium hexafluorophosphate in CH3CN.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
1-Tb · Powder · Same setup as 1-Dy; redox potentials reported vs Fc/Fc+.
2021 · A multifunctional n-doped cu–mofs (N–cu–mof) nanomaterial-driven electrochemical aptasensor for sensitive detection of deoxynivalenol
AP1-grafted N-Cu-MOF/GCE aptasensor · Electrode · PBS 1 mmol L-1, pH 5.0; successive DON additions; DeltaI = Ip - Ip0.
2021 · A multifunctional n-doped cu–mofs (N–cu–mof) nanomaterial-driven electrochemical aptasensor for sensitive detection of deoxynivalenol
AP1-grafted N-Cu-MOF/GCE aptasensor · Electrode · AP1/N-Cu-MOF/GCE in PBS 1 mmol L-1, pH 5.0 without DON; curve c in Figure 3.
2021 · A multifunctional n-doped cu–mofs (N–cu–mof) nanomaterial-driven electrochemical aptasensor for sensitive detection of deoxynivalenol
AP1-grafted N-Cu-MOF/GCE aptasensor · Electrode · AP1/N-Cu-MOF/GCE in PBS containing 10 ng mL-1 DON; curve d in Figure 3.
2021 · A multifunctional n-doped cu–mofs (N–cu–mof) nanomaterial-driven electrochemical aptasensor for sensitive detection of deoxynivalenol
Bare GCE control · Electrode · PBS 1 mmol L-1, pH 5.0; curve a in Figure 3.
2021 · A multifunctional n-doped cu–mofs (N–cu–mof) nanomaterial-driven electrochemical aptasensor for sensitive detection of deoxynivalenol
N-Cu-MOF/GCE control electrode · Electrode · PBS 1 mmol L-1, pH 5.0; curve b in Figure 3.
2021 · A multifunctional n-doped cu–mofs (N–cu–mof) nanomaterial-driven electrochemical aptasensor for sensitive detection of deoxynivalenol
AP1-grafted N-Cu-MOF/GCE aptasensor · Electrode · Optimised N-Cu-MOF amount, AP1 concentration, electrolyte pH, and incubation time in PBS containing 2 ng mL-1 DON.
2021 · A multifunctional n-doped cu–mofs (N–cu–mof) nanomaterial-driven electrochemical aptasensor for sensitive detection of deoxynivalenol
AP1-grafted N-Cu-MOF/GCE aptasensor · Electrode · Five batches of sensors modified with N-Cu-MOF and five AP1/N-Cu-MOF-modified electrodes tested with 2 ng mL-1 DON.
2021 · A multifunctional n-doped cu–mofs (N–cu–mof) nanomaterial-driven electrochemical aptasensor for sensitive detection of deoxynivalenol
AP1-grafted N-Cu-MOF/GCE aptasensor · Electrode · DON and co-occurring mycotoxins each at 2 ng mL-1; MIX contains AFB1, AFB2, FB1, FB2, OTA, ZEN, and DON.
2021 · A multifunctional n-doped cu–mofs (N–cu–mof) nanomaterial-driven electrochemical aptasensor for sensitive detection of deoxynivalenol
AP1-grafted N-Cu-MOF/GCE aptasensor · Electrode · DON-free wheat flour spiked at 0.05, 0.50, 2.50, and 5.00 ug kg-1 in triplicate; extracted with acetonitrile/water and diluted in PBS.
2021 · A New Electrically Conducting Metal–Organic Framework Featuring U-Shaped cis-Dipyridyl Tetrathiafulvalene Ligands
I2-treated sine-MOF powder · Powder · Pastes made in MeCN mounted on glassy carbon working electrode; Ag/AgCl reference electrode, Pt-mesh counter electrode, 0.1 M Bu4NPF6 in MeCN.
2021 · A New Electrically Conducting Metal–Organic Framework Featuring U-Shaped cis-Dipyridyl Tetrathiafulvalene Ligands
pristine sine-MOF evacuated powder · Powder · Pastes made in MeCN mounted on glassy carbon working electrode; Ag/AgCl reference electrode, Pt-mesh counter electrode, 0.1 M Bu4NPF6 in MeCN.
2021 · A New Electrically Conducting Metal–Organic Framework Featuring U-Shaped cis-Dipyridyl Tetrathiafulvalene Ligands
pristine sine-MOF evacuated powder · Powder · SWV of pristine and I2-doped sine-MOF vs Ag/AgCl in 0.1 M Bu4NPF6/MeCN; paired comparison in Supplementary Figure S4 main text and SI caption Figure S2.
2021 · Cluster-Bridging-Coordinated Bimetallic Metal−Organic Framework as High-Performance Anode Material for Lithium-Ion Storage
Co4-Ir MOF||AC hybrid lithium-ion capacitor · Electrode · Co4-Ir MOF||AC HLICs tested between 2.0 and 4.0 V; CV scan rates 5-20 mV s-1; GCD current densities 100-4000 mA g-1; long cycling at 4000 mA g-1.
2021 · Cluster-Bridging-Coordinated Bimetallic Metal−Organic Framework as High-Performance Anode Material for Lithium-Ion Storage
Co4-Ir MOF||Li half-cell · Electrode · CV at 1 mV s-1 for initial cycles; kinetic CV at 0.2-10.0 mV s-1; EIS from 100 kHz to 0.01 Hz with 5 mV amplitude.
2021 · Conductive Metal-Organic Framework for High Energy Sodium-Ion Hybrid Capacitors
Ni-MOF working electrode · Electrode · CV scan rates 0.1-1 mV s-1 under 0.5-3.0 V; b-value and capacitive contribution analysis.
2021 · Conductive Metal-Organic Framework for High Energy Sodium-Ion Hybrid Capacitors
NVOPF/AC//Ni-MOF SIC full cell · Unknown · NVOPF/AC//Ni-MOF SIC; optimal window 0-3.8 V; energy and power based on total mass of Ni-MOF and NVOPF/AC.
2021 · Conductive metal-organic frameworks promoting polysulfides transformation in lithium-sulfur batteries
Li-S coin cell with received carbon paper cathode · Electrode · Received carbon paper cathode control; scan rate 0.05 mV s-1; voltage window 1.8-2.8 V from SI Fig. S16.
2021 · Conductive metal-organic frameworks promoting polysulfides transformation in lithium-sulfur batteries
Li-S coin cell with Ni-BTC@CP cathode · Electrode · Control CV under same scan-rate and sulfur-loading conditions as Ni-HHTP@CP.
2021 · Conductive metal-organic frameworks promoting polysulfides transformation in lithium-sulfur batteries
Li-S coin cell with Ni-HHTP@CP cathode · Electrode · Sulfur loading 1.25 mg cm-2; scan rate 0.05 mV s-1; voltage range 1.8-2.8 V.
2021 · Conductive metal-organic frameworks promoting polysulfides transformation in lithium-sulfur batteries
Li-S coin cell with Ni-BTC@CP cathode · Electrode · Control Tafel slopes for Li2S deposition (R2) and dissolution/oxidation (O1).
2021 · Conductive metal-organic frameworks promoting polysulfides transformation in lithium-sulfur batteries
Li-S coin cell with Ni-HHTP@CP cathode · Electrode · Tafel plots for Li2S deposition (R2) and dissolution/oxidation (O1).
2021 · Conductive Stimuli-Responsive Coordination Network Linked with Bismuth for Chemiresistive Gas Sensing
Bi(HHTP) chemiresistor on 10 um gap gold electrodes · Electrode · Voltage swept -1.0 to +1.0 V at 0.1 V/s; scans 3-5 exposed to 1000 ppm EtOH at 35 C
2021 · Coordination environment dependent selectivity of single-site-Cu enriched crystalline porous catalysts in CO2 reduction to CH4
Cu-DBC modified GDL-carbon paper electrode · Electrode · 1 M KOH, CO2 or Ar flowing, 5 mV s-1, 90% iR compensation; Pt counter and Ag/AgCl reference converted to RHE
2021 · Coordination environment dependent selectivity of single-site-Cu enriched crystalline porous catalysts in CO2 reduction to CH4
Cu-DBC modified GDL-carbon paper electrode · Electrode · CV curves at scan rates 10-100 mV s-1; Cdl calculated for Cu-DBC, Cu-HHTP, Cu-TTCOF and Cu-PPCOF
2021 · Cu-Based Conductive MOF Grown in situ on Cu Foam as a Highly Selective and Stable Non-Enzymatic Glucose Sensor
Cu-MOF/CF electrode · Electrode · Three-electrode test in 0.1 M NaOH with and without 1 mM glucose, scan rate 50 mV s-1, potential range 0-1 V; compared against bare CF.
2021 · Cu-Based Conductive MOF Grown in situ on Cu Foam as a Highly Selective and Stable Non-Enzymatic Glucose Sensor
Cu-MOF/CF electrode · Electrode · Cu-MOF/CF in 0.1 M NaOH with 0-6 mM glucose at 50 mV s-1.
2021 · Cu-Based Conductive MOF Grown in situ on Cu Foam as a Highly Selective and Stable Non-Enzymatic Glucose Sensor
Cu-MOF/CF electrode · Electrode · Cu-MOF/CF in 0.1 M NaOH with 1 mM glucose at scan rates from 20 to 200 mV s-1.
2021 · Cu-Based Conductive MOF Grown in situ on Cu Foam as a Highly Selective and Stable Non-Enzymatic Glucose Sensor
Cu-MOF/CF electrode · Electrode · Cu-MOF/CF response to 1 mM glucose in electrolytes from pH 10 to pH 14; 0.65 V and 50 mV s-1 noted in Figure 3D caption.
2021 · Cu-Based Conductive MOF Grown in situ on Cu Foam as a Highly Selective and Stable Non-Enzymatic Glucose Sensor
Cu-MOF/CF electrode · Electrode · Cu-MOF/CF response to 1 mM glucose tested every 7 days for 1 month.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
Cs-MOF 4 · Powder · MOF suspension drop-cast on Pt-disc working electrode; 0.1 M TBAPF6/MeCN; Ag/AgCl reference, Pt counter electrode.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
K-MOF 2 · Powder · MOF suspension drop-cast on Pt-disc working electrode; 0.1 M TBAPF6/MeCN; Ag/AgCl reference, Pt counter electrode.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
K-MOF 2-ox · Powder · MOF suspension drop-cast on Pt-disc working electrode; 0.1 M TBAPF6/MeCN; Ag/AgCl reference, Pt counter electrode.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
TTFTC-H4 ligand · Powder · 0.2 mM ligand in 0.1 M TBAPF6/MeCN; glassy carbon working, Ag/AgCl reference, Pt counter electrode.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
TTFTC-Me4 ligand · Powder · 0.2 mM ligand in 0.1 M TBAPF6/MeCN; glassy carbon working, Ag/AgCl reference, Pt counter electrode.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
Na-MOF 1-ox · Powder · MOF suspension drop-cast on Pt-disc working electrode; 0.1 M TBAPF6/MeCN; Ag/AgCl reference, Pt counter electrode.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
Rb-MOF 3 · Powder · MOF suspension drop-cast on Pt-disc working electrode; 0.1 M TBAPF6/MeCN; Ag/AgCl reference, Pt counter electrode.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
Rb-MOF 3-ox · Powder · MOF suspension drop-cast on Pt-disc working electrode; 0.1 M TBAPF6/MeCN; Ag/AgCl reference, Pt counter electrode.
2021 · Electrically Conductive Metal–Organic Framework Thin Film-Based On-Chip Micro-Biosensor: A Platform to Unravel Surface Morphology-Dependent Biosensing
BS-Cu-BHT film on on-chip electrode · Electrode · BS-Cu-BHT in 0.1 M PBS containing 0, 0.2, 0.4, 0.6, 0.8, and 1 mM H2O2 at 50 mV s-1.
2021 · Electrically Conductive Metal–Organic Framework Thin Film-Based On-Chip Micro-Biosensor: A Platform to Unravel Surface Morphology-Dependent Biosensing
US-Cu-BHT film on on-chip electrode · Electrode · US-Cu-BHT in 0.1 M PBS containing 0, 0.2, 0.4, 0.6, 0.8, and 1 mM H2O2 at 50 mV s-1.
2021 · Electrically Conductive Metal–Organic Framework Thin Film-Based On-Chip Micro-Biosensor: A Platform to Unravel Surface Morphology-Dependent Biosensing
BS-Cu-BHT film on on-chip electrode · Electrode · BS-Cu-BHT film in 0.2 mM H2O2 at scan rates of 10, 25, 50, 75, and 100 mV s-1 in 0.1 M PBS; reduction peak current density plotted versus square root of scan rate.
2021 · Electron-Conductive Metal-Organic Framework, Fe(dhbq)(dhbq = 2,5-Dihydroxy-1,4-benzoquinone): Coexistence of Microporosity and Solid-State Redox Activity
Fe(dhbq) 50 wt% / AB 40 wt% / PTFE 10 wt% cathode · Electrode · 1.5-4.0 V vs Li/Li+; scan rate 0.5 mV/s; Fe(dhbq) 50 wt%, AB 40 wt%, PTFE 10 wt%
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
TCNQ-MOF-MSC device · Electrode · CV at bending angles of 30, 60 and 90 degrees at 100 mV s^-1; compared with 0 degrees in Figure 4e. Measurements performed using CHI 760D electrochemical workstation.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
BQ-MOF-MSC device · Electrode · Areal capacitance calculated from CV curves at a scan rate of 5 mV s^-1. Measurements performed using CHI 760D electrochemical workstation.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
MOF-MSC benchmark device · Electrode · Areal capacitance calculated from CV curves at a scan rate of 5 mV s^-1. Measurements performed using CHI 760D electrochemical workstation.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
PMDI-MOF-MSC device · Electrode · Areal capacitance calculated from CV curves at a scan rate of 5 mV s^-1. Measurements performed using CHI 760D electrochemical workstation.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
TCNQ-MOF-MSC device · Electrode · Areal capacitance calculated from CV curves at a scan rate of 5 mV s^-1. Measurements performed using CHI 760D electrochemical workstation.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
TCNQ, BQ and PMDI in DCM/Bu4NPF6 reference CV solution · Unknown · CV for energy gap in three-electrode cell in dichloromethane solution of Bu4NPF6 (0.1 M), scan rate 50 mV s^-1, room temperature; Pt plate counter electrode, Ag/AgCl reference, glassy carbon working electrode.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
BQ@Cu3(BTC)2 thin film on Cu foil · Thin Film · CV curves of doped Cu3(BTC)2 thin films at 50 mV s^-1, used to infer LUMO/HOMO energy levels. CHI 760D electrochemical workstation; DCM/Bu4NPF6 (0.1 M), 50 mV s^-1 at room temperature for energy-level measurements.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
Cu3(BTC)2 thin film on Cu foil · Thin Film · Cu3(BTC)2 electrochemical energy-level measurement; DCM/Bu4NPF6 context from Figure 3 caption for molecule/pristine comparison. CHI 760D electrochemical workstation; DCM/Bu4NPF6 (0.1 M), 50 mV s^-1 at room temperature for energy-level measurements.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
PMDI@Cu3(BTC)2 thin film on Cu foil · Thin Film · CV curves of doped Cu3(BTC)2 thin films at 50 mV s^-1, used to infer LUMO/HOMO energy levels. CHI 760D electrochemical workstation; DCM/Bu4NPF6 (0.1 M), 50 mV s^-1 at room temperature for energy-level measurements.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
TCNQ@Cu3(BTC)2 thin film on Cu foil · Thin Film · CV curves of doped Cu3(BTC)2 thin films at 50 mV s^-1, used to infer LUMO/HOMO energy levels. CHI 760D electrochemical workstation; DCM/Bu4NPF6 (0.1 M), 50 mV s^-1 at room temperature for energy-level measurements.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
commercial IrO2 benchmark · Powder · Cdl determined by CV method from capacitive current versus scan rate for commercial IrO2 benchmark.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
Ni-HXR hexagonal nanorods · Powder · Cdl determined by CV method from capacitive current versus scan rate for monometallic Ni-HXR control.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
NiFe-HXR hexagonal nanorods · Powder · Cdl determined by CV method from capacitive current versus scan rate.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
Fe-HXR hexagonal nanorods · Powder · O2-saturated 1.0 M KOH electrolyte, typical three-electrode setup; overpotential at 10 mA cm-2.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
commercial IrO2 benchmark · Powder · O2-saturated 1.0 M KOH electrolyte, typical three-electrode setup; commercial IrO2 benchmark.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
Ni0.2Fe0.8-HXR · Powder · OER LSV ratio-control sample in 1.0 M KOH.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
Ni0.8Fe0.2-HXR · Powder · OER LSV ratio-control sample in 1.0 M KOH.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
Ni-HXR hexagonal nanorods · Powder · O2-saturated 1.0 M KOH electrolyte, typical three-electrode setup, scan rate 5 mV s-1; overpotential at 10 mA cm-2.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
NiFe-HXR hexagonal nanorods · Powder · O2-saturated 1.0 M KOH electrolyte, typical three-electrode setup, scan rate 5 mV s-1; overpotential at 10 mA cm-2.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
NiFeOx derived oxide · Powder · OER overpotential at 10 mA cm-2 compared with NiFe-HXR.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
commercial IrO2 benchmark · Powder · Tafel slope for commercial IrO2 OER benchmark.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
Ni-HXR hexagonal nanorods · Powder · Tafel slope for monometallic Ni-HXR OER control.
2021 · Enhancing One-Dimensional Charge Transport in Metal-organic Framework Hexagonal Nanorods for Electrocatalytic Oxygen Evolution
NiFe-HXR hexagonal nanorods · Powder · Tafel slopes derived from corresponding LSV curves for OER catalysis.
2021 · Facet Engineering in Ultrathin Two-Dimensional NiFe Metal-Organic Frameworks by Coordination Modulation for Enhanced Electrocatalytic Water Oxidation
NiFe-MOF NSs catalyst ink on glassy carbon · Electrode · Non-Faradaic CV at 10, 20, 30, 40 and 50 mV s^-1; potential range 0.096-0.196 V vs Hg/HgO; Cdl = Ic/v
2021 · Facet Engineering in Ultrathin Two-Dimensional NiFe Metal-Organic Frameworks by Coordination Modulation for Enhanced Electrocatalytic Water Oxidation
NiFe-MOF bulk catalyst ink on glassy carbon · Electrode · O2-saturated 1 M KOH, three-electrode cell, LSV 5 mV s^-1, iR-corrected
2021 · Facet Engineering in Ultrathin Two-Dimensional NiFe Metal-Organic Frameworks by Coordination Modulation for Enhanced Electrocatalytic Water Oxidation
Fe-MOF catalyst ink on glassy carbon · Electrode · O2-saturated 1 M KOH, three-electrode cell, LSV 5 mV s^-1, iR-corrected
2021 · Facet Engineering in Ultrathin Two-Dimensional NiFe Metal-Organic Frameworks by Coordination Modulation for Enhanced Electrocatalytic Water Oxidation
Ni-MOF NSs catalyst ink on glassy carbon · Electrode · O2-saturated 1 M KOH, three-electrode cell, LSV 5 mV s^-1, iR-corrected
2021 · Facet Engineering in Ultrathin Two-Dimensional NiFe Metal-Organic Frameworks by Coordination Modulation for Enhanced Electrocatalytic Water Oxidation
NiFe-MOF NSs catalyst ink on glassy carbon · Electrode · O2-saturated 1 M KOH, three-electrode cell, Hg/HgO reference, carbon rod counter, GC disk working electrode, 1200 rpm, LSV 5 mV s^-1, iR-corrected
2021 · Facet Engineering in Ultrathin Two-Dimensional NiFe Metal-Organic Frameworks by Coordination Modulation for Enhanced Electrocatalytic Water Oxidation
RuO2 benchmark catalyst ink on glassy carbon · Electrode · O2-saturated 1 M KOH, three-electrode cell, LSV 5 mV s^-1, iR-corrected
2021 · Facile one-pot synthesis of Co coordination polymer spheres doped macroporous carbon and its application for electrocatalytic oxidation of glucose
Co CPSs/MPC-2-GCE · Electrode · Before and after 1.0 mM glucose addition in 0.1 M NaOH; scan rate 50 mV s^-1; n = 10.
2021 · Facile one-pot synthesis of Co coordination polymer spheres doped macroporous carbon and its application for electrocatalytic oxidation of glucose
Co CPSs/MPC-2-GCE · Electrode · Glucose concentration 1.0 mM, 0.1 M NaOH, scan rates 5-200 mV s^-1.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Co-BTC/CFP HER electrode · Electrode · CV in non-Faradaic 0 to -0.10 V vs RHE window at 10-50 mV s-1; Delta J at -0.05 V vs RHE plotted versus scan rate, slope is twice Cdl.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Cu-BTC/CFP HER electrode · Electrode · CV in non-Faradaic 0 to -0.10 V vs RHE window at 10-50 mV s-1; Delta J at -0.05 V vs RHE plotted versus scan rate, slope is twice Cdl.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Ni-BTC/CFP HER electrode · Electrode · CV in non-Faradaic 0 to -0.10 V vs RHE window at 10-50 mV s-1; Delta J at -0.05 V vs RHE plotted versus scan rate, slope is twice Cdl.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Co-BTC/CFP HER electrode · Electrode · 0.5 M H2SO4, pH 0.38, 20 mL electrolyte, 5.0 mV s-1 scan rate, Ag/AgCl (3.0 M KCl) reference, Pt paper counter electrode unless otherwise noted.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Cu-BTC/CFP HER electrode · Electrode · 0.5 M H2SO4, pH 0.38, 20 mL electrolyte, 5.0 mV s-1 scan rate, Ag/AgCl (3.0 M KCl) reference, Pt paper counter electrode unless otherwise noted.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Ni-BTC/CFP HER electrode · Electrode · 0.5 M H2SO4, pH 0.38, 20 mL electrolyte, 5.0 mV s-1 scan rate, Ag/AgCl (3.0 M KCl) reference, Pt paper counter electrode unless otherwise noted.
2021 · Ferrocene-functionalized Ni(II)-based metal-organic framework as electrochemical sensing interface for ratiometric analysis of Cu2+, Pb2+ and Cd2+
Fc-NH2-Ni-MOF/GCE · Electrode · Optimised DPASV in 0.1 M ABS (pH 6), deposition potential -1.2 V and deposition time 200 s; concentrations 0, 0.001, 0.005, 0.01, 0.05, 0.1, 0.5, 0.8, 1.0, 1.5, 1.8 and 2.0 uM; detection signal IM/IFc.
2021 · Ferrocene-functionalized Ni(II)-based metal-organic framework as electrochemical sensing interface for ratiometric analysis of Cu2+, Pb2+ and Cd2+
bare GCE · Electrode · 0.1 M KCl containing 1.0 mM [Fe(CN)6]3-/4-; potential range -0.2 to 0.6 V; scan rate 0.1 V/s.
2021 · Ferrocene-functionalized Ni(II)-based metal-organic framework as electrochemical sensing interface for ratiometric analysis of Cu2+, Pb2+ and Cd2+
Fc-NH2-Ni-MOF/GCE · Electrode · 0.1 M KCl containing 1.0 mM [Fe(CN)6]3-/4-; potential range -0.2 to 0.6 V; scan rate 0.1 V/s.
2021 · Ferrocene-functionalized Ni(II)-based metal-organic framework as electrochemical sensing interface for ratiometric analysis of Cu2+, Pb2+ and Cd2+
NH2-Ni-MOF/GCE · Electrode · 0.1 M KCl containing 1.0 mM [Fe(CN)6]3-/4-; potential range -0.2 to 0.6 V; scan rate 0.1 V/s.
2021 · Ferrocene-functionalized Ni(II)-based metal-organic framework as electrochemical sensing interface for ratiometric analysis of Cu2+, Pb2+ and Cd2+
Fc-NH2-Ni-MOF/GCE · Electrode · 0.1 M HAc-NaAc buffer solution; deposition potential -1.2 V, deposition time 100 s unless otherwise stated; stripping amplitude 0.05 V, pulse period 0.2 s, pulse width 0.05 s.
2021 · Ferrocene-functionalized Ni(II)-based metal-organic framework as electrochemical sensing interface for ratiometric analysis of Cu2+, Pb2+ and Cd2+
Fc-NH2-Ni-MOF/GCE · Electrode · Optimised supporting electrolyte, pH, deposition potential and deposition time for Cu2+, Pb2+ and Cd2+ detection on Fc-NH2-Ni-MOF/GCE.
2021 · Ferrocene-functionalized Ni(II)-based metal-organic framework as electrochemical sensing interface for ratiometric analysis of Cu2+, Pb2+ and Cd2+
Fc-NH2-Ni-MOF/GCE · Electrode · 0.1 M ABS (pH 6) containing 1.0 uM each of Cu2+, Pb2+ and Cd2+; five parallel Fc-NH2-Ni-MOF/GCE electrodes.
2021 · Ferrocene-functionalized Ni(II)-based metal-organic framework as electrochemical sensing interface for ratiometric analysis of Cu2+, Pb2+ and Cd2+
Fc-NH2-Ni-MOF/GCE · Electrode · Local Licun river water recovery experiment compared with ICP-AES for Cu2+, Pb2+ and Cd2+.
2021 · Ferrocene-functionalized Ni(II)-based metal-organic framework as electrochemical sensing interface for ratiometric analysis of Cu2+, Pb2+ and Cd2+
Fc-NH2-Ni-MOF/GCE · Electrode · 0.1 M ABS (pH 6) with 1.0 uM each Cu2+, Pb2+ and Cd2+; interfering ions Mn2+, Al3+, K+, Ca2+, Na+ and Zn2+ at 5.0 uM each.
2021 · Ferrocene-functionalized Ni(II)-based metal-organic framework as electrochemical sensing interface for ratiometric analysis of Cu2+, Pb2+ and Cd2+
Fc-NH2-Ni-MOF/GCE · Electrode · Electrode stored at 4 C and tested every 5 days; 0.1 M ABS (pH 6) containing 1.0 uM each of Cu2+, Pb2+ and Cd2+.
2021 · Ferrocene-functionalized Ni(II)-based metal-organic framework as electrochemical sensing interface for ratiometric analysis of Cu2+, Pb2+ and Cd2+
Fc-NH2-Ni-MOF/GCE · Electrode · Real tap water and target-added tap water containing 1.0 uM each of Cu2+, Pb2+ and Cd2+.
2021 · Immobilizing Redox-Active Tricycloquinazoline into a 2D Conductive Metal–Organic Framework for Lithium Storage
Cu-HHTQ composite working electrode · Electrode · CV at 0.2 mV s-1 and variable scan rates 0.2-1.0 mV s-1.
2021 · Immobilizing Redox-Active Tricycloquinazoline into a 2D Conductive Metal–Organic Framework for Lithium Storage
HHTQ composite working electrode · Electrode · Potential range visually 0.01-3.0 V; scan rate 0.1 mV s-1.
2021 · Immobilizing Redox-Active Tricycloquinazoline into a 2D Conductive Metal–Organic Framework for Lithium Storage
TQ composite working electrode · Electrode · Potential range 0.01-3.0 V; scan rate 0.1 mV s-1.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
acetylene black/PTFE film · Electrode · Acetylene black film electrodes; 1 M NEt4BF4/acetonitrile; 10 mV s-1.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
Cu3(HHTP)2 composite film electrode · Electrode · Cu3(HHTP)2 composite film electrodes; 1 M NEt4BF4 in acetonitrile; CV scan rate 10 mV s-1; GCD current densities varied.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
Cu3(HHTP)2/PTFE film without conductive additive · Electrode · 95 wt% Cu3(HHTP)2/5 wt% PTFE electrodes; 1 M NEt4BF4/acetonitrile; very low scan rates/current densities required.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
Cu3(HHTP)2 composite film electrode · Electrode · Cu3(HHTP)2 composite working electrode; overcapacitive YP50F counter electrode; Ag pseudo-reference; 1 M NEt4BF4/acetonitrile; dry oxygen-free N2 glovebox.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
Cu3(HHTP)2 composite film electrode · Electrode · Symmetric Cu3(HHTP)2 EDLC; 0.1 A g-1 GCD with increasing final voltages; CV up to 1.6 V at 10 mV s-1.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
YP50F activated-carbon film electrode · Electrode · YP50F film electrodes; 1 M NEt4BF4/acetonitrile; 0-2.5 V; coin-cell format.
2021 · Linker Defects Triggering Boosted Oxygen Reduction Activity of Co/Zn-ZIF Nanosheet Arrays for Rechargeable Zn–Air batteries
D-ZIF linker-deficient nanosheet array on Ni foam · Electrode · CVs at 4, 8, 12, 16 and 20 mV s-1 used to estimate Cdl and ECSA.
2021 · Linker Defects Triggering Boosted Oxygen Reduction Activity of Co/Zn-ZIF Nanosheet Arrays for Rechargeable Zn–Air batteries
D-ZIF linker-deficient nanosheet array on Ni foam · Electrode · N2-saturated 0.1 M KOH; OER LSV at 5 mV s-1; chronopotentiometry at 10 mA cm-2 for 10 h.
2021 · Linker Defects Triggering Boosted Oxygen Reduction Activity of Co/Zn-ZIF Nanosheet Arrays for Rechargeable Zn–Air batteries
D-ZIF linker-deficient nanosheet array on Ni foam · Electrode · Three-electrode system in 0.1 M KOH; CV in N2- and O2-saturated electrolyte at 10 mV s-1; ORR LSV at 5 mV s-1.
2021 · Metal-organic framework transistors for dopamine sensing
15-cycle Cu3(HHTP)2 film on glass · Thin Film · Cu3(HHTP)2 film in 0.1 M CaCl2 before and after DA additions; scan rate 50 mV s-1.
2021 · Mimicking the Electron Transport Chain and Active Site of [FeFe] Hydrogenases in One Metal-Organic Framework: Factors That Influence Charge Transport
PCN-700_NDI_FeFe MOF/carbon black/Nafion glassy-carbon electrode · Electrode · DMF with 0.5 M KPF6; scan rate 50 mV/s; increasing acetic acid; includes homogeneous linkers and MOF electrodes.
2021 · Mimicking the Electron Transport Chain and Active Site of [FeFe] Hydrogenases in One Metal-Organic Framework: Factors That Influence Charge Transport
PCN-700_NDI_FeFe MOF/carbon black/Nafion glassy-carbon electrode · Electrode · PCN-700_NDI_FeFe in DMF with 0.5 M KPF6; integration at 5 mV/s and 500 mV/s.
2021 · Mimicking the Electron Transport Chain and Active Site of [FeFe] Hydrogenases in One Metal-Organic Framework: Factors That Influence Charge Transport
[FeFe](dcbdt)(CO)6 homogeneous solution · Model · 1 mM [FeFe](dcbdt)(CO)6 in DMF with 0.5 M KPF6; glassy carbon working electrode; scan rate 50 mV/s; potentials vs Fc+/0.
2021 · Mimicking the Electron Transport Chain and Active Site of [FeFe] Hydrogenases in One Metal-Organic Framework: Factors That Influence Charge Transport
PCN-700_NDI_FeFe MOF/carbon black/Nafion glassy-carbon electrode · Electrode · MOF/carbon black/Nafion on glassy carbon; DMF with 0.5 M KPF6; scan rate 50 mV/s; potentials vs Fc+/0.
2021 · Mimicking the Electron Transport Chain and Active Site of [FeFe] Hydrogenases in One Metal-Organic Framework: Factors That Influence Charge Transport
NDI-OMe homogeneous solution · Model · 1 mM NDI-OMe in DMF with 0.5 M KPF6; glassy carbon working electrode; scan rate 50 mV/s; potentials vs Fc+/0.
2021 · Mimicking the Electron Transport Chain and Active Site of [FeFe] Hydrogenases in One Metal-Organic Framework: Factors That Influence Charge Transport
PCN-700_NDI_ta MOF/carbon black/Nafion glassy-carbon electrode · Electrode · MOF/carbon black/Nafion on glassy carbon; DMF with 0.5 M KPF6; scan rate 50 mV/s; potentials vs Fc+/0.
2021 · Mimicking the Electron Transport Chain and Active Site of [FeFe] Hydrogenases in One Metal-Organic Framework: Factors That Influence Charge Transport
PCN-700_NDI_FeFe MOF/carbon black/Nafion glassy-carbon electrode · Electrode · DMF with 0.5 M KPF6; variable scan rates from 5 to 1000 mV/s.
2021 · Processable UiO-66 Metal-Organic Framework Fluid Gel and Electrical Conductivity of Its Nanofilm with Sub-100 nm Thickness
60 nm UiO-66 nanofilm · Thin Film · MOF film on cleaned glass as working electrode; Ag/AgCl reference, Pt rod counter electrode, 0.1 M KCl electrolyte; 0.0 to -1.0 V; scan rates 10, 20, 30, 40, and 50 mV s^-1.
2021 · Promoting ethylene production over a wide potential window on Cu crystallites induced and stabilized via current shock and charge delocalization
KB@Cu3(HITP)2 CO2RR electrode · Electrode · 0.1 M KHCO3; scan rates 40-140 mV s-1; capacitive current at 0.42 V.
2021 · Quinone-Based Conducting Three-Dimensional Metal-Organic Framework as a Cathode Material for Lithium-Ion Batteries
(NBu4)2Fe2(DHBQ)3/Super P/PVDF lithium-ion cathode electrode · Electrode · CV at 0.1, 0.2, 0.3, 0.5, 0.8, 1.0 and 2.0 mV/s; ip-v^0.5 and log(i)-log(v) analyses.
2021 · Quinone-Based Conducting Three-Dimensional Metal-Organic Framework as a Cathode Material for Lithium-Ion Batteries
(NBu4)2Fe2(DHBQ)3/Super P/PVDF lithium-ion cathode electrode · Electrode · Li-ion half-cell CV at 0.1 mV/s between 1.5 and 3.5 V vs Li+/Li.
2021 · Redox Ladder of Ni3 Complexes with Closed-Shell, Mono-, and Diradical Triphenylene Units: Molecular Models for Conductive 2D MOFs
crude [(Me3TPANi)3(HOTP)](BF4)n mixture · Unknown · Crude mixture in 0.2 M TBAPF6-dichloromethane under nitrogen.
2021 · Redox Ladder of Ni3 Complexes with Closed-Shell, Mono-, and Diradical Triphenylene Units: Molecular Models for Conductive 2D MOFs
complex 2 dark blue needle-shaped crystals · Single Crystal · 0.2 M TBAPF6 in dichloromethane under nitrogen; glassy carbon working electrode, Pt mesh counter electrode and Ag/AgCl wire pseudo-reference; potentials reported vs Fc+/Fc.
2021 · Self-Nanocavity-Confined Halogen Anions Boosting the High Selectivity of the Two-Electron Oxygen Reduction Pathway over Ni-Based MOFs
Br-Ni MOF catalyst · Powder · O2-saturated 0.1 M KOH; CHI760E workstation; RRDE electrodes; LSV at 20 mV/s after cycling; catalyst loading about 0.2 mg/cm2; 1600 rpm for Figure 2.
2021 · Si nanoparticles confined within a conductive 2D porous Cu-based metal–organic framework (Cu3(HITP)2) as potential anodes for high-capacity Li-ion batteries
pure Cu3(HITP)2 electrode · Electrode · Pure Cu3(HITP)2 electrode in 0.005-1.5 V vs Li/Li+ at 0.1 mV s-1.
2021 · Si nanoparticles confined within a conductive 2D porous Cu-based metal–organic framework (Cu3(HITP)2) as potential anodes for high-capacity Li-ion batteries
Si@Cu3(HITP)2-5 electrode · Electrode · 0.005-1.5 V vs Li/Li+, scan rate 0.1 mV s-1 according to figure caption; experimental section states 0.01 mV s-1.
2021 · Simultaneous defect passivation and hole mobility enhancement of perovskite solar cells by incorporating anionic metal-organic framework into hole transport materials
synthesised FJU-17 powder · Powder · CHI600A; Pt disc working electrode, Pt wire counter, Ag/AgCl reference, 50 mV/s, 0.1 M Bu4NPF6 acetonitrile; potentials referenced to Fc/Fc+.
2021 · Soft Electrochemical Actuators with a Two-Dimensional Conductive Metal-Organic Framework Nanowire Array
Ni-CAT NWAs/CNF based electrochemical actuator · Electrode · Assembled actuator CV at scan rates 5-150 mV s^-1 over -3 to +3 V.
2021 · Soft Electrochemical Actuators with a Two-Dimensional Conductive Metal-Organic Framework Nanowire Array
core-shell Ni-CAT NWAs/CNF electrode · Electrode · Ni-CAT NWAs/CNF working electrode in 3 M KCl; Ag/AgCl reference and Pt counter; CV from -0.4 to 0.5 V at 5-150 mV s^-1; GCD 0-0.5 V at different current densities.
2021 · Spindle-like Ni3(HITP)2 MOFs: Synthesis and Li+ storage mechanism
Ni3(HITP)2 electrode on copper foil · Electrode · CV at scan rates of 0.2, 0.4, 0.6, 0.8 and 1.0 mV s-1; b values from log i versus log v; capacitive contribution evaluated at 0.6 mV s-1.
2021 · Stabilization of NASICON-Type Electrolyte against Li Anode via an Ionic Conductive MOF-Incorporated Adhesive Interlayer
ZCPL film/interlayer · Thin Film · ZCPL and PEO/LiTFSI at 60 C; inset zoom around 4 V
2021 · Structural and electronic modulation of conductive MOFs for efficient oxygen evolution reaction electrocatalysis
NiPc-NiFex powder series · Powder · CV tests in non-faradaic region at scan rates from 20 to 200 mV s-1; Cdl from scan-rate-dependent current density at 0.92 V vs RHE.
2021 · Structural and electronic modulation of conductive MOFs for efficient oxygen evolution reaction electrocatalysis
NiPc-NiFe0.05/acetylene black/Nafion on glassy carbon electrode · Electrode · Oxygen-saturated 1.0 M KOH, three-electrode system, 298 K, 95% iR correction, 10 mV s-1, 1.07-1.87 V.
2021 · Structural and electronic modulation of conductive MOFs for efficient oxygen evolution reaction electrocatalysis
NiPc-NiFe0.09/acetylene black/Nafion on glassy carbon electrode · Electrode · Oxygen-saturated 1.0 M KOH, three-electrode system, 298 K, 95% iR correction, 10 mV s-1, 1.07-1.87 V.
2021 · Structural and electronic modulation of conductive MOFs for efficient oxygen evolution reaction electrocatalysis
NiPc-NiFe0.20/acetylene black/Nafion on glassy carbon electrode · Electrode · Oxygen-saturated 1.0 M KOH, three-electrode system, 298 K, 95% iR correction, 10 mV s-1, 1.07-1.87 V.
2021 · Structural and electronic modulation of conductive MOFs for efficient oxygen evolution reaction electrocatalysis
NiPc-Fe/acetylene black/Nafion on glassy carbon electrode · Electrode · Oxygen-saturated 1.0 M KOH, three-electrode system, 298 K, 95% iR correction, 10 mV s-1, 1.07-1.87 V.
2021 · Structural and electronic modulation of conductive MOFs for efficient oxygen evolution reaction electrocatalysis
NiPc-Ni/acetylene black/Nafion on glassy carbon electrode · Electrode · Oxygen-saturated 1.0 M KOH, three-electrode system, 298 K, 95% iR correction, 10 mV s-1, 1.07-1.87 V.
2021 · Structural and electronic modulation of conductive MOFs for efficient oxygen evolution reaction electrocatalysis
Commercial RuO2 on glassy carbon electrode · Electrode · Commercial RuO2 benchmark before and after 1000 CV cycles in OER comparison.
2021 · Structural and electronic modulation of conductive MOFs for efficient oxygen evolution reaction electrocatalysis
NiPc-NiFe0.09/acetylene black/Nafion on glassy carbon electrode · Electrode · OER LSV before/after 1000 CV cycles at 50 mV s-1 and after 3000 CV cycles.
2021 · Sulfur vacancies enriched Nickel-Cobalt sulfides hollow spheres with high performance for All-Solid-State hybrid supercapacitor
r-NiCo2S4-6 HSs // N/S-AC device · Electrode · All-solid-state hybrid device tested over 0-1.6 V at various scan rates and current densities.
2021 · Sulfur vacancies enriched Nickel-Cobalt sulfides hollow spheres with high performance for All-Solid-State hybrid supercapacitor
r-NiCo2S4-6 HSs working electrode · Electrode · CV scans from 1 to 5 mV s-1 used for peak-current linearity, b-value, and capacitive/diffusion contribution analysis.
2021 · Sulfur vacancies enriched Nickel-Cobalt sulfides hollow spheres with high performance for All-Solid-State hybrid supercapacitor
r-NiCo2S4-6 HSs working electrode · Electrode · 3 M KOH aqueous electrolyte, Pt counter electrode, Hg/HgO reference electrode; CV 0-0.55 V vs Hg/HgO and GCD 1-15 A g-1.
2021 · Synthesis of a novel double-ligand nickel conductive metal–organic framework material and its electrochemical characterization for supercapacitors
activated carbon control electrode · Electrode · Commercial AC control electrode CV in approximately -1.0 to 0.0 V window at scan rates labelled 10, 20, 40, 60 and 100 mV s-1 in Fig. S3b.
2021 · Synthesis of a novel double-ligand nickel conductive metal–organic framework material and its electrochemical characterization for supercapacitors
Ni-MOF//AC ASC device · Electrode · Ni-MOF//AC ASC tested across voltage windows 0-1.1 to 0-1.6 V and at scan rates 10, 30, 50, 80 and 100 mV s-1.
2021 · Synthesis of a novel double-ligand nickel conductive metal–organic framework material and its electrochemical characterization for supercapacitors
Ni-MOF working electrode on nickel foam · Electrode · Ni-MOF working electrode, activated carbon counter electrode, Hg/HgO reference, 3 M KOH electrolyte, potential range 0-0.5 V; scan rates 10, 30, 50, 80 and 100 mV s-1 from Figure 4a.
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Co-MOF exfoliated nanosheets · Nanosheet · Exfoliated Co-MOF suspended in water for UV-VIS-NIR; CV on glassy carbon under ambient pressure and N2 atmosphere using Ag/Ag+ reference and ferrocene calibration.
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Mn-MOF exfoliated nanosheets · Nanosheet · Exfoliated Mn-MOF suspended in water for UV-VIS-NIR; CV on glassy carbon under ambient pressure and N2 atmosphere using Ag/Ag+ reference and ferrocene calibration.
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Mn-MOF-NC electrode · Electrode · Two-electrode symmetric SC using 1 mol L-1 LiTFSI in 1,3-dioxolane/dimethoxyethane; potential window 0-2.25 V; room temperature 25 degrees C.
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Co-MOF-NC electrode · Electrode · Two-electrode symmetric SC using 1 mol L-1 LiTFSI in 1,3-dioxolane/dimethoxyethane; potential window 0-2.25 V; room temperature 25 degrees C.
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Co-MOF-NC electrode · Electrode · CV testing over scan rates from 0.1 to 0.5 mV s-1; b calculated from i = a v^b.
2021 · Truxone-Based Conductive Metal-Organic Frameworks for the Oxygen Reductive Reaction
pressed truxone-Cu MOF pellet · Pellet · Voltage 0-1 V between two stainless-steel electrodes at 50 mV s-1; temperatures 5-80 deg C; sample pretreated at 150 deg C.
2021 · Truxone-Based Conductive Metal-Organic Frameworks for the Oxygen Reductive Reaction
truxone-Cu MOF-modified GC electrode · Electrode · Scan rate 50 mV s-1; potentials referenced to RHE; conventional three-electrode system.
2021 · Two-dimensional conductive metal-organic frameworks with dual metal sites toward the electrochemical oxygen evolution reaction
NiPc-Ni catalyst ink on glassy carbon · Electrode · CV in non-faradaic 0.87-0.97 V vs RHE window at 20-200 mV s^-1; Cdl from current-density change versus scan rate.
2021 · Two-dimensional conductive metal-organic frameworks with dual metal sites toward the electrochemical oxygen evolution reaction
NiPc-Ni catalyst ink on glassy carbon · Electrode · Three-electrode cell, 1 M O2-saturated KOH, 298 K, SCE reference, graphite rod counter, GC working electrode; 0.01 V s^-1 scan rate, 95% iR correction.
2021 · Two-dimensional conductive metal-organic frameworks with dual metal sites toward the electrochemical oxygen evolution reaction
NiPc-Zn catalyst ink on glassy carbon · Electrode · Three-electrode cell, 1 M O2-saturated KOH, 298 K; 0.01 V s^-1 scan rate, 95% iR correction.
2021 · Two-dimensional conductive metal-organic frameworks with dual metal sites toward the electrochemical oxygen evolution reaction
ZnPc-Ni catalyst ink on glassy carbon · Electrode · Three-electrode cell, 1 M O2-saturated KOH, 298 K; 0.01 V s^-1 scan rate, 95% iR correction.
2021 · Two-dimensional conductive metal-organic frameworks with dual metal sites toward the electrochemical oxygen evolution reaction
ZnPc-Zn catalyst ink on glassy carbon · Electrode · Three-electrode cell, 1 M O2-saturated KOH, 298 K; 0.01 V s^-1 scan rate, 95% iR correction.
2021 · Two-dimensional conductive metal-organic frameworks with dual metal sites toward the electrochemical oxygen evolution reaction
NiPc-Ni catalyst ink on glassy carbon · Electrode · TOF at applied potential 1.8 V; active sites treated as surface Ni atoms and AECSA derived from Cdl using 40 uF cm^-2 per cm_ECSA^2.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
1-GCE · Electrode · 0.5 M sulfuric acid electrolyte containing AA at 0, 0.5, 1.0, 1.5, and 2.0 mM.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
2-GCE · Electrode · 0.5 M sulfuric acid electrolyte containing AA at 0, 0.5, 1.0, 1.5, and 2.0 mM.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
1-GCE · Electrode · 0.5 M H2SO4 solution; three-electrode cell; potentials vs saturated calomel electrode; scan rates 20-200 mV s-1.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
2-GCE · Electrode · 0.5 M H2SO4 solution; three-electrode cell; potentials vs saturated calomel electrode; scan rates 20-200 mV s-1.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
1-GCE · Electrode · 0.5 M sulfuric acid electrolyte containing NO2- at 0, 0.5, 1.0, 1.5, and 2.0 mM; scan rate 30 mV s-1.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
2-GCE · Electrode · 0.5 M sulfuric acid electrolyte containing NO2- at 0, 0.5, 1.0, 1.5, and 2.0 mM; scan rate 30 mV s-1.
2021 · Why conductivity is not always king-physical properties governing the capacitance of 2D metal-organic framework-based EDLC supercapacitor electrodes: A Ni3(HITP)2case study
HITP_A neat-MOF electrode · Electrode · 1 M KOH(aq), Ag/AgCl pseudo-reference, activated-carbon/carbon-black/PVDF counter electrode, voltage range -0.6 to -0.1 V vs Ag/AgCl, sweep rates 1 V s-1 to 1 mV s-1.
2021 · Why conductivity is not always king-physical properties governing the capacitance of 2D metal-organic framework-based EDLC supercapacitor electrodes: A Ni3(HITP)2case study
HITP_B neat-MOF electrode · Electrode · 1 M KOH(aq), Ag/AgCl pseudo-reference, activated-carbon/carbon-black/PVDF counter electrode, voltage range -0.6 to -0.1 V vs Ag/AgCl, sweep rates 1 V s-1 to 1 mV s-1.
2021 · Why conductivity is not always king-physical properties governing the capacitance of 2D metal-organic framework-based EDLC supercapacitor electrodes: A Ni3(HITP)2case study
HITP_C neat-MOF electrode · Electrode · 1 M KOH(aq), Ag/AgCl pseudo-reference, activated-carbon/carbon-black/PVDF counter electrode, voltage range -0.6 to -0.1 V vs Ag/AgCl, sweep rates 1 V s-1 to 1 mV s-1.
2020 · A conductive anionic Co-MOF cage with zeolite framework for supercapacitors
Co-MOF on Ni foam · Electrode · CHI660E workstation; three-electrode cell; 3.0 mol/L KOH; Pt counter; Hg/HgO reference; potential range 0.0-0.5 V; scan rates 5-200 mV/s.
2020 · A conductive anionic Co-MOF cage with zeolite framework for supercapacitors
Co-CTAB-6 · Electrode · CV curves at 10 mV/s for Co-MOF and Co-CTAB-1/2/4/6/8 in 3 mol/L KOH; oxidation peak currents and ratios tabulated.
2020 · A conductive metal-organic framework photoanode
H4TTFTB in DMF/TBAPF6 electrolyte · Unknown · DMF electrolyte (0.1 M TBAPF6), glassy carbon working electrode, Pt counter electrode and Ag/AgCl reference in N2-purged cell.
2020 · Biporous Cd(II) Coordination Polymer via in Situ Disulfide Bond Formation: Self-Healing and Application to Photosensitive Optoelectronic Device
Bulk/crude material of compound 1 · Powder · Glass carbon electrode with deposit of compound 1 at 296 K in CH3CN, 0.2 M [N(n-Bu)4]PF6, scan rate 100 mV/s, potential range +2.0 to -2.0 V, Fc+/Fc reference.
2020 · Conductive Metal-Organic Framework Thin Film Hybrids by Electropolymerization of Monosubstituted Acetylenes
1-hexyne-loaded Cu(BDC) SURMOF-2 · Thin Film · Dry dichloromethane with 0.1 M TBAHFP/TBAF supporting electrolyte, argon atmosphere in main text; 20 mM 1-hexyne present or absent; working electrode Cu(BDC)/(Au@Si), counter Pt-wire, reference Ag/Ag+.
2020 · Conductive Metal-Organic Frameworks for Amperometric Sensing of Paracetamol
Bare GCE control electrode · Electrode · Bare GCE cycled in PBS (pH = 6.5) for comparison with NiCu-CAT/GCE in the paracetamol electrochemical study.
2020 · Conductive Metal-Organic Frameworks for Amperometric Sensing of Paracetamol
NiCu-CAT/GCE sensing electrode · Electrode · 40 uM paracetamol in PBS (pH = 6.5), potential window -0.8 to 0.8 V, scan rate 100 mV/s.
2020 · Conductive Metal-Organic Frameworks for Amperometric Sensing of Paracetamol
NiCu-CAT/GCE sensing electrode · Electrode · 50 uM paracetamol at NiCu-CAT/GCE in 0.1 M PBS at pH 5.5, 6.0, 6.5, 7.0 and 8.0.
2020 · Conductive Metal-Organic Frameworks for Amperometric Sensing of Paracetamol
NiCu-CAT/GCE sensing electrode · Electrode · 40 uM paracetamol on NiCu-CAT/GCE at scan rates of 10, 20, 50, 100, 200 and 300 mV/s.
2020 · Conductive Metal-Organic Frameworks for Amperometric Sensing of Paracetamol
NiCu-CAT/GCE sensing electrode · Electrode · Paracetamol concentrations of 5, 10, 15, 20, 25, 30, 35, 40, 50, 70, 90, 110, 150 and 190 uM on NiCu-CAT/GCE under optimised conditions.
2020 · Conductive Metal-Organic Frameworks for Amperometric Sensing of Paracetamol
NiCu-CAT/GCE sensing electrode · Electrode · 40 uM paracetamol with 5-fold dopamine and ascorbic acid; 100-fold K+, Cd2+, Cu2+, Pb2+, Fe3+, Al3+, SO4^2- and Cl-.
2020 · Conductive Metal-Organic Frameworks for Amperometric Sensing of Paracetamol
NiCu-CAT/GCE sensing electrode · Electrode · Commercial Tylenol tablet nominally containing 650 mg paracetamol; tablets ground, dissolved with ethanol, filtered and diluted with phosphate buffer solution.
2020 · Conductive Metal-Organic Frameworks for Amperometric Sensing of Paracetamol
NiCu-CAT/GCE sensing electrode · Electrode · Five repeated modified-electrode tests for 40 uM paracetamol under optimised conditions.
2020 · Conductive Metal-Organic Frameworks for Amperometric Sensing of Paracetamol
NiCu-CAT/GCE sensing electrode · Electrode · 40 uM paracetamol in 0.1 mol L^-1 PBS at pH 6.5 after storage in air for 7 and 30 days.
2020 · Conductive Metal-Organic Frameworks for Amperometric Sensing of Paracetamol
NiCu-CAT/GCE after air storage for 7-30 days · Electrode · Supplementary Figure 5 overlays DPV responses labelled 1 d, 7 d and 30 d, current vs potential around the paracetamol peak.
2020 · Conductive metal–Organic frameworks endow high-efficient oxygen evolution of La0·6Sr0·4Co0·8Fe0·2O3 perovskite oxide nanofibers
pure acetylene black · Powder · Rendered SI Fig. S8 compares pure acetylene black, LSCF@Ni3(HITP)2-2 and LSCF@Ni3(HITP)2-2 plus acetylene black.
2020 · Conductive metal–Organic frameworks endow high-efficient oxygen evolution of La0·6Sr0·4Co0·8Fe0·2O3 perovskite oxide nanofibers
LSCF@Ni3(HITP)2-2 · Powder · CV curves in non-Faradaic range 1.15-1.25 V vs RHE at scan rates 20, 40, 60, 80, 100 and 120 mV s-1; Cdl derived from ja-jc slope at 1.2 V vs RHE.
2020 · Conductive metal–Organic frameworks endow high-efficient oxygen evolution of La0·6Sr0·4Co0·8Fe0·2O3 perovskite oxide nanofibers
LSCF NFs · Powder · O2-saturated 1.0 M KOH, 1600 rpm, scan rate 5 mV s-1 from 1.0 to 1.8 V vs RHE; iR-corrected; catalyst loading about 0.306 mg_total cm-2.
2020 · Conductive metal–Organic frameworks endow high-efficient oxygen evolution of La0·6Sr0·4Co0·8Fe0·2O3 perovskite oxide nanofibers
LSCF@Ni3(HITP)2-1 · Powder · O2-saturated 1.0 M KOH, 1600 rpm, scan rate 5 mV s-1; same mass loading as other catalysts.
2020 · Conductive metal–Organic frameworks endow high-efficient oxygen evolution of La0·6Sr0·4Co0·8Fe0·2O3 perovskite oxide nanofibers
LSCF@Ni3(HITP)2-2 · Powder · O2-saturated 1.0 M KOH, 1600 rpm, scan rate 5 mV s-1; same mass loading as other catalysts.
2020 · Conductive metal–Organic frameworks endow high-efficient oxygen evolution of La0·6Sr0·4Co0·8Fe0·2O3 perovskite oxide nanofibers
LSCF@Ni3(HITP)2-3 · Powder · O2-saturated 1.0 M KOH, 1600 rpm, scan rate 5 mV s-1; same mass loading as other catalysts.
2020 · Conductive metal–Organic frameworks endow high-efficient oxygen evolution of La0·6Sr0·4Co0·8Fe0·2O3 perovskite oxide nanofibers
LSCF@Ni3(HITP)2-4 · Powder · O2-saturated 1.0 M KOH, 1600 rpm, scan rate 5 mV s-1; same mass loading as other catalysts.
2020 · Conductive metal–Organic frameworks endow high-efficient oxygen evolution of La0·6Sr0·4Co0·8Fe0·2O3 perovskite oxide nanofibers
bare Ni3(HITP)2 · Powder · O2-saturated 1.0 M KOH, 1600 rpm, scan rate 5 mV s-1; same mass loading as other catalysts.
2020 · Conductive metal–Organic frameworks endow high-efficient oxygen evolution of La0·6Sr0·4Co0·8Fe0·2O3 perovskite oxide nanofibers
RuO2 benchmark catalyst · Powder · O2-saturated 1.0 M KOH, 1600 rpm, scan rate 5 mV s-1; same mass loading as other catalysts.
2020 · Conductive metal–Organic frameworks endow high-efficient oxygen evolution of La0·6Sr0·4Co0·8Fe0·2O3 perovskite oxide nanofibers
LSCF@Ni3(HITP)2-2 · Powder · Tafel slopes from corresponding OER polarisation curves in 1.0 M KOH, Fig. 4c.
2020 · Conductive Metal–Organic Frameworks with Extra Metallic Sites as an Efficient Electrocatalyst for the Hydrogen Evolution Reaction
Ni3(HITP)2 modified rotating disk electrode · Electrode · Same HER LSV conditions as target: N2-saturated 0.1 M KOH, 1600 rpm, 5 mV s-1, 95% iR correction.
2020 · Conductive Metal–Organic Frameworks with Extra Metallic Sites as an Efficient Electrocatalyst for the Hydrogen Evolution Reaction
Ni3(Ni3.HAHATN)2 modified rotating disk electrode · Electrode · Three-electrode CHI 760E workstation; graphite counter electrode; saturated calomel reference; N2-saturated 0.1 M KOH; 1600 rpm; 5 mV s-1; 95% iR correction; potentials converted to RHE.
2020 · Conductive Metal–Organic Frameworks with Extra Metallic Sites as an Efficient Electrocatalyst for the Hydrogen Evolution Reaction
Ni3(Co3.HAHATN)2 modified rotating disk electrode · Electrode · Same LSV conditions: N2-saturated 0.1 M KOH, 1600 rpm, 5 mV s-1, 95% iR correction.
2020 · Conductive Metal–Organic Frameworks with Extra Metallic Sites as an Efficient Electrocatalyst for the Hydrogen Evolution Reaction
Ni3(Ni3.HAHATN)2 modified rotating disk electrode · Electrode · HER stability in 0.1 M KOH; repeated CV for 1000 cycles; chronoamperometry at 10 and 50 mA cm-2 for 10 h.
2020 · Conductive Metal–Organic Frameworks with Extra Metallic Sites as an Efficient Electrocatalyst for the Hydrogen Evolution Reaction
Ni3(Ni3.HAHATN)2 modified rotating disk electrode · Electrode · Tafel plots of M23(M13.HAHATN)2 and Ni3(HITP)2 samples obtained from LSV curves by the Tafel equation.
2020 · Conductive MOFs as bifunctional oxygen electrocatalysts for all-solid-state Zn-air batteries
[Ni5.7Ru0.3(HHTP)3(H2O)x]n catalyst layer on GC-RDE · Electrode · Cdl estimated from CV curves in a non-Faradaic region of 0.95-1.05 V vs RHE at scan rates 20-100 mV s-1.
2020 · Conductive MOFs as bifunctional oxygen electrocatalysts for all-solid-state Zn-air batteries
[Ni5.7Ru0.3(HHTP)3(H2O)x]n catalyst layer on GC-RDE · Electrode · Three-electrode cell in O2/N2 saturated 0.1 M KOH; potentials iR corrected and converted to RHE.
2020 · Conductive MOFs as bifunctional oxygen electrocatalysts for all-solid-state Zn-air batteries
commercial RuO2 OER electrode · Electrode · Commercial RuO2 comparator for OER in 0.1 M KOH.
2020 · Conductive MOFs as bifunctional oxygen electrocatalysts for all-solid-state Zn-air batteries
commercial Pt/C ORR electrode · Electrode · Commercial Pt/C comparator for ORR in 0.1 M KOH.
2020 · Conductive MOFs as bifunctional oxygen electrocatalysts for all-solid-state Zn-air batteries
[Ni5.7Ru0.3(HHTP)3(H2O)x]n catalyst layer on GC-RDE · Electrode · ORR in O2-saturated 0.1 M KOH; CV sweep 10 mV s-1 after gas purging; RRDE electron-transfer number from disk/ring currents.
2020 · Conjugated Copper–Catecholate Framework Electrodes for Efficient Energy Storage
8OH-DBC ligand electrochemical control · Model · 1 M NaCl comparison with Cu-DBC; CV at 1 mV s-1; GCD at 0.2 A g-1 and cycling at 5 A g-1.
2020 · Conjugated Copper–Catecholate Framework Electrodes for Efficient Energy Storage
Symmetric Cu-DBC solid-state supercapacitor cell · Electrode · Working potential window 0-1.0 V; two Cu-DBC film electrodes with 1 M NaCl; current densities 0.2-10 A g-1.
2020 · Conjugated Copper–Catecholate Framework Electrodes for Efficient Energy Storage
Cu-DBC-modified glassy carbon electrode · Electrode · 1 M NaCl aqueous electrolyte; SCE reference, Pt wire counter electrode; CV -0.5 to 0.2 V vs SCE at 1-100 mV s-1; GCD at 0.2-10.0 A g-1; EIS 10 mHz to 100 kHz.
2020 · Electrically Conductive 3D Metal-Organic Framework Featuring π-Acidic Hexaazatriphenylene Hexacarbonitrile Ligands with Anion-πInteraction and Efficient Charge-Transport Capabilities
AgOTf cyclic-voltammetry control · Unknown · AgOTf control measured to identify Ag+ reduction response in the same CV context.
2020 · Electrically Conductive 3D Metal-Organic Framework Featuring π-Acidic Hexaazatriphenylene Hexacarbonitrile Ligands with Anion-πInteraction and Efficient Charge-Transport Capabilities
[Ag2(HATHCN)(CF3SO3)2]n paste on glassy carbon electrode · Electrode · MOF/MeNO2 paste on glassy carbon working electrode; Ag/AgCl reference, Pt-mesh counter electrode, 0.1 M Bu4NPF6 in MeNO2.
2020 · Electrically Conductive 3D Metal-Organic Framework Featuring π-Acidic Hexaazatriphenylene Hexacarbonitrile Ligands with Anion-πInteraction and Efficient Charge-Transport Capabilities
Free HATHCN ligand powder/crystals · Powder · Free HATHCN control measured in the same CV context: glassy carbon working electrode, Ag/AgCl reference, Pt-mesh counter electrode, 0.1 M Bu4NPF6 in MeNO2.
2020 · Electrochemical deposition and thermoelectric characterisation of a semiconducting 2-D metal-organic framework thin film
Cu3(HHTP)2@Au/SiO2 as-deposited film · Thin Film · 0.01 M CuSO4 and 0.1 M KCl, SCE reference, Pt counter; scan rate 120 mV s-1; electrode area 1 cm2
2020 · Electrochemical deposition of Cu metal-organic framework films for the dual analysis of pathogens
Cu-MOF/GCE electrode · Electrode · CV in 0.1 M KCl used to optimise Cu-MOF deposition potential and deposition time.
2020 · Electrochemical deposition of Cu metal-organic framework films for the dual analysis of pathogens
DNA/AuNPs/Cu-MOF/GCE biosensor · Electrode · Optimisation of DNA aptamer concentration and target incubation times.
2020 · Electrochemical deposition of Cu metal-organic framework films for the dual analysis of pathogens
DNA/AuNPs/Cu-MOF/GCE after S. aureus cell capture · Electrode · Direct S. aureus cell detection over the same concentration series.
2020 · Electrochemical deposition of Cu metal-organic framework films for the dual analysis of pathogens
AuNPs/Cu-MOF/GCE electrode · Electrode · DPV in Fe(CN)6 redox electrolyte; 50 mV/s sweep, 50 ms pulse width, 0.2 s pulse period, voltage range reported as -0.2 to -0.6 V.
2020 · Electrochemical deposition of Cu metal-organic framework films for the dual analysis of pathogens
DNA/AuNPs/Cu-MOF/GCE after S. aureus supernatant exposure · Electrode · 10 uL S. aureus supernatant; concentration series 0, 7, 7e1, 7e2, 7e3, 7e4, 7e5 and 7e6 cfu/mL.
2020 · Electrochemical deposition of Cu metal-organic framework films for the dual analysis of pathogens
DNA/AuNPs/Cu-MOF/GCE after S. aureus cell capture · Electrode · S. aureus cells spiked in urine; n = 3.
2020 · Electrochemical deposition of Cu metal-organic framework films for the dual analysis of pathogens
DNA/AuNPs/Cu-MOF/GCE after S. aureus supernatant exposure · Electrode · S. aureus supernatant spiked in urine; n = 3.
2020 · Electrochemical deposition of Cu metal-organic framework films for the dual analysis of pathogens
DNA/AuNPs/Cu-MOF/GCE biosensor · Electrode · Selectivity against E. coli and L. monocytogenes supernatants/cells at 7 x 10^3 cfu/mL in PBS.
2020 · Electrochemical deposition of Cu metal-organic framework films for the dual analysis of pathogens
DNA/AuNPs/Cu-MOF/GCE biosensor · Electrode · Specificity after incubating samples at 100 deg C for 20 min; Exo1, DNase1, S. aureus supernatant/MNase and mixture in urine.
2020 · Electrochemical immunoassay for the carcinoembryonic antigen based on Au NPs modified zeolitic imidazolate framework and ordered mesoporous carbon
Au NPs@ZIF-8/OMC/GCE · Electrode · CV in 0.1 M KCl containing 5 mM Fe(CN)6(3-/4-) at 50 mV s-1, comparing Au@ZIF-8/OMC/GCE, bare GCE, Au@ZIF-8/GCE, ZIF-8/GCE, anti-CEA/Au@ZIF-8/OMC/GCE and CEA/anti-CEA/Au@ZIF-8/OMC/GCE.
2020 · Electrochemical immunoassay for the carcinoembryonic antigen based on Au NPs modified zeolitic imidazolate framework and ordered mesoporous carbon
CEA/anti-CEA/Au NPs@ZIF-8/OMC/GCE · Electrode · DPV response curves for CEA concentrations 0.005, 0.05, 0.5, 5, 50, 100, 200 and 400 ng mL-1 under optimised conditions; 0 to 0.6 V, 50 mV pulse amplitude, 50 ms width.
2020 · Electrochemical immunoassay for the carcinoembryonic antigen based on Au NPs modified zeolitic imidazolate framework and ordered mesoporous carbon
Au NPs@ZIF-8/OMC/GCE · Electrode · DPV current change (Delta I_DPV) for 100 ng mL-1 CEA using electrodes modified by ZIF-8, Au@ZIF-8, OMC, ZIF-8/OMC and Au@ZIF-8/OMC in 0.1 M KCl containing 5 mM Fe(CN)6(3-/4-), n = 3.
2020 · Electrochemical immunoassay for the carcinoembryonic antigen based on Au NPs modified zeolitic imidazolate framework and ordered mesoporous carbon
CEA/anti-CEA/Au NPs@ZIF-8/OMC/GCE · Electrode · Optimisation of Au@ZIF-8:OMC ratio, anti-CEA loading, reaction time, incubation temperature and pH.
2020 · Electrochemical immunoassay for the carcinoembryonic antigen based on Au NPs modified zeolitic imidazolate framework and ordered mesoporous carbon
CEA/anti-CEA/Au NPs@ZIF-8/OMC/GCE · Electrode · Human serum samples diluted 100-fold by PBS; recovery test with 10, 50 and 100 ng mL-1 CEA; comparison to Siemens Advia Centaur XP chemiluminescence immunoassay analyser.
2020 · Electrochemical immunoassay for the carcinoembryonic antigen based on Au NPs modified zeolitic imidazolate framework and ordered mesoporous carbon
CEA/anti-CEA/Au NPs@ZIF-8/OMC/GCE · Electrode · Specificity for 10 ng mL-1 CEA with AFP, HCG, BSA or IgG interferents; six independently fabricated electrodes for reproducibility at 5 ng mL-1 CEA.
2020 · Electrochemical immunoassay for the carcinoembryonic antigen based on Au NPs modified zeolitic imidazolate framework and ordered mesoporous carbon
CEA/anti-CEA/Au NPs@ZIF-8/OMC/GCE · Electrode · Modified electrodes stored in PBS at 4 C and DPV current responses recorded after 0, 7 and 10 days.
2020 · Electrochemical Transformation of Metal Organic Framework into Ultrathin Metal Hydroxide-(oxy)hydroxide Nanosheets for Alkaline Water Oxidation
CF-1 · Electrode · 1.0 M aqueous KOH, scan rate 2 mV s-1, iR-drop/background corrected
2020 · Electrochemical Transformation of Metal Organic Framework into Ultrathin Metal Hydroxide-(oxy)hydroxide Nanosheets for Alkaline Water Oxidation
CF-2 · Electrode · 1.0 M aqueous KOH, scan rate 2 mV s-1, iR-drop/background corrected
2020 · Electrochemical Transformation of Metal Organic Framework into Ultrathin Metal Hydroxide-(oxy)hydroxide Nanosheets for Alkaline Water Oxidation
CF-3 · Electrode · 1.0 M aqueous KOH, scan rate 2 mV s-1, iR-drop/background corrected
2020 · Electrochemical Transformation of Metal Organic Framework into Ultrathin Metal Hydroxide-(oxy)hydroxide Nanosheets for Alkaline Water Oxidation
CF-4 · Electrode · 1.0 M aqueous KOH, scan rate 2 mV s-1, iR-drop/background corrected
2020 · Electrochemical Transformation of Metal Organic Framework into Ultrathin Metal Hydroxide-(oxy)hydroxide Nanosheets for Alkaline Water Oxidation
CF-5 · Electrode · 1.0 M aqueous KOH, scan rate 2 mV s-1
2020 · Electrochemical Transformation of Metal Organic Framework into Ultrathin Metal Hydroxide-(oxy)hydroxide Nanosheets for Alkaline Water Oxidation
CoFe-PBA@CC · Electrode · 1.0 M aqueous KOH, scan rate 2 mV s-1
2020 · Electrochemical Transformation of Metal Organic Framework into Ultrathin Metal Hydroxide-(oxy)hydroxide Nanosheets for Alkaline Water Oxidation
CoHC@CC · Electrode · 1.0 M aqueous KOH, scan rate 2 mV s-1
2020 · Electrochemical Transformation of Metal Organic Framework into Ultrathin Metal Hydroxide-(oxy)hydroxide Nanosheets for Alkaline Water Oxidation
NF-2 · Electrode · 1.0 M aqueous KOH, scan rate 2 mV s-1; compared with CF-2 and NiHC@CC
2020 · Electrochemical Transformation of Metal Organic Framework into Ultrathin Metal Hydroxide-(oxy)hydroxide Nanosheets for Alkaline Water Oxidation
NiHC@CC · Electrode · 1.0 M aqueous KOH, scan rate 2 mV s-1
2020 · Electrochemical Transformation of Metal Organic Framework into Ultrathin Metal Hydroxide-(oxy)hydroxide Nanosheets for Alkaline Water Oxidation
commercial RuO2 · Electrode · 1.0 M aqueous KOH, scan rate 2 mV s-1; commercial benchmark
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
HMCS · Powder · 0.1 M KOH, O2-saturated, 1600 rpm
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
IrO2 bulk · Powder · 0.1 M KOH, O2-saturated, 1600 rpm
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
pure ZIF-67 · Powder · 0.1 M KOH, O2-saturated, 1600 rpm
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
ZIF@HMCS-10% · Powder · 0.1 M KOH; O2-saturated OER LSV at 1600 rpm after iR compensation; Table S2 comparison.
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
ZIF@HMCS-25% catalyst ink electrode · Electrode · 0.1 M KOH, O2-saturated, 1600 rpm, iR-compensated, scan 5 mV s^-1
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
ZIF@HMCS-50% · Powder · 0.1 M KOH; O2-saturated OER LSV at 1600 rpm after iR compensation; Table S2 comparison.
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
Co-HMCS · Powder · 0.1 M KOH; RDE/RRDE where applicable; O2-saturated; ORR LSV/Tafel/K-L comparison in Table S2.
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
HMCS · Powder · 0.1 M KOH, O2-saturated
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
20 wt% Pt/C · Powder · 0.1 M KOH, O2-saturated
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
pure ZIF-67 · Powder · 0.1 M KOH, O2-saturated, 1600 rpm where applicable
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
ZIF@BHMCS-25% · Powder · 0.1 M KOH; RDE/RRDE where applicable; O2-saturated; ORR LSV/Tafel/K-L comparison in Table S2.
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
ZIF@HMCS-10% · Powder · 0.1 M KOH; RDE/RRDE where applicable; O2-saturated; ORR LSV/Tafel/K-L comparison in Table S2.
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
ZIF@HMCS-25% catalyst ink electrode · Electrode · 0.1 M KOH, O2-saturated, 1600 rpm where applicable, iR-compensated
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
ZIF@HMCS-50% · Powder · 0.1 M KOH; RDE/RRDE where applicable; O2-saturated; ORR LSV/Tafel/K-L comparison in Table S2.
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
ZIF/HMCS-25% · Powder · 0.1 M KOH; RDE/RRDE where applicable; O2-saturated; ORR LSV/Tafel/K-L comparison in Table S2.
2020 · Enhanced bioelectrochemical performance caused by porous metal-organic framework MIL-53(Fe) as the catalyst in microbial fuel cells
MIL-53(Fe)-coated glassy carbon electrode · Electrode · CHI660E electrochemical workstation; conventional three-electrode system; 50 mM PBS; GCE coated catalyst working electrode; SCE reference electrode; Pt sheet counter electrode; O2-saturated and O2-free PBS for ORR comparison.
2020 · Enhanced bioelectrochemical performance caused by porous metal-organic framework MIL-53(Fe) as the catalyst in microbial fuel cells
MIL-53(Fe)/SS air cathode · Electrode · LSV comparison of MIL-53(Fe)/SS and bare SS under the electrochemical test conditions reported for ORR.
2020 · Heteroatom-doped 3D porous carbon architectures for highly stable aqueous zinc metal batteries and non-aqueous lithium metal batteries
NOCA@CF · Electrode · First five continuous CV profiles of NOCA@CF anode for lithium-ion batteries.
2020 · High-performance non-enzymatic glucose detection: Using a conductive Ni-MOF as an electrocatalyst
Conductive Ni-MOF working electrode · Electrode · Glucose concentrations 1.0-8.0 mM in 0.1 M NaOH; potential range 0-0.8 V; scan rate 20 mV s-1.
2020 · High-performance non-enzymatic glucose detection: Using a conductive Ni-MOF as an electrocatalyst
Conductive Ni-MOF working electrode · Electrode · 0.1 M NaOH; absence/presence of 1 mM glucose; scan rate 20 mV s-1; potential range 0-0.8 V.
2020 · High-performance non-enzymatic glucose detection: Using a conductive Ni-MOF as an electrocatalyst
Conductive Ni-MOF working electrode · Electrode · Conductive Ni-MOF with 1 mM glucose; scan rates from 20 to 200 mV s-1.
2020 · Highly Conductive Two-Dimensional Metal-Organic Frameworks for Resilient Lithium Storage with Superb Rate Capability
Cu-BHT/CNT/PVDF cathode, 70:20:10 · Electrode · scan rates 0.1 to 0.8 mV s-1; 1.5-3.0 V vs Li+/Li
2020 · Highly Dispersed MoO2Nanoparticles Confined in N-Doped Porous Carbon Nanosheets for Efficient Hydrogen Evolution in Alkaline Media
MoO2 NPs@N-C NSs/NF · Electrode · CVs in nonfaradaic region 0.05-0.55 V vs RHE at 10, 30, 40, 50, 60, and 80 mV s-1 in 1.0 M KOH; charging current at 0.3 V.
2020 · Highly Dispersed MoO2Nanoparticles Confined in N-Doped Porous Carbon Nanosheets for Efficient Hydrogen Evolution in Alkaline Media
MoO2 NPs@N-C NSs/NF · Electrode · Three-electrode cell in 1.0 M KOH; SCE reference, carbon rod counter, catalyst loading 0.06 mg cm-2; iR-corrected; 5 mV s-1.
2020 · Highly Selective CO2 Electroreduction to CH4 by In Situ Generated Cu2O Single-Type Sites on a Conductive MOF: Stabilizing Key Intermediates with Hydrogen Bonding
Cu2O@CuHHTP, -1.2 V 30 min · Electrode · 0.1 M KCl/0.1 M KHCO3 under Ar and CO2; CV -1.4 to 0.1 V vs RHE at 100 mV/s in SI; LSV scan rate 10 mV/s
2020 · Highly Selective CO2 Electroreduction to CH4 by In Situ Generated Cu2O Single-Type Sites on a Conductive MOF: Stabilizing Key Intermediates with Hydrogen Bonding
Synthesized Cu2O quantum dots without conductive carbon black electrode · Electrode · CO2-saturated 0.1 M KHCO3/0.1 M KCl electrolyte
2020 · Interdigitated conducting tetrathiafulvalene-based coordination networks
Ligand 1 in CH2Cl2 solution for cyclic voltammetry · Model · CH2Cl2 solution of 1 (5 x 10^-4 mol L^-1), 0.1 M nBu4NPF6, vs Fc/Fc+.
2020 · Ionic liquid supported nickel-based metal-organic framework for electrochemical sensing of hydrogen peroxide and electrocatalytic oxidation of methanol
Ni-MOF modified glassy carbon electrode (Ni-MOF/GCE) · Electrode · 0.5 M NaOH; scan rates from 0.01 to 0.5 V s^-1; conventional three-electrode system with Ni-MOF/GCE working electrode, SCE reference and Pt plate counter electrode.
2020 · Ionic liquid supported nickel-based metal-organic framework for electrochemical sensing of hydrogen peroxide and electrocatalytic oxidation of methanol
Ni-MOF modified glassy carbon electrode (Ni-MOF/GCE) · Electrode · 0.5 M NaOH; 50 mV s^-1; Ni-MOF/GCE with and without H2O2.
2020 · Ionic liquid supported nickel-based metal-organic framework for electrochemical sensing of hydrogen peroxide and electrocatalytic oxidation of methanol
Ni-MOF modified glassy carbon electrode (Ni-MOF/GCE) · Electrode · 0.5 M NaOH containing baseline and 0.5, 1.0, 1.5, 2.0, 3.0 and 4.0 M CH3OH; potential range 0-0.6 V; scan rate 50 mV s^-1.
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
H4Ni(dbg)2 solution sample · Unknown · 1 mM H4Ni(dbg)2 in 0.1 M TBAPF6 degassed DMF; glassy carbon working electrode; Ag pseudo-reference; Pt counter; 100 mV/s
2020 · Metal-organic framework nanosheets for enhanced performance of organic photovoltaic cells
dropcast Zn2(ZnTCPP) MON film · Thin Film · Acetonitrile with tetrabutylammonium perchlorate electrolyte; Ag/Ag+ reference, Pt counter electrode, glassy carbon working electrode; scan rate 100 mV s-1 under Ar.
2020 · Multimetal Incorporation into 2D Conductive Metal-Organic Framework Nanowires Enabling Excellent Electrocatalytic Oxidation of Benzylamine to Benzonitrile
NiCoFe-CAT/AB/PVDF on carbon cloth working electrode · Electrode · CV in 1 M KOH; potential window 1.12-1.22 V; scan rates 5-85 mV s-1.
2020 · Multimetal Incorporation into 2D Conductive Metal-Organic Framework Nanowires Enabling Excellent Electrocatalytic Oxidation of Benzylamine to Benzonitrile
NiCoFe-CAT/AB/PVDF on carbon cloth working electrode · Electrode · 1.0 M KOH with and without 10 mM BA; scan rate 5 mV s-1.
2020 · Multimetal Incorporation into 2D Conductive Metal-Organic Framework Nanowires Enabling Excellent Electrocatalytic Oxidation of Benzylamine to Benzonitrile
NiCoFe-CAT/AB/PVDF on carbon cloth working electrode · Electrode · 1 M KOH + 10 mmol BA on carbon cloth, scan rate 5 mV s-1; potentials vs RHE at i10/i50/i100.
2020 · Multimetal Incorporation into 2D Conductive Metal-Organic Framework Nanowires Enabling Excellent Electrocatalytic Oxidation of Benzylamine to Benzonitrile
NiCoFe-CAT/AB/PVDF on carbon cloth working electrode · Electrode · 1 M KOH on carbon cloth, scan rate 5 mV s-1; potentials vs RHE at i10/i50/i100.
2020 · Multimetal Incorporation into 2D Conductive Metal-Organic Framework Nanowires Enabling Excellent Electrocatalytic Oxidation of Benzylamine to Benzonitrile
NiCoFe-CAT/AB/PVDF on carbon cloth working electrode · Electrode · BA oxidation; TOF at 1.35 V; mass activity at 1.29 and 1.35 V.
2020 · Multiscale optimization of Li-ion diffusion in solid lithium metal batteries: Via ion conductive metal-organic frameworks
Flexible LCMOF-1/PVDF-HFP/Li-IL SE · Thin Film · Li/SE/SS asymmetric cell; scan rate 1 mV s-1; room temperature; open-circuit to 6 V.
2020 · Oxygen-Vacancy-Abundant Ferrites on N-Doped Carbon Nanosheets as High-Performance Li-Ion Battery Anodes
Composite working electrode formulation · Electrode · Li foil counter/reference; 1.0 M LiPF6 in ethyl carbonate/dimethyl carbonate 1:1 v/v; Celgard 2400 separator; active material/carbon black/PVDF electrode.
2020 · Oxygen-Vacancy-Abundant Ferrites on N-Doped Carbon Nanosheets as High-Performance Li-Ion Battery Anodes
NC@CoFe2O4 powder · Powder · 0.2 mV s-1 between 0.01 and 3.0 V vs Li/Li+.
2020 · Oxygen-Vacancy-Abundant Ferrites on N-Doped Carbon Nanosheets as High-Performance Li-Ion Battery Anodes
NC@NiFe2O4 powder · Powder · 0.2 mV s-1 between 0.01 and 3.0 V vs Li/Li+.
2020 · Oxygen-Vacancy-Abundant Ferrites on N-Doped Carbon Nanosheets as High-Performance Li-Ion Battery Anodes
NC@CoFe2O4 powder · Powder · CV tests at scan rates of 0.2-1.0 mV s-1; b values obtained from i = av^b.
2020 · Pillared nickel-based metal-organic frameworks as electrode material with high electrochemical performance
Activated carbon composite negative electrode · Electrode · Three-electrode system in 3 M KOH; CV at 10-150 mV s-1; GCD at 1-20 A g-1; Nyquist plot in SI Fig. S9.
2020 · Pillared nickel-based metal-organic frameworks as electrode material with high electrochemical performance
(Zn/Ni)2(bdc)2P//AC asymmetric supercapacitor · Electrode · (Zn/Ni)2(bdc)2P positive electrode and AC negative electrode; CV at 30-200 mV s-1; GCD at 0.5-10 A g-1; working window 0-1.5 V.
2020 · Pillared nickel-based metal-organic frameworks as electrode material with high electrochemical performance
(Zn/Ni)2(bdc)2P//AC asymmetric supercapacitor · Electrode · Supplementary Fig. S10: CV windows 0-1.0, 0-1.2, 0-1.4 and 0-1.5 V plus ASC Nyquist plot.
2020 · Pillared nickel-based metal-organic frameworks as electrode material with high electrochemical performance
(Zn/Ni)2(bdc)2P composite working electrode · Electrode · CHI 660E workstation; 3 M KOH aqueous electrolyte; Hg/HgO reference and Pt counter electrode; room temperature.
2020 · Pillared nickel-based metal-organic frameworks as electrode material with high electrochemical performance
Zn2(bdc)2P composite working electrode · Electrode · Supplementary Fig. S7: CV at 4-30 mV s-1 and GCD at 1, 2 and 5 A g-1 in 3 M KOH three-electrode system.
2020 · Self-assembled Mo doped Ni-MOF nanosheets based electrode material for high performance battery-supercapacitor hybrid device
Activated carbon negative electrode · Electrode · AC negative electrode tested in 3 M KOH; SI reports same electrode-sheet preparation method as positive electrode.
2020 · Self-assembled Mo doped Ni-MOF nanosheets based electrode material for high performance battery-supercapacitor hybrid device
M-NMN-1//AC BSH · Electrode · M-NMN-1//AC BSH in 3.0 M KOH; voltage window optimised to 0-1.6 V; cycling evaluated at 5 A g^-1.
2020 · Self-assembled Mo doped Ni-MOF nanosheets based electrode material for high performance battery-supercapacitor hybrid device
M-NMN-1 · Electrode · M-NMN-1 tested at scan rates 5 to 80 mV s^-1; GCD at current densities 1 to 10 A g^-1; cycling at 5 A g^-1 for 20,000 cycles.
2020 · Self-assembled Mo doped Ni-MOF nanosheets based electrode material for high performance battery-supercapacitor hybrid device
M-NMN-1 · Electrode · Three-electrode system in 3 M KOH aqueous electrolyte; CV comparison at 20 mV s^-1; GCD at varied current densities; EIS at open circuit from 100 kHz to 0.01 Hz.
2020 · Semiconducting Supramolecular Organic Frameworks Assembled from a Near-Infrared Fluorescent Macrocyclic Probe and Fullerenes
receptor 2 in solution · Unknown · Ar-saturated CH2Cl2 with 0.1 M NBu4PF6, Ag/Ag+ reference, Pt counter, glassy carbon working electrode; Fc/Fc+ internal standard; scan rate 0.01 V/s.
2020 · Sensitive detection of carcinoembryonic antigen (CEA) by a sandwich-type electrochemical immunosensor using MOF-Ce@HA/Ag-HRP-Ab2 as a nanoprobe
sandwich CEA immunosensor on GCE · Electrode · CV from -0.2 to 0.6 V at 0.1 V s-1 in 5 mM [Fe(CN)6]3-/4- containing 0.1 mol l-1 KCl for Au/GCE, Au/Ab1/GCE, bare GCE, Au/Ab1/BSA/GCE, Au/Ab1/BSA/CEA/GCE and Au/Ab1/BSA/CEA/Ab2/GCE.
2020 · Sensitive detection of carcinoembryonic antigen (CEA) by a sandwich-type electrochemical immunosensor using MOF-Ce@HA/Ag-HRP-Ab2 as a nanoprobe
bare GCE control · Electrode · Peak current measured at scan rates 0.05, 0.1, 0.15, 0.2 and 0.25 V s-1 in K3Fe(CN)6 electrolyte; calculated effective working area.
2020 · Single-Site, Single-Metal-Atom, Heterogeneous Electrocatalyst: Metal–Organic-Framework Supported Molybdenum Sulfide for Redox Mediator-Assisted Hydrogen Evolution Reaction
MoSx-SIM-NDC-SALI/FTO electrode · Electrode · pH 1.2 aqueous H2SO4 with 10 mM DQ2+, 25 mV/s; compared with no RM and 10 mM MV2+
2020 · Single-Site, Single-Metal-Atom, Heterogeneous Electrocatalyst: Metal–Organic-Framework Supported Molybdenum Sulfide for Redox Mediator-Assisted Hydrogen Evolution Reaction
MoOx-SIM-NDC-SALI/FTO electrode · Electrode · pH 1.2 aqueous H2SO4 with 10 mM MV2+, 25 mV/s; controls include MoOx-SIM-NDC-SALI, NDC-SALI, NU-1000 and FTO
2020 · Single-Site, Single-Metal-Atom, Heterogeneous Electrocatalyst: Metal–Organic-Framework Supported Molybdenum Sulfide for Redox Mediator-Assisted Hydrogen Evolution Reaction
MoSx-SIM-NDC-SALI/FTO electrode · Electrode · pH 1.2 aqueous H2SO4 with 10 mM MV2+, 25 mV/s; potentials vs RHE
2020 · Single-Site, Single-Metal-Atom, Heterogeneous Electrocatalyst: Metal–Organic-Framework Supported Molybdenum Sulfide for Redox Mediator-Assisted Hydrogen Evolution Reaction
MoSx-SIM without NDC/FTO electrode · Electrode · pH 1.2 aqueous H2SO4 with 10 mM MV2+, 25 mV/s; potentials vs RHE
2020 · Single-Site, Single-Metal-Atom, Heterogeneous Electrocatalyst: Metal–Organic-Framework Supported Molybdenum Sulfide for Redox Mediator-Assisted Hydrogen Evolution Reaction
MoSx-SIM-NDC-SALI/FTO electrode · Electrode · aqueous H2SO4 at pH 1.2, 25 mV/s; three-electrode H-cell, Pt coil counter, Ag/AgCl/KCl reference; potentials reported vs RHE
2020 · Single-Site, Single-Metal-Atom, Heterogeneous Electrocatalyst: Metal–Organic-Framework Supported Molybdenum Sulfide for Redox Mediator-Assisted Hydrogen Evolution Reaction
MoSx-SIM-NDC-SALI/FTO electrode · Electrode · pH 1.2 H2SO4/H2O vs pD 1.2 D2SO4/D2O, 10 mM MV2+, 25 mV/s
2020 · Solid-solid interface growth of conductive metal-organic framework nanowire arrays and their supercapacitor application
Blank polished Cu foil current collector · Electrode · Blank copper foil scanned from -0.6 V to -0.02 V vs Ag/AgCl at 100 mV s-1.
2020 · Solid-solid interface growth of conductive metal-organic framework nanowire arrays and their supercapacitor application
Symmetric supercapacitor assembled from two Cu3(HHTP)2 NWA electrodes · Electrode · Two identical Cu3(HHTP)2 NWA electrodes in 1 M KCl; CV/GCD from 0 to 0.8 V; capacitance based on total active material mass.
2020 · Solid-solid interface growth of conductive metal-organic framework nanowire arrays and their supercapacitor application
Cu3(HHTP)2 nanowire arrays in situ grown on Cu foil · Electrode · Cu3(HHTP)2 NWAs on Cu foil used as sole working electrode; Pt counter electrode and Ag/AgCl reference; 1 M KCl aqueous electrolyte; GCD from -0.6 to -0.02 V.
2020 · Synthesis and characterization of Fe3O4-supported metal–organic framework MIL-101(Fe) for a highly selective and sensitive hydrogen peroxide electrochemical sensor
MIL-101(Fe)@Fe3O4/NGCE sensor · Electrode · H2O2 0-55 mM in N2-saturated 0.1 M PBS, pH 7; scan rate 50 mV s-1
2020 · Synthesis and characterization of Fe3O4-supported metal–organic framework MIL-101(Fe) for a highly selective and sensitive hydrogen peroxide electrochemical sensor
MIL-101(Fe)@Fe3O4/NGCE sensor · Electrode · 0.1 M PBS pH 9.0; pulse amplitude 50 mV, step potential 5 mV, pulse time 25 ms; scan rate 50 mV/s; H2O2 0.001-0.05 mM
2020 · Synthesis and characterization of Fe3O4-supported metal–organic framework MIL-101(Fe) for a highly selective and sensitive hydrogen peroxide electrochemical sensor
MIL-101(Fe)@Fe3O4/NGCE sensor · Electrode · 10 mM H2O2 in N2-saturated 0.1 M PBS; pH 4-9; scan rate 50 mV s-1
2020 · Synthesis and characterization of Fe3O4-supported metal–organic framework MIL-101(Fe) for a highly selective and sensitive hydrogen peroxide electrochemical sensor
MIL-101(Fe)@Fe3O4/NGCE sensor · Electrode · 5 mM H2O2 in PBS pH 7.0; scan rates 10-100 mV s-1
2020 · Synthesis and characterization of Fe3O4-supported metal–organic framework MIL-101(Fe) for a highly selective and sensitive hydrogen peroxide electrochemical sensor
MIL-101(Fe)@Fe3O4/NGCE sensor · Electrode · 40 mM H2O2 in stirred 0.1 M PBS pH 9; refrigerated storage up to 14 days
2020 · Synthesis and characterization of Fe3O4-supported metal–organic framework MIL-101(Fe) for a highly selective and sensitive hydrogen peroxide electrochemical sensor
MIL-101(Fe)@Fe3O4/NGCE sensor · Electrode · PBS with 3 mM H2O2; 20 cycles; scan rate 50 mV s-1
2020 · Synthesis of a copper 1,3,5-triamino-2,4,6-benzenetriol metal-organic framework
Cu(NO3)2 and TABTOate aqueous CV solutions · Unknown · Cu(NO3)2 and 1,3,5-triamino-2,4,6-benzenetriolate, 1 mM in 1 M KCl aqueous solution, 50 mV s-1, platinum working electrode, in air.
2020 · Temperature effect on the synthesis of two Ni-MOFs with distinct performance in supercapacitor
Ni-MOF-2D working electrode · Electrode · Three-electrode cell, 3 M KOH aqueous electrolyte, Ag/AgCl reference, Pt wire counter; scan rates 1-100 mV s-1; 0-0.5 V window.
2020 · Temperature effect on the synthesis of two Ni-MOFs with distinct performance in supercapacitor
Ni-MOF-3D working electrode · Electrode · Three-electrode cell, 3 M KOH aqueous electrolyte, Ag/AgCl reference, Pt wire counter; scan rates 1-100 mV s-1; 0-0.5 V window.
2020 · The Advent of Electrically Conducting Double-Helical Metal-Organic Frameworks Featuring Butterfly-Shaped Electron-Rich π-Extended Tetrathiafulvalene Ligands
1 drop-cast thin film on glassy carbon · Thin Film · Pristine dhMOF 1 thin film drop-cast on glassy carbon, vs Ag/AgCl, 0.1 M Bu4NPF6 in MeCN; SI: Princeton Applied Research VersaStat 3-450, glassy carbon working electrode, Ag/AgCl reference, Pt-mesh counter, 0.1 M Bu4NPF6 in MeCN or DMF
2020 · The Advent of Electrically Conducting Double-Helical Metal-Organic Frameworks Featuring Butterfly-Shaped Electron-Rich π-Extended Tetrathiafulvalene Ligands
1a iodine-treated thin film for CV · Thin Film · Iodine-treated 1a vs Ag/AgCl, 0.1 M Bu4NPF6 in MeCN; SI: Princeton Applied Research VersaStat 3-450, glassy carbon working electrode, Ag/AgCl reference, Pt-mesh counter, 0.1 M Bu4NPF6 in MeCN or DMF
2020 · The Advent of Electrically Conducting Double-Helical Metal-Organic Frameworks Featuring Butterfly-Shaped Electron-Rich π-Extended Tetrathiafulvalene Ligands
Free ExTTFTB ligand · Model · Free ExTTFTB ligand vs Ag/AgCl in 0.1 M Bu4NPF6/DMF; SI: Princeton Applied Research VersaStat 3-450, glassy carbon working electrode, Ag/AgCl reference, Pt-mesh counter, 0.1 M Bu4NPF6 in MeCN or DMF
2020 · Three-dimensional Co/Ni bimetallic organic frameworks for high-efficient catalytic ozonation of atrazine: Mechanism, effect parameters, and degradation pathways analysis
Co/Ni-MOF brown powder · Powder · CHI760E electrochemical workstation; scan range -0.3 to 0.7 V; scan rate 30 mV s-1; 0.1 M Na2SO4.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
FeCo0.6Ni0.4-CAT powder/electrode, Fe/(Co+Ni) about 0.32 · Electrode · CV at 20, 30, 40, 50, and 60 mV s^-1 in a non-Faradaic region; Cdl from slope of deltaJ vs scan rate.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
FeCo0.6Ni0.4-CAT powder/electrode, Fe/(Co+Ni) about 0.32 · Electrode · CV curves from 0.924-1.624 V vs RHE at 10 mV s^-1 for FeCo0.6Ni0.4-CAT, FeNi-CAT, Co0.6Ni0.4-CAT, and Ni-CAT.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
FeCo0.6Ni0.4-CAT powder/electrode, Fe/(Co+Ni) about 0.32 · Electrode · CV durability from 1.124-1.574 V vs RHE at 5 mV s^-1; chronopotentiometry at 10 mA cm^-2 for 30 h.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
FeCo0.6Ni0.4-CAT powder/electrode, Fe/(Co+Ni) about 0.32 · Electrode · CHI 660E; GC working electrode, Hg/HgO reference, Pt wire counter; O2-saturated 1.0 M KOH; 0.2 mg cm^-2 catalyst; 20 CV activation cycles before measurements; RHE conversion used.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
Co-CAT powder/electrode · Electrode · O2-saturated 1.0 M KOH, 5 mV s^-1, iR-corrected; overpotential at 10 mA cm^-2.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
Co0.4Ni0.6-CAT powder/electrode · Electrode · O2-saturated 1.0 M KOH, 5 mV s^-1, iR-corrected; overpotential at 10 mA cm^-2.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
Co0.6Ni0.4-CAT powder/electrode · Electrode · O2-saturated 1.0 M KOH, 5 mV s^-1, iR-corrected; overpotential at 10 mA cm^-2 and current density at 1.6 V vs RHE.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
Co0.8Ni0.2-CAT powder/electrode · Electrode · O2-saturated 1.0 M KOH, 5 mV s^-1, iR-corrected; overpotential at 10 mA cm^-2.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
FeCo-CAT powder/electrode · Electrode · O2-saturated 1.0 M KOH, 5 mV s^-1, iR-corrected; overpotential at 10 mA cm^-2.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
FeCo0.4Ni0.6-CAT powder/electrode · Electrode · O2-saturated 1.0 M KOH, 5 mV s^-1, iR-corrected; overpotential at 10 mA cm^-2.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
FeCo0.6Ni0.4-CAT powder/electrode, Fe/(Co+Ni) about 0.32 · Electrode · O2-saturated 1.0 M KOH, 5 mV s^-1, iR-corrected; overpotential at 10 mA cm^-2 and current density at 1.6 V vs RHE.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
FeCo0.8Ni0.2-CAT powder/electrode · Electrode · O2-saturated 1.0 M KOH, 5 mV s^-1, iR-corrected; overpotential at 10 mA cm^-2.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
FeNi-CAT powder/electrode · Electrode · O2-saturated 1.0 M KOH, 5 mV s^-1, iR-corrected; overpotential at 10 mA cm^-2.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
Ni-CAT powder/electrode · Electrode · O2-saturated 1.0 M KOH, 5 mV s^-1, iR-corrected; overpotential at 10 mA cm^-2.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
Commercial RuO2 benchmark electrode · Electrode · Commercial RuO2 comparison under same OER conditions.
2020 · Trimetallic conductive metal-organic frameworks as precatalysts for the oxygen evolution reaction with enhanced activity
FeCo0.6Ni0.4-CAT powder/electrode, Fe/(Co+Ni) about 0.32 · Electrode · XPS after accelerated degradation/OER cycling; metal hydroxide/oxyhydroxide assignment.
2020 · Two-Dimensional Conductive Metal-Organic Frameworks Based on Truxene
truxene-Cu cMOF-modified GC electrode · Electrode · Three-electrode system; cMOF-modified or bare GC working electrode, Ag/AgCl (3.5 M KCl) reference, Pt counter; CV scan rate 0.1 V/s; 10.0 uM paraquat solution.
2020 · Two-Dimensional Conductive Metal-Organic Frameworks Based on Truxene
truxene-Cu cMOF-modified GC electrode · Electrode · DPV pulse amplitude 50 mV, pulse width 200 ms; paraquat concentrations 0.2-10.0 uM for response, linear range 0.2-5 uM.
2020 · Two-Dimensional Conductive Metal-Organic Frameworks Based on Truxene
pressed truxene-Cu cMOF tablet · Pellet · Conductivity data over 5-80 deg C fitted with Arrhenius equation.
2020 · Two-Dimensional Conductive Metal-Organic Frameworks Based on Truxene
pressed truxene-Cu cMOF tablet · Pellet · Voltage 0-1 V between two stainless steel electrodes; scan rate 0.05 V s-1; conductivity calculated as sigma = L/(R*S) from compressed-sample dimensions.
2020 · Two-Dimensional Conductive Ni-HAB as a Catalyst for the Electrochemical Oxygen Reduction Reaction
Cu-HAB drop-cast GC electrode · Electrode · Disk swept 0.2-1.1 V vs RHE at 10 mV/s; Pt ring held at 1.2 V vs RHE to oxidise H2O2; Cu-HAB prepared by ink drop-casting.
2020 · Two-Dimensional Conductive Ni-HAB as a Catalyst for the Electrochemical Oxygen Reduction Reaction
Ni-HAB-H drop-cast GC electrode · Electrode · 0.1 M KOH in water, pH 13, RRDE at 1600 rpm; disk potential swept 0.2-1.1 V vs RHE at 10 mV/s; Pt ring held at 1.2 V vs RHE; O2 current corrected by subtracting N2 current.
2020 · Two-Dimensional Conductive Ni-HAB as a Catalyst for the Electrochemical Oxygen Reduction Reaction
Ni-HAB-L drop-cast GC electrode · Electrode · 0.1 M KOH in water, pH 13, RRDE at 1600 rpm; disk potential swept 0.2-1.1 V vs RHE at 10 mV/s; Pt ring held at 1.2 V vs RHE; O2 current corrected by subtracting N2 current.
2020 · Ultrasmall Au(0) Inserted Hollow PCN-222 MOF for the High-Sensitive Detection of Estradiol
AuHPCN-222/GCE · Electrode · 50 uM ED in 0.1 M PBS (pH 7), scan rate 0.1 V s-1; comparison of bare GCE, HPCN-222/GCE, AuNP/GCE, AuSPCN-222 and AuHPCN-222.
2020 · Ultrasmall Au(0) Inserted Hollow PCN-222 MOF for the High-Sensitive Detection of Estradiol
AuHPCN-222/GCE · Electrode · 5 mM [Fe(CN)6]3-/[Fe(CN)6]4- containing 0.1 M KCl; scan rate shown in Figure 3a.
2020 · Ultrasmall Au(0) Inserted Hollow PCN-222 MOF for the High-Sensitive Detection of Estradiol
AuHPCN-222/GCE · Electrode · 0.1 M PBS (pH 7), ED concentrations 0.01-220 uM. SI protocol: 0.37-0.73 V range, 0.004 V step, 0.05 V modulation amplitude, 0.2 s interval.
2020 · Ultrasmall Au(0) Inserted Hollow PCN-222 MOF for the High-Sensitive Detection of Estradiol
AuHPCN-222/GCE · Electrode · pH varied from 3 to 9; ED oxidation potential and anodic current recorded.
2020 · Ultrasmall Au(0) Inserted Hollow PCN-222 MOF for the High-Sensitive Detection of Estradiol
AuHPCN-222/GCE · Electrode · 10 successive DPV measurements in 0.05 mM ED solution at pH 7; five different AuHPCN-222/GCE electrodes for reproducibility.
2020 · Ultrasmall Au(0) Inserted Hollow PCN-222 MOF for the High-Sensitive Detection of Estradiol
AuHPCN-222/GCE · Electrode · 0.1 M PBS (pH 7.0) containing 0.05 mM ED; scan rates 10, 25, 50, 75, 100, 150 and 200 mV s-1.
2020 · Ultrasmall Au(0) Inserted Hollow PCN-222 MOF for the High-Sensitive Detection of Estradiol
AuHPCN-222/GCE · Electrode · Sensor kept at ambient temperature for 20 days with daily DPV of 0.05 mM ED (pH 7).
2020 · Ultrathin two-dimensional conjugated metal-organic framework single-crystalline nanosheets enabled by surfactant-assisted synthesis
HHB-Cu NS organic cathode electrode · Electrode · CV at 1 mV s^-1; optimised potential window 1.3-2.6 V vs Li/Li+.
2020 · Ultrathin two-dimensional conjugated metal-organic framework single-crystalline nanosheets enabled by surfactant-assisted synthesis
HHB-Ni nanosheets · Nanosheet · HHB-Ni NSs compared with HHB-Cu NSs at 1 mV s^-1 for redox-site interpretation.
2020 · Ultrathin two-dimensional conjugated metal-organic framework single-crystalline nanosheets enabled by surfactant-assisted synthesis
bulk HHB-Cu cathode electrode · Electrode · Bulk HHB-Cu cathode measured under same Li-ion coin-cell conditions as HHB-Cu NS electrode.
2020 · Ultrathin two-dimensional π-d conjugated coordination polymer Co3(hexaaminobenzene)2 nanosheets for highly efficient oxygen evolution
Co-HAB-NSs · Nanosheet · CV scan rates from 30 to 80 mV s-1; current density at 1.05 V plotted against scan rate; fitted slope is twice Cdl.
2020 · Ultrathin two-dimensional π-d conjugated coordination polymer Co3(hexaaminobenzene)2 nanosheets for highly efficient oxygen evolution
Co-HAB-NSs · Nanosheet · 1 M aqueous KOH, three-electrode cell with Ag/AgCl reference and Pt wire counter; catalyst ink on polished glassy carbon RDE, 0.5 mg cm-2 loading; LSV at 5 mV s-1 and 1600 rpm; potentials converted to RHE.
2020 · Ultrathin two-dimensional π-d conjugated coordination polymer Co3(hexaaminobenzene)2 nanosheets for highly efficient oxygen evolution
Co-HAB-NP · Powder · Morphology-control OER comparison of Co-HAB-NP, Co-HAB-S, Co-HAB-HNs, and bulk Co-HAB under the same electrochemical protocol.
2020 · Understanding the mechanism of high capacitance in nickel hexaaminobenzene-based conductive metal-organic frameworks in aqueous electrolytes
free-standing NiHAB composite electrode · Electrode · Free-standing NiHAB electrode on glassy carbon working electrode; overcapacitive activated carbon counter electrode; leakless Ag/AgCl reference calibrated to Ag/AgCl in 1 M KCl; 1 M aqueous KOH; 1 mV/s; typical potential range -0.75 to -0.25 V vs Ag/AgCl.
2020 · Understanding the mechanism of high capacitance in nickel hexaaminobenzene-based conductive metal-organic frameworks in aqueous electrolytes
free-standing NiHAB composite electrode · Electrode · 1 M KOH, 1 M KCHOO, 1 M KBr, and 1 M KF at 1 mV/s.
2020 · Understanding the mechanism of high capacitance in nickel hexaaminobenzene-based conductive metal-organic frameworks in aqueous electrolytes
free-standing NiHAB composite electrode · Electrode · 0.5 M LiOH, NaOH, KOH, TBAOH, and THAOH; 1 mV/s CVs plus capacitance from 1 to 100 mV/s.
2020 · Understanding the mechanism of high capacitance in nickel hexaaminobenzene-based conductive metal-organic frameworks in aqueous electrolytes
free-standing NiHAB composite electrode · Electrode · 1 M lithium isopropoxide in THF and sodium ethoxide in ethanol; 0.2 mV/s; Ag/AgCl wire reference.
2020 · Understanding the mechanism of high capacitance in nickel hexaaminobenzene-based conductive metal-organic frameworks in aqueous electrolytes
free-standing NiHAB composite electrode · Electrode · Sodium phosphate buffered electrolytes, pH 7 to 14; 1 mV/s; cation and anion held constant.
2020 · Valence-Dependent Electrical Conductivity in a 3D Tetrahydroxyquinone-Based Metal-Organic Framework
FeTHQ composite coin-cell cathode · Electrode · Coin cell with Li metal anode and FeTHQ composite cathode; scan rate 10 mV/s.
2019 · 3D self-branched zinc-cobalt Oxide@N-doped carbon hollow nanowall arrays for high-performance asymmetric supercapacitors and oxygen electrocatalysis
ZnCo2O4@NC//Fe3O4@r-GO ASC device · Electrode · ZnCo2O4@NC/CTs cathode, Fe3O4@r-GO/CTs anode and PVA-KOH gel electrolyte in 0-2.0 V voltage window.
2019 · 3D self-branched zinc-cobalt Oxide@N-doped carbon hollow nanowall arrays for high-performance asymmetric supercapacitors and oxygen electrocatalysis
3D self-branched ZnCo2O4@NC/CTs · Electrode · Three-electrode OER tests in 1.0 M KOH, pH about 13.8, N2 purged 30 min; Pt wire counter, Ag/AgCl reference, potentials calibrated to RHE.
2019 · 3D self-branched zinc-cobalt Oxide@N-doped carbon hollow nanowall arrays for high-performance asymmetric supercapacitors and oxygen electrocatalysis
3D self-branched ZnCo2O4@NC/CTs · Electrode · ZnCo2O4@NC/CTs, ZnCo2O4/CTs, Co3O4@NC/CTs and CTs tested in KOH aqueous electrolyte with Pt counter and Ag/AgCl reference; potential window 0-0.7 V vs Ag/AgCl for positive electrode.
2019 · A Copper Coordination Polymer with Matching Energy Level for Modifying Hole Transport Layers to Improve the Performance of Perovskite Solar Cells
as-prepared Cu-bix pale-yellow crystals · Single Crystal · Gamry electrochemical workstation; Pt working plate, Pt counter, Ag/AgCl reference; 0.1 M Bu4NPF6 in chlorobenzene; 50 mV s-1; Fc/Fc+ internal standard.
2019 · A Li+ conductive metal organic framework electrolyte boosts the high-temperature performance of dendrite-free lithium batteries
Optimised ILE@MOF ionogel, 1.5 g ILE per 1.0 g MOF · Thin Film · Li/ILE@MOF/SS cell; LSV at 0.1 mV s-1; CV from -0.5 to 0.5 V vs Li/Li+ at 0.1 mV s-1.
2019 · A semiconducting layered metal-organic framework magnet
as-synthesised K3Fe2[PcFe-O8] dark black powder · Powder · CV in CH3CN with 0.1 M TBAPF6 supporting electrolyte at 298 K, 100 mV/s scan rate, glassy carbon working electrode.
2019 · A two-dimensional semiconducting covalent organic framework with nickel(II) coordination for high capacitive performance
AC//Ni-COF asymmetric supercapacitor device · Electrode · AC//Ni-COF device in 3 M KOH; CV at 100 mV s^-1 over voltage windows up to 1.5 V; scan rates 5-30 mV s^-1; GCD current densities 1-10 A g^-1.
2019 · A two-dimensional semiconducting covalent organic framework with nickel(II) coordination for high capacitive performance
Ni0-COF three-electrode working electrode · Electrode · 3 M KOH aqueous electrolyte; CV scan rates 5-30 mV s^-1; GCD current densities 0.5-10 A g^-1; cycling at 1 A g^-1.
2019 · A two-dimensional semiconducting covalent organic framework with nickel(II) coordination for high capacitive performance
Ni-COF three-electrode working electrode · Electrode · 3 M KOH aqueous electrolyte; Pt plate counter electrode; Hg/HgO reference electrode; potential range 0-0.6 V vs Hg/HgO; CV scan rates 5-30 mV s^-1; GCD current densities 0.5-10 A g^-1.
2019 · A two-dimensional semiconducting covalent organic framework with nickel(II) coordination for high capacitive performance
Ni foam electrochemical substrate control · Electrode · Ni foam evaluated to preclude substrate contribution; compared with Ni-COF at 1 A g^-1.
2019 · Anisotropic Redox Conductivity within a Metal-Organic Framework Material
EPD NU-1000 thin film on ZnO-coated FTO · Electrode · Comparison of TBAPF6 and NaBARF electrolyte behaviour; Figure 6 reports 0.1 M acetonitrile solutions at 1.6 V vs Ag/AgCl.
2019 · Anisotropic Redox Conductivity within a Metal-Organic Framework Material
Solvothermal NU-1000 thin film on ZnO-coated FTO · Electrode · Comparison of TBAPF6 and NaBARF electrolyte behaviour; Figure 6 reports 0.1 M acetonitrile solutions at 1.6 V vs Ag/AgCl.
2019 · Anisotropic Redox Conductivity within a Metal-Organic Framework Material
EPD NU-1000 thin film on ZnO-coated FTO · Electrode · 1 M TBAPF6 in CH2Cl2/DCM; scan rate 100 mV s-1; Ag/AgCl/KCl reference; Pt mesh counter electrode.
2019 · Anisotropic Redox Conductivity within a Metal-Organic Framework Material
Solvothermal NU-1000 thin film on ZnO-coated FTO · Electrode · 1 M TBAPF6 in CH2Cl2/DCM; scan rate 100 mV s-1; Ag/AgCl/KCl reference; Pt mesh counter electrode.
2019 · Bottom-Up Fabrication of 1D Cu-based Conductive Metal–Organic Framework Nanowires as a High-Rate Anode towards Efficient Lithium Storage
Cu-CAT NW composite anode electrode · Electrode · Half cell vs Li/Li+ from 0.01 to 3.0 V at 0.1 mV s^-1; pseudocapacitive contribution also shown at 0.4 mV s^-1.
2019 · Cellulose Nanofiber @ Conductive Metal-Organic Frameworks for High-Performance Flexible Supercapacitors
CNF@c-MOF-CNT nanopaper · Electrode · SI Figure S20; figure-only supplementary CNT composite.
2019 · Cellulose Nanofiber @ Conductive Metal-Organic Frameworks for High-Performance Flexible Supercapacitors
CNF@Ni-HITP symmetric supercapacitor · Electrode · Two identical CNF@Ni-HITP nanopaper electrodes with PVA/KCl gel electrolyte, filter-paper separator, and graphite-paper current collectors; potential windows 0-0.7, 0-1.0, and 0-1.4 V studied.
2019 · Cellulose Nanofiber @ Conductive Metal-Organic Frameworks for High-Performance Flexible Supercapacitors
CNF@Ni-HITP nanopaper · Electrode · Aqueous 3 M KCl electrolyte; Ag/AgCl reference; platinum wire counter; freestanding CNF@c-MOF nanopaper on platinum ring as working electrode without binder or conductive additive; EIS 100 kHz to 0.01 Hz, 5 mV amplitude.
2019 · Co 3 O 4 @Cu-Based Conductive Metal–Organic Framework Core–Shell Nanowire Electrocatalysts Enable Efficient Low-Overall-Potential Water Splitting
Co3O4@CuCAT optimal core-shell electrode · Electrode · CV at scan rates 100-200 mV s-1; Cdl used to estimate ECSA.
2019 · Co 3 O 4 @Cu-Based Conductive Metal–Organic Framework Core–Shell Nanowire Electrocatalysts Enable Efficient Low-Overall-Potential Water Splitting
Co3O4@CuCAT optimal core-shell electrode · Electrode · Three-electrode HER in 1 M KOH at room temperature; LSV scan rate 2 mV s-1; potentials -1.0 to -2.0 V vs Ag/AgCl, converted to RHE.
2019 · Co 3 O 4 @Cu-Based Conductive Metal–Organic Framework Core–Shell Nanowire Electrocatalysts Enable Efficient Low-Overall-Potential Water Splitting
Co3O4@CuCAT optimal core-shell electrode · Electrode · Three-electrode OER in 1 M KOH at room temperature; LSV scan rate 2 mV s-1; potentials 0.0 to 1.0 V vs Ag/AgCl, converted to RHE.
2019 · Co 3 O 4 @Cu-Based Conductive Metal–Organic Framework Core–Shell Nanowire Electrocatalysts Enable Efficient Low-Overall-Potential Water Splitting
Co3O4@CuCAT optimal core-shell electrode · Electrode · Two-electrode water splitting in 1 M KOH at 2 mV s-1 between 1.0 and 2.0 V; Co3O4@CuCAT used as both cathode and anode; 50 h i-t at 1.57 V.
2019 · Co 3 O 4 @Cu-Based Conductive Metal–Organic Framework Core–Shell Nanowire Electrocatalysts Enable Efficient Low-Overall-Potential Water Splitting
Co3O4@CuCAT-1 · Electrode · HER and OER LSV curves of Co3O4@CuCAT samples with different CuCAT coating ratios.
2019 · Conductive 2D metal-organic framework for high-performance cathodes in aqueous rechargeable zinc batteries
Zn-Cu3(HHTP)2 coin cell · Electrode · Coin-type two-electrode Zn-Cu3(HHTP)2 cell in 3.0 M aqueous Zn(CF3SO3)2; scan-rate series for charge-storage analysis.
2019 · Conductive metal–organic framework with redox metal center as cathode for high rate performance lithium ion battery
Cu3(HHTP)2 cathode electrode · Electrode · Voltage window 1.7-3.5 V vs Li/Li+; scan rate 0.2 mV s-1; several cycles shown.
2019 · Conductive MOF-Modified Separator for Mitigating the Shuttle Effect of Lithium-Sulfur Battery through a Filtration Method
CR2025 Li-S cell with Ni3(HITP)2-modified separator · Unknown · CV scans of Li-S cells with PP and Ni3(HITP)2-modified separators at 0.1 mV/s, 1.8-3.0 V.
2019 · Conductive MOF-Modified Separator for Mitigating the Shuttle Effect of Lithium-Sulfur Battery through a Filtration Method
CR2025 Li-S cell with Ni3(HITP)2-modified separator · Unknown · CV at 0.1 mV/s in 1.8-3.0 V; first four cycles for modified separator cell.
2019 · Construction of 1D conductive Ni-MOF nanorods with fast Li+ kinetic diffusion and stable high-rate capacities as an anode for lithium ion batteries
Ni-CAT nanorod lithium-ion battery anode electrode · Electrode · 0.01-3.0 V vs Li+/Li at scan rate 0.1 mV s-1; first three cycles shown.
2019 · Copper-based conductive metal organic framework in-situ grown on copper foam as a bifunctional electrocatalyst
Cu3HITP2/CF · Electrode · CV curves collected from 0.625-0.825 V vs RHE at 20-120 mV s-1 to compare electrochemical active surface area.
2019 · Copper-based conductive metal organic framework in-situ grown on copper foam as a bifunctional electrocatalyst
Cu3HITP2/CF · Electrode · Three-electrode CHI 660E; 1.0 mol L-1 KOH; carbon rod counter; Ag/AgCl reference; converted to RHE; 20 CV pre-cycles; LSV 1 mV s-1; 1.2-1.8 V vs RHE; no iR compensation.
2019 · Copper-based conductive metal organic framework in-situ grown on copper foam as a bifunctional electrocatalyst
Cu3HITP2/CF · Electrode · Three-electrode CHI 660E; 0.1 mol L-1 KOH; O2 bubbled for 20 min before LSV; 20 CV pre-cycles; LSV 1 mV s-1; ORR potential range 1.1-0.4 V vs RHE; no iR compensation.
2019 · Copper-based conductive metal organic framework in-situ grown on copper foam as a bifunctional electrocatalyst
Cu3HITP2/CF · Electrode · ORR LSV compared before and after 2000 CV cycles in alkaline electrolyte.
2019 · Copper-based conductive metal organic framework in-situ grown on copper foam as a bifunctional electrocatalyst
powder/delaminated Cu3HITP2 · Powder · Powder Cu3HITP2 LSV at different rotation speeds; Tafel slope from Fig. S12b.
2019 · Copper-Metal Organic Frameworks Electrodeposited on Carbon Paper as an Enhanced Cathode for the Hydrogen Evolution Reaction
HKUST-1 ED on carbon paper · Electrode · CV in 0.425-0.625 V vs RHE at different scan rates; current density plotted against scan rate to estimate Cdl.
2019 · Copper-Metal Organic Frameworks Electrodeposited on Carbon Paper as an Enhanced Cathode for the Hydrogen Evolution Reaction
HKUST-1 HT drop-cast electrode · Electrode · CV in 0.425-0.625 V vs RHE at different scan rates; current density plotted against scan rate to estimate Cdl.
2019 · Efficient MOF-Sensitized Solar Cells Featuring Solvothermally Grown [100]-Oriented Pillared Porphyrin Framework-11 Films on ZnO/FTO Surfaces
[100]-oriented PPF-11 film on TCPP-coated ZnO-FTO · Electrode · PPF-11/ZnO-FTO working electrode; Ag/AgCl reference; Pt-mesh counter; 0.1 M Bu4NPF6/DMF
2019 · Electrocatalytic Hydrogen Evolution from a Cobaloxime-Based Metal-Organic Framework Thin Film
UU-100(Co)|FTO thin-film electrode · Electrode · DMF containing 0.1 M LiClO4; potentials vs Fc+/0; scan rates 10-250 mV/s in related figures.
2019 · Electrocatalytic Hydrogen Evolution from a Cobaloxime-Based Metal-Organic Framework Thin Film
UU-100(Co)|GC thin-film electrode · Electrode · DMF electrolyte; UU-100(Co)|GC at several scan rates.
2019 · Electrocatalytic Hydrogen Evolution from a Cobaloxime-Based Metal-Organic Framework Thin Film
UU-100(Co)|GC thin-film electrode · Electrode · Acetate buffer at pH 4; LSV recorded at 20 mV/s; potentials vs RHE.
2019 · Electrocatalytic Hydrogen Evolution from a Cobaloxime-Based Metal-Organic Framework Thin Film
Molecular cobaloxime linker solution · Unknown · Cobaloxime linker in DMF, referenced to Fc+/0; 0.1 M electrolyte; GC disk working electrode.
2019 · Exposing {001} Crystal Plane on Hexagonal Ni-MOF with Surface-Grown Cross-Linked Mesh-Structures for Electrochemical Energy Storage
Y1-Y5//AC aqueous devices · Electrode · Ni-MOF//AC aqueous devices in 3.0 M KOH; voltage window screening and scan rates 5-100 mV s-1.
2019 · Exposing {001} Crystal Plane on Hexagonal Ni-MOF with Surface-Grown Cross-Linked Mesh-Structures for Electrochemical Energy Storage
Y1-Y5 three-electrode working electrodes · Electrode · Three-electrode cell in 3.0 M KOH; Pt counter; Hg/HgO reference; scan rates 5-100 mV s-1 for Y3 and Y1/Y2/Y4/Y5; potential-window screening at 20 mV s-1.
2019 · Fabrication of 3D Co-doped Ni-based MOF hierarchical micro-flowers as a high-performance electrode material for supercapacitors
Active carbon electrode · Electrode · Active carbon negative electrode tested before HSC fabrication; CV 5-50 mV/s and GCD 1-10 A/g.
2019 · Fabrication of 3D Co-doped Ni-based MOF hierarchical micro-flowers as a high-performance electrode material for supercapacitors
Co0.5-Ni-MOF working electrode · Electrode · 6 M KOH electrolyte; comparative CV at 20 mV/s and GCD at 1 A/g; capacitance from GCD.
2019 · Fabrication of 3D Co-doped Ni-based MOF hierarchical micro-flowers as a high-performance electrode material for supercapacitors
Co2-Ni-MOF working electrode · Electrode · 6 M KOH electrolyte; saturated Hg/HgO reference, Pt foil counter, MOF working electrode; CV 5-50 mV/s and GCD 1-10 A/g.
2019 · Fabrication of 3D Co-doped Ni-based MOF hierarchical micro-flowers as a high-performance electrode material for supercapacitors
Co5-Ni-MOF working electrode · Electrode · 6 M KOH electrolyte; comparative CV at 20 mV/s and GCD at 1 A/g; capacitance from GCD.
2019 · Fabrication of 3D Co-doped Ni-based MOF hierarchical micro-flowers as a high-performance electrode material for supercapacitors
Ni-MOF working electrode · Electrode · 6 M KOH electrolyte; Hg/HgO reference, Pt foil counter, MOF working electrode; comparative CV at 20 mV/s and GCD at 1 A/g.
2019 · Fabrication of 3D Co-doped Ni-based MOF hierarchical micro-flowers as a high-performance electrode material for supercapacitors
Co2-Ni-MOF//AC HSC device · Electrode · Co2-Ni-MOF//AC hybrid supercapacitor; Co2-Ni-MOF positive electrode and active carbon negative electrode; cycling at 1 A/g.
2019 · From Low-to High-Crystallinity Bimetal-Organic Framework Nanosheet with Highly Exposed Boundaries: An Efficient and Stable Electrocatalyst for Oxygen Evolution Reaction
(U+S)-CoFe-MOF on glassy carbon electrode · Electrode · CV potential window 0.22-0.32 V vs Ag/AgCl; scan rates 10-120 mV s-1; slope of Delta J at 0.27 V used to represent ECSA.
2019 · From Low-to High-Crystallinity Bimetal-Organic Framework Nanosheet with Highly Exposed Boundaries: An Efficient and Stable Electrocatalyst for Oxygen Evolution Reaction
(U+S)-CoFe-MOF on glassy carbon electrode · Electrode · O2-saturated 1 M KOH; three-electrode cell; 5 mV s-1 scan rate; potentials converted to RHE and 90% iR compensation.
2019 · Highly Conductive Bimetallic Ni-Fe Metal Organic Framework as a Novel Electrocatalyst for Water Oxidation
FeNi-DOBDC-3 · Nanosheet · Three-electrode cell, CHI 750D, Pt coil counter, Ag/AgCl saturated KCl reference, 5 mm RDE working electrode, 1.0 M O2-saturated KOH, 10 mV/s, 95% iR correction. Catalyst ink: 2 mg catalyst + 2 mg carbon black in water/ethanol/isopropanol 3:1:1 with 5 microlitre 5% Nafion; pretreated by about 20 CV scans from 1.0 to 1.8 V vs RHE at 100 mV/s.
2019 · Highly Electroconductive Metal-Organic Framework: Tunable by Metal Ion Sorption Quantity
Cd(II)-exposed TMU-60/PVDF paste electrode · Electrode · TMU-60-Cd electrode in 10 mM ferricyanide, 1 M KCl; scan rate 100 mV/s.
2019 · Integration of a (–Cu–S–) n plane in a metal–organic framework affords high electrical conductivity
Compound 1 powder/Nafion glassy-carbon electrode · Electrode · CH Instruments 611B; three-electrode system; glassy carbon working electrode, Pt auxiliary, Ag/AgCl reference; 0.1 M [n-Bu4N]PF6/ACN; ferrocene internal standard; N2 purge.
2019 · Metal organic framework doped Spiro-OMeTAD with increased conductivity for improving perovskite solar cell performance
Synthesised In10 MOF powder · Powder · Ag/AgCl reference electrode, Pt plate working electrode, Pt slice counter electrode, 0.1 M Bu4NPF6 in chlorobenzene, 50 mV/s, Fc/Fc+ internal standard.
2019 · Metal organic framework doped Spiro-OMeTAD with increased conductivity for improving perovskite solar cell performance
HTM/In10-4 film · Thin Film · The SI text and rendered page contain the Figure S5 caption for CV curves of HTM and HTM/In10, but the plot body is not visible in the local rendered/text layer.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
BCA-LNMO composite cathode electrode · Electrode · CV between 3.5 and 4.9 V vs Li/Li+; Fig. 8a scan rate 0.05 mV s-1; additional CV scans 0.06, 0.08, 0.10, 0.12 and 0.14 mV s-1 for diffusion analysis.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
BCA-LNMO composite cathode electrode · Electrode · Calculated from slopes of peak current versus square root of scan rate in Fig. S10; scan rates 0.06-0.14 mV s-1; A = 1.54 cm-1 reported, n = 1.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
DTA-LNMO composite cathode electrode · Electrode · CV between 3.5 and 4.9 V vs Li/Li+; Fig. 8a scan rate 0.05 mV s-1; additional CV scans 0.06, 0.08, 0.10, 0.12 and 0.14 mV s-1 for diffusion analysis.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
DTA-LNMO composite cathode electrode · Electrode · Calculated from slopes of peak current versus square root of scan rate in Fig. S10; scan rates 0.06-0.14 mV s-1; A = 1.54 cm-1 reported, n = 1.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
OBA-LNMO composite cathode electrode · Electrode · CV between 3.5 and 4.9 V vs Li/Li+; Fig. 8a scan rate 0.05 mV s-1; additional CV scans 0.06, 0.08, 0.10, 0.12 and 0.14 mV s-1 for diffusion analysis.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
OBA-LNMO composite cathode electrode · Electrode · Calculated from slopes of peak current versus square root of scan rate in Fig. S10; scan rates 0.06-0.14 mV s-1; A = 1.54 cm-1 reported, n = 1.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
PTA-LNMO composite cathode electrode · Electrode · CV between 3.5 and 4.9 V vs Li/Li+; Fig. 8a scan rate 0.05 mV s-1; additional CV scans 0.06, 0.08, 0.10, 0.12 and 0.14 mV s-1 for diffusion analysis.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
PTA-LNMO composite cathode electrode · Electrode · Calculated from slopes of peak current versus square root of scan rate in Fig. S10; scan rates 0.06-0.14 mV s-1; A = 1.54 cm-1 reported, n = 1.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
PTCDA-LNMO composite cathode electrode · Electrode · CV between 3.5 and 4.9 V vs Li/Li+; Fig. 8a scan rate 0.05 mV s-1; additional CV scans 0.06, 0.08, 0.10, 0.12 and 0.14 mV s-1 for diffusion analysis.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
PTCDA-LNMO composite cathode electrode · Electrode · Calculated from slopes of peak current versus square root of scan rate in Fig. S10; scan rates 0.06-0.14 mV s-1; A = 1.54 cm-1 reported, n = 1.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
TCA-LNMO composite cathode electrode · Electrode · CV between 3.5 and 4.9 V vs Li/Li+; Fig. 8a scan rate 0.05 mV s-1; additional CV scans 0.06, 0.08, 0.10, 0.12 and 0.14 mV s-1 for diffusion analysis.
2019 · Metal-organic framework-mediated synthesis of LiNi0.5Mn1.5O4: Tuning the Mn3+ content and electrochemical performance by organic ligands
TCA-LNMO composite cathode electrode · Electrode · Calculated from slopes of peak current versus square root of scan rate in Fig. S10; scan rates 0.06-0.14 mV s-1; A = 1.54 cm-1 reported, n = 1.
2019 · Mo-Based crystal POMOFs with a high electrochemical capacitor performance
compound 1-based GCE working electrode · Electrode · Three-electrode cell in 1 M H2SO4; Pt counter and Ag/AgCl reference; -0.05 to 0.55 V vs Ag/AgCl; scan rates 5-100 mV s-1 in main figure and 10-200 mV s-1 in SI.
2019 · Mo-Based crystal POMOFs with a high electrochemical capacitor performance
compound 2-based GCE working electrode · Electrode · Three-electrode cell in 1 M H2SO4; Pt counter and Ag/AgCl reference; -0.05 to 0.55 V vs Ag/AgCl; scan rates 5-100 mV s-1 in main figure and 10-200 mV s-1 in SI.
2019 · Nanocubic bimetallic organic framework self-templated from Ni precursor as efficient electrocatalysts for oxygen evolution reaction
Ni NCs@MIL-53(NiFe), optimised Ni NCs:FeCl2 mass ratio 3 · Powder · CV curves in non-redox potential range; Delta j versus scan rate at 1.07 V vs RHE; slope 2Cdl used to represent ECSA.
2019 · Nanocubic bimetallic organic framework self-templated from Ni precursor as efficient electrocatalysts for oxygen evolution reaction
MIL-53(Fe) · Powder · Same RDE OER conditions as target: 1 M KOH, 1600 rpm, 5 mV s^-1, iR-corrected, catalyst loading 0.2 mg cm^-2.
2019 · Nanocubic bimetallic organic framework self-templated from Ni precursor as efficient electrocatalysts for oxygen evolution reaction
Ni NCs · Powder · Same RDE OER conditions as target: 1 M KOH, 1600 rpm, 5 mV s^-1, iR-corrected, catalyst loading 0.2 mg cm^-2.
2019 · Nanocubic bimetallic organic framework self-templated from Ni precursor as efficient electrocatalysts for oxygen evolution reaction
Ni NCs@MIL-53(NiFe), optimised Ni NCs:FeCl2 mass ratio 3 · Powder · Three-electrode RDE in 1 M KOH; glassy-carbon RDE working electrode, Pt wire auxiliary, Ag/AgCl reference; 1600 rpm, 5 mV s^-1, iR-corrected, catalyst loading 0.2 mg cm^-2.
2019 · Nanocubic bimetallic organic framework self-templated from Ni precursor as efficient electrocatalysts for oxygen evolution reaction
Ni NCs@MIL-53(NiFe), optimised Ni NCs:FeCl2 mass ratio 3 · Powder · Tafel plots based on eta = b log j + a, extracted from LSV curves for target and controls.
2019 · Nanocubic bimetallic organic framework self-templated from Ni precursor as efficient electrocatalysts for oxygen evolution reaction
Ni NCs@MIL-53(NiFe), optimised Ni NCs:FeCl2 mass ratio 3 · Powder · LSV before/after 1000 CV cycles in 1 M KOH; chronoamperometry at ascending current densities 5, 10 and 20 mA cm^-2.
2019 · Nanoporous gold induced vertically standing 2D NiCo bimetal-organic framework nanosheets for non-enzymatic glucose biosensing
vertical NiCo(1:1)-MOFNs array on nanoporous gold, 4 h growth · Electrode · 0.1 M NaOH without and with 4 mM glucose; scan rate 50 mV s^-1
2019 · Nanoporous gold induced vertically standing 2D NiCo bimetal-organic framework nanosheets for non-enzymatic glucose biosensing
NiCo-MOFNs on nanoporous gold, 2 h growth · Electrode · 0.1 M NaOH; scan-rate-dependent CV; potential window -0.1 to 0.02 V vs. SCE; scan rates 10-200 mV s^-1 in SI
2019 · Nanoporous gold induced vertically standing 2D NiCo bimetal-organic framework nanosheets for non-enzymatic glucose biosensing
vertical NiCo(1:1)-MOFNs array on nanoporous gold, 4 h growth · Electrode · 0.1 M NaOH; scan-rate-dependent CV; potential window -0.1 to 0.02 V vs. SCE; scan rates 10-200 mV s^-1 in SI
2019 · Nanoporous gold induced vertically standing 2D NiCo bimetal-organic framework nanosheets for non-enzymatic glucose biosensing
NiCo-MOFNs on nanoporous gold, 6 h growth · Electrode · 0.1 M NaOH; scan-rate-dependent CV; potential window -0.1 to 0.02 V vs. SCE; scan rates 10-200 mV s^-1 in SI
2019 · Nanoporous gold induced vertically standing 2D NiCo bimetal-organic framework nanosheets for non-enzymatic glucose biosensing
vertical NiCo(1:1)-MOFNs array on nanoporous gold, 4 h growth · Electrode · Glucose oxidation current calculated by subtracting 0.1 M NaOH oxidation current from glucose solution oxidation current
2019 · Nanoporous gold induced vertically standing 2D NiCo bimetal-organic framework nanosheets for non-enzymatic glucose biosensing
vertical NiCo(1:1)-MOFNs array on nanoporous gold, 4 h growth · Electrode · 0.1 M NaOH; scan rates 20-100 mV s^-1
2019 · Oriented Thin Films of Electroactive Triphenylene Catecholate-Based Two-Dimensional MetalOrganic Frameworks
Ni-CAT-1 film on FTO for electrochemistry · Electrode · Three-electrode CV cell assembled in argon-filled glove box; MOF/FTO working electrode, Pt wire counter, Ag wire reference; 0.1 M NBu4PF6 in methylene chloride; scan -0.2 to 1.4 V vs ferrocene at 20 mV s^-1; film activated at 120 degC in vacuum before use.
2019 · Oriented Thin Films of Electroactive Triphenylene Catecholate-Based Two-Dimensional MetalOrganic Frameworks
Oriented Ni-CAT-1 thin film on gold · Thin Film · Oriented thin Ni-CAT-1 film grown on gold substrate, immersed in 0.1 M NBu4PF6 in dichloromethane; HOMO extracted from differential pulsed voltammetry and LUMO calculated by adding Tauc band gap.
2019 · Porous Molecular Conductor: Electrochemical Fabrication of Through-Space Conduction Pathways among Linear Coordination Polymers
PMC-1 bulk powder/crystals · Powder · PMC-1-modified glassy carbon electrode; 0.1 M LiClO4 in CH3CN; scan rate 100 mV/s; Pt counter and Ag quasi-reference; Fc/Fc+ calibration.
2019 · Porous Molecular Conductor: Electrochemical Fabrication of Through-Space Conduction Pathways among Linear Coordination Polymers
PMC-1 bulk powder/crystals · Powder · PMC-1-modified glassy carbon electrode; 0.1 M n-Bu4NPF6 in CH3CN; scan rate 100 mV/s; Fc/Fc+ calibration.
2019 · Porous Molecular Conductor: Electrochemical Fabrication of Through-Space Conduction Pathways among Linear Coordination Polymers
PMC-1 bulk powder/crystals · Powder · Comparison of LiClO4 and n-Bu4NPF6 electrolytes during reduction of PMC-1.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 2 in DMF solution · Unknown · DMF, 0.1 M [Li][CF3SO3], 0.1 V/s; potentials versus FeCp2+/FeCp2.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 2 in DMF solution · Unknown · DMF, 0.1 M [TMA][PF6]; 2 forms a fine suspension; potentials versus FeCp2+/FeCp2.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 1 as-synthesized black powder · Powder · As-synthesized compound 1; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 1 oxidatively treated solid · Powder · Oxidatively treated compound 1; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 1 reductively doped solid · Powder · Reductively doped compound 1; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 2 as-synthesized black powder · Powder · As-synthesized compound 2; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 2 oxidatively treated solid · Powder · Oxidatively treated compound 2; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 2 reductively doped solid · Powder · Reductively doped compound 2; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
2 precipitated from DMF solution without reductant · Powder · DMF-solution precipitated compound 2 without reductant; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Partially reduced 2 precipitated from DMF solution · Powder · Solution-reduced, Et2O-precipitated compound 2; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
[Fe4S4(SPh)4][TBA]2 precursor control · Powder · [Fe4S4(SPh)4][TBA]2 molecular precursor control; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
[Fe4S4(SPh)4][TMA]2 precursor control · Powder · [Fe4S4(SPh)4][TMA]2 molecular precursor control; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Triphenylene-Bridged Trinuclear Complexes of Cu: Models for Spin Interactions in Two-Dimensional Electrically Conductive Metal-Organic Frameworks
complex 1 CV solution · Unknown · 0.1 M TBAPF6 in propylene carbonate under N2; glassy carbon working electrode, Pt counter, Ag wire pseudo-reference; 100 mV/s scan rate; potentials vs Fc+/Fc.
2019 · Triphenylene-Bridged Trinuclear Complexes of Cu: Models for Spin Interactions in Two-Dimensional Electrically Conductive Metal-Organic Frameworks
complex 2 CV solution · Unknown · 0.1 M TBAPF6 in propylene carbonate under N2; glassy carbon working electrode, Pt counter, Ag wire pseudo-reference; 100 mV/s scan rate; potentials vs Fc+/Fc.
2019 · Two-dimensional π-conjugated metal-organic framework with high electrical conductivity for electrochemical sensing
bare GCE · Electrode · 0.10 mM dopamine on bare GCE at 100 mV/s; comparator for modified electrode.
2019 · Two-dimensional π-conjugated metal-organic framework with high electrical conductivity for electrochemical sensing
Cu3(HHTP)2/GCE modified electrode · Electrode · 0.10 mM dopamine in PBS buffer; scan rate 100 mV/s; conventional three-electrode cell with Ag/AgCl reference and Pt wire auxiliary.
2019 · Two-dimensional π-conjugated metal-organic framework with high electrical conductivity for electrochemical sensing
Cu3(HHTP)2/GCE modified electrode · Electrode · 100 uM dopamine in PBS buffer; pH 6.0, 6.1, 6.2, 6.3, 6.4, 6.5, 7.0 and 7.5; scan rate 100 mV/s.
2019 · Two-dimensional π-conjugated metal-organic framework with high electrical conductivity for electrochemical sensing
Cu3(HHTP)2/GCE modified electrode · Electrode · 0.10 mM dopamine at scan speeds 25, 75, 100, 125, 150, 250 and 500 mV/s.
2019 · Two-dimensional π-conjugated metal-organic framework with high electrical conductivity for electrochemical sensing
Cu3(HHTP)2/GCE modified electrode · Electrode · 10 mM ascorbic acid, 0.10 mM dopamine, and blank PBS on Cu3(HHTP)2/GCE at 100 mV/s.
2019 · Two-dimensional π-conjugated metal-organic framework with high electrical conductivity for electrochemical sensing
Cu3(HHTP)2/GCE modified electrode · Electrode · Dopamine concentrations 50 nM, 500 nM, 5 uM, 20 uM, 30 uM, 40 uM, 50 uM, 60 uM, 90 uM, 150 uM and 200 uM on Cu3(HHTP)2/GCE at room temperature.
2019 · Two-dimensional π-conjugated metal-organic framework with high electrical conductivity for electrochemical sensing
Cu3(HHTP)2/GCE modified electrode · Electrode · 0.10 mM dopamine on Cu3(HHTP)2/GCE, HKUST-1/GCE and ZIF-8/GCE; SI Figure S2.
2019 · Two-dimensional π-conjugated metal-organic framework with high electrical conductivity for electrochemical sensing
HKUST-1/GCE · Electrode · 0.10 mM dopamine on HKUST-1/GCE in SI Figure S2.
2019 · Two-dimensional π-conjugated metal-organic framework with high electrical conductivity for electrochemical sensing
ZIF-8/GCE · Electrode · 0.10 mM dopamine on ZIF-8/GCE in SI Figure S2.
2018 · Bioinspired fiber-like porous Cu/N/C electrocatalyst facilitating electron transportation toward oxygen reaction for metal-air batteries
Cu/C · Powder · 0.1 M KOH O2-saturated; scan rate 5 mV s-1; 1600 rpm; catalyst loading 0.1 mg cm-2.
2018 · Bioinspired fiber-like porous Cu/N/C electrocatalyst facilitating electron transportation toward oxygen reaction for metal-air batteries
CuNC (MOF) · Powder · Same electrochemical systems; N2-saturated electrolyte; scan rates 20, 50, 100, 200 mV s-1.
2018 · Bioinspired fiber-like porous Cu/N/C electrocatalyst facilitating electron transportation toward oxygen reaction for metal-air batteries
CuNC (MOF) · Powder · 0.1 M KOH aqueous solution saturated with N2 or O2; glassy carbon working electrode; Pt counter; Ag/AgCl reference; catalyst loading 0.1 mg cm-2.
2018 · Bioinspired fiber-like porous Cu/N/C electrocatalyst facilitating electron transportation toward oxygen reaction for metal-air batteries
CuNC (MOF) · Powder · 0.1 M KOH O2-saturated; scan rate 5 mV s-1; RDE speeds 400-2000 rpm; 1600 rpm comparison curves; catalyst loading 0.1 mg cm-2.
2018 · Bioinspired fiber-like porous Cu/N/C electrocatalyst facilitating electron transportation toward oxygen reaction for metal-air batteries
CuNC NPs · Powder · Same electrochemical systems; N2-saturated electrolyte; scan rates 20, 50, 100, 200 mV s-1.
2018 · Bioinspired fiber-like porous Cu/N/C electrocatalyst facilitating electron transportation toward oxygen reaction for metal-air batteries
CuNC NPs · Powder · 0.1 M KOH O2-saturated; 1600 rpm comparison against CuNC (MOF) and 5 wt% Pt/C.
2018 · Bioinspired fiber-like porous Cu/N/C electrocatalyst facilitating electron transportation toward oxygen reaction for metal-air batteries
20 wt% Pt/C · Powder · Commercial 20 wt% Pt/C compared in RDE at 1600 rpm and ORR durability at 0.67 V vs RHE.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-Se1:1-180 · Powder · 3000 CV cycles from 1.4 to 1.8 V at 100 mV s-1.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-Se1:1-180 · Powder · CV at scan rate 50 mV s-1 comparing Ni-Fe-Se1:1-180 and Ni-Fe-O.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ir/C (20 wt% Ir) · Electrode · O2-saturated 1.0 M KOH; GCE working electrode; RHE reference; carbon rod counter; scan rate 5 mV s-1; IR-drop corrected; catalyst loading 0.42 mg cm-2.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-O · Powder · O2-saturated 1.0 M KOH; GCE working electrode; RHE reference; carbon rod counter; scan rate 5 mV s-1; IR-drop corrected; catalyst loading 0.42 mg cm-2.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
NiFe-PBA · Powder · O2-saturated 1.0 M KOH; GCE working electrode; RHE reference; carbon rod counter; scan rate 5 mV s-1; IR-drop corrected; catalyst loading 0.42 mg cm-2.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-Se1:3-180 · Powder · O2-saturated 1.0 M KOH; GCE working electrode; RHE reference; carbon rod counter; scan rate 5 mV s-1; IR-drop corrected; catalyst loading 0.42 mg cm-2.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-Se3:1-180 · Powder · O2-saturated 1.0 M KOH; GCE working electrode; RHE reference; carbon rod counter; scan rate 5 mV s-1; IR-drop corrected; catalyst loading 0.42 mg cm-2.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-Se1:1-140 · Powder · O2-saturated 1.0 M KOH; GCE working electrode; RHE reference; carbon rod counter; scan rate 5 mV s-1; IR-drop corrected; catalyst loading 0.42 mg cm-2.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-Se1:1-160 · Powder · O2-saturated 1.0 M KOH; GCE working electrode; RHE reference; carbon rod counter; scan rate 5 mV s-1; IR-drop corrected; catalyst loading 0.42 mg cm-2.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-Se1:1-200 · Powder · O2-saturated 1.0 M KOH; GCE working electrode; RHE reference; carbon rod counter; scan rate 5 mV s-1; IR-drop corrected; catalyst loading 0.42 mg cm-2.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-Se1:1-180 · Powder · O2-saturated 1.0 M KOH; GCE working electrode; RHE reference; carbon rod counter; scan rate 5 mV s-1; IR-drop corrected; catalyst loading 0.42 mg cm-2.
2018 · Conductive Metal-Organic Frameworks as Ion-to-Electron Transducers in Potentiometric Sensors
M3HHTP2 bulk powder series · Powder · GCE coated with 60 um MOF; scan rate 50 mV/s; 0.1 M KCl; -0.5 to 0.5 V; nitrogen atmosphere.
2018 · Construction of hierarchical nickel cobalt selenide complex hollow spheres for pseudocapacitors with enhanced performance
activated carbon negative electrode · Electrode · Commercial active carbon electrode measured in a three-electrode system; SI Fig. S7 shows CV and GCD curves.
2018 · Construction of hierarchical nickel cobalt selenide complex hollow spheres for pseudocapacitors with enhanced performance
(Ni0.33Co0.67)Se2 CHSs//AC ASC device · Electrode · (Ni0.33Co0.67)Se2 CHSs positive electrode; activated carbon negative electrode; selected 0-1.6 V device window
2018 · Construction of hierarchical nickel cobalt selenide complex hollow spheres for pseudocapacitors with enhanced performance
NiCo2O4 MHS working electrode · Electrode · Three-electrode cell; 3 M KOH electrolyte; Pt counter electrode; saturated calomel reference; current densities 1-30 A g-1
2018 · Construction of hierarchical nickel cobalt selenide complex hollow spheres for pseudocapacitors with enhanced performance
(Ni0.33Co0.67)Se2 CHS working electrode · Electrode · Three-electrode cell; 3 M KOH electrolyte; Pt counter electrode; saturated calomel reference; current densities 1-30 A g-1
2018 · Development of a UiO-Type Thin Film Electrocatalysis Platform with Redox-Active Linkers
Zr(dcphOH-NDI)@FTO thin film · Thin Film · Zr(dcphOH-NDI)@FTO in H2O with 0.8 M KCl(aq), pH 6.48-6.5; potentials vs NHE; scan-rate-dependent CVs from 5 to 100 mV/s.
2018 · Development of a UiO-Type Thin Film Electrocatalysis Platform with Redox-Active Linkers
Zr(dcphOH-NDI)@FTO thin film · Thin Film · Zr(dcphOH-NDI)@FTO working electrode in 5 mL DMF with 0.8 M KPF6; 50 mV/s for Table 1, scan-rate studies 5-100 mV/s; nonaqueous Ag/AgNO3 reference vs Fc+/0.
2018 · Development of a UiO-Type Thin Film Electrocatalysis Platform with Redox-Active Linkers
dcphOH-NDI solution control · Model · 1 mM dcphOH-NDI in DMF at glassy carbon disk with 0.1 M n-Bu4NPF6 for Figure S10; Table 1 comparison in 0.8 M KPF6 at 50 mV/s.
2018 · Development of a UiO-Type Thin Film Electrocatalysis Platform with Redox-Active Linkers
SAM@FTO · Electrode · SAM@FTO in DMF with 0.8 M KPF6 at 0.05 V/s; integrated wave used to calculate adsorbed NDI monolayer surface concentration.
2018 · Electrochemical properties of uniquely structured Fe2O3 and FeSe2/graphitic-carbon microrods synthesized by applying a metal-organic framework
H-Fe2O3-NSA microrods · Powder · Li metal counter electrode; polypropylene separator; 1 M LiPF6 in FEC/DMC 1:1 v/v; 0.001-3 V; CV at 0.1 mV s-1; electrode diameter 14 mm; mass loading about 1.2 mg cm-2; EIS 0.01 Hz-100 kHz
2018 · Electrochemical properties of uniquely structured Fe2O3 and FeSe2/graphitic-carbon microrods synthesized by applying a metal-organic framework
H-FeSe2/GC microrods · Powder · Na metal counter electrode; polypropylene separator; 1 M NaClO4 in EC/DMC 1:1 v/v plus 5 wt% FEC; 0.001-3 V; CV at 0.1 mV s-1; electrode diameter 14 mm; mass loading about 1.2 mg cm-2; EIS 0.01 Hz-100 kHz
2018 · Electrochemical properties of uniquely structured Fe2O3 and FeSe2/graphitic-carbon microrods synthesized by applying a metal-organic framework
H-Fe2O3-NSA microrods · Powder · First five cycles, 0.001-3 V vs Li/Li+, scan rate 0.1 mV s-1
2018 · Electrochemical properties of uniquely structured Fe2O3 and FeSe2/graphitic-carbon microrods synthesized by applying a metal-organic framework
H-FeSe2/GC microrods · Powder · First five cycles, 0.001-3 V vs Na/Na+, scan rate 0.1 mV s-1
2018 · Electron delocalization and charge mobility as a function of reduction in a metal-organic framework
Fe2(BDP)3 composite working electrode for cyclic voltammetry · Electrode · 0.1 M K(TFSI) in anhydrous propylene carbonate; potassium reference/counter; scan shown at 10 uV s-1.
2018 · Encapsulating ionic liquids into POM-based MOFs to improve their conductivity for superior lithium storage
PMo10V2-ILs@HKUST-1 composite electrode · Electrode · PMo10V2-ILs@HKUST-1 capacitive contribution at 1 and 2 mV s^-1, reported in main text with SI figures referenced.
2018 · Encapsulating ionic liquids into POM-based MOFs to improve their conductivity for superior lithium storage
PMo10V2-ILs@MIL-100 composite electrode · Electrode · CV curves at scan rates from 0.1 to 10 mV s^-1; capacitive contribution quantified at 0.1-2 mV s^-1.
2018 · Encapsulating ionic liquids into POM-based MOFs to improve their conductivity for superior lithium storage
PMo10V2-ILs@MIL-100 composite electrode · Electrode · Half-coin cells with Li metal negative electrode, 1 M LiPF6 in EC/DMC (1:1), Celgard 2400; voltage 0.01-3.0 V, scan rate 0.1 mV s^-1.
2018 · Highly Conducting Neutral Coordination Polymer with Infinite Two-Dimensional Silver-Sulfur Networks
Ag-BHT/Nafion glassy-carbon electrode · Electrode · Glassy carbon working electrode with Ag-BHT/Nafion, Ag+/Ag reference externally calibrated to ferrocene, graphite bar counter, CH660 workstation, 0.1 M Bu4NClO4 in CH2Cl2.
2018 · Increased Electrical Conductivity in a Mesoporous Metal-Organic Framework Featuring Metallacarboranes Guests
spin-coated NiCB@NU-1000 thin film · Thin Film · CV of spin-coated NU-1000, NiCB@NU-1000, Mn-AIM-NU-1000, and Mn-AIM-NiCB@NU-1000 thin films in 0.1 M Na2SO4(aq), measured at 25 mV/s.
2018 · Increased Electrical Conductivity in a Mesoporous Metal-Organic Framework Featuring Metallacarboranes Guests
NiCB@NU-1000 powder · Powder · CV of NiCB and TBAPy solutions converted to NHE by adding 0.21 V; UV-vis absorption used for TBAPy band gap; NU-1000 values from previous electrochemically addressable thin-film and diffuse-reflectance estimates.
2018 · Modular O2 electroreduction activity in triphenylene-based metal-organic frameworks
Trigonal MOF-modified ITO electrodes · Electrode · Co3(HHTP)2 and Ni3(HHTP)2 deposited on ITO; pH 13 and pH 8 under N2 and O2.
2018 · Modular O2 electroreduction activity in triphenylene-based metal-organic frameworks
Cu3(HITP)2/Nafion-modified glassy carbon electrode · Electrode · MOF powders deposited on glassy carbon; pH 13 (0.1 M KOH) and pH 8 (0.1 M NaCl), O2 and N2 sparging, 2000 rpm, 5 mV/s unless otherwise noted.
2018 · Modular O2 electroreduction activity in triphenylene-based metal-organic frameworks
Cu3(HHTP)2/Nafion-modified glassy carbon electrode · Electrode · Unmodified glassy carbon blank followed by MOF-modified electrodes; CV from -1.1 to 0.7 V vs SCE for at least five pH values for redox-active analogues.
2018 · Nanopore-induced host-guest charge transfer phenomena in a metal-organic framework
As-prepared Mn-MOF crystals · Single Crystal · Mn-MOF and 2,7-AQDC measured under conditions from prior paper; potentials versus Li+/Li.
2018 · Nanopore-induced host-guest charge transfer phenomena in a metal-organic framework
Free 2,7-AQDC, TTF and TMPDA in DMF electrolyte · Unknown · Saturated DMF solution with 1.0 mol/L [Bu4N]PF6 electrolyte; potentials versus Ag/AgCl.
2018 · Nanostructured CuO/C Hollow Shell@3D Copper Dendrites as a Highly Efficient Electrocatalyst for Oxygen Evolution Reaction
HS-CuO/C NDs electrode · Electrode · CV in non-Faradaic region 1.185-1.315 V vs RHE in 1.0 M KOH at scan rates 1, 2, 5, 10, 15, and 20 mV s-1.
2018 · Nanostructured CuO/C Hollow Shell@3D Copper Dendrites as a Highly Efficient Electrocatalyst for Oxygen Evolution Reaction
PS-CuO/C NDs electrode · Electrode · CV in non-Faradaic region 1.185-1.315 V vs RHE in 1.0 M KOH at scan rates 1, 2, 5, 10, 15, and 20 mV s-1.
2018 · Nanostructured CuO/C Hollow Shell@3D Copper Dendrites as a Highly Efficient Electrocatalyst for Oxygen Evolution Reaction
annealed NDs electrode · Electrode · OER in 1.0 M KOH at 5 mV s-1; three-electrode system at room temperature, potentials converted to RHE.
2018 · Nanostructured CuO/C Hollow Shell@3D Copper Dendrites as a Highly Efficient Electrocatalyst for Oxygen Evolution Reaction
as-prepared Cu2O-Cu NDs electrode · Electrode · OER in 1.0 M KOH at 5 mV s-1; three-electrode system at room temperature, potentials converted to RHE.
2018 · Nanostructured CuO/C Hollow Shell@3D Copper Dendrites as a Highly Efficient Electrocatalyst for Oxygen Evolution Reaction
HS-CuO/C NDs electrode · Electrode · OER in 1.0 M KOH at 5 mV s-1; three-electrode system at room temperature, potentials converted to RHE.
2018 · Nanostructured CuO/C Hollow Shell@3D Copper Dendrites as a Highly Efficient Electrocatalyst for Oxygen Evolution Reaction
PS-CuO NDs electrode · Electrode · OER in 1.0 M KOH at 5 mV s-1; three-electrode system at room temperature, potentials converted to RHE.
2018 · Nanostructured CuO/C Hollow Shell@3D Copper Dendrites as a Highly Efficient Electrocatalyst for Oxygen Evolution Reaction
PS-CuO/C NDs electrode · Electrode · OER in 1.0 M KOH at 5 mV s-1; three-electrode system at room temperature, potentials converted to RHE.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P1 poly[Kx(Ni-ett)] · Pellet · CH3CN, 0.1 M tetrabutylammonium hexafluorophosphate, N2, 50 mV s^-1, Fc/Fc+ referenced to 0.00 V.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P3 poly[Ni-tto] · Pellet · CH3CN, 0.1 M tetrabutylammonium hexafluorophosphate, N2, 50 mV s^-1, Fc/Fc+ referenced to 0.00 V.
2018 · Probing charge transfer characteristics in a donor-acceptor metal-organic framework by Raman spectroelectrochemistry and pressure-dependence studies
solid DPNI · Powder · DPNI solid-state and H4TTFTC solution-state (0.03 mM) in 0.2 M LiClO4/ethylene glycol; potentials vs Fc0/+.
2018 · Probing charge transfer characteristics in a donor-acceptor metal-organic framework by Raman spectroelectrochemistry and pressure-dependence studies
solid-state [(Zn(DMF))2(TTFTC)(DPNI)] CV electrode · Electrode · 0.2 M LiClO4/ethylene glycol; scan rates 50, 100 and 200 mV s^-1; potentials vs Fc0/+; powder confined on electrode.
2018 · Quantum Effects Allow the Construction of Two-Dimensional Co3O4-Embedded Nitrogen-Doped Porous Carbon Nanosheet Arrays from Bimetallic MOFs as Bifunctional Oxygen Electrocatalysts
2D-MCo3O4-NCNAs-15-900 · Nanosheet · CV curves of 2D-MCo3O4-NCNAs; capacitive current measured at 1.21 V vs RHE as a function of scan rate.
2018 · Quantum Effects Allow the Construction of Two-Dimensional Co3O4-Embedded Nitrogen-Doped Porous Carbon Nanosheet Arrays from Bimetallic MOFs as Bifunctional Oxygen Electrocatalysts
commercial IrO2 OER reference electrode · Electrode · CV curves and capacitive current measured at 1.21 V vs RHE as a function of scan rate for IrO2.
2018 · Quantum Effects Allow the Construction of Two-Dimensional Co3O4-Embedded Nitrogen-Doped Porous Carbon Nanosheet Arrays from Bimetallic MOFs as Bifunctional Oxygen Electrocatalysts
2D-MCo3O4-NCNAs-15-900 · Nanosheet · 1 M KOH, scan rate 10 mV s-1, glassy carbon electrode 3 mm; Pt wire counter, saturated Ag/AgCl reference; values converted to RHE without iR correction.
2018 · Quantum Effects Allow the Construction of Two-Dimensional Co3O4-Embedded Nitrogen-Doped Porous Carbon Nanosheet Arrays from Bimetallic MOFs as Bifunctional Oxygen Electrocatalysts
2D-MCo3O4-NCNAs-15-900 · Nanosheet · O2-saturated 0.1 M KOH, scan rate 10 mV s-1; GC RRDE 5.5 mm working electrode, Pt wire counter, saturated Ag/AgCl reference; values converted to RHE without iR correction.
2018 · Selective reduction of CO2 by conductive MOF nanosheets as an efficient co-catalyst under visible light illumination
Ni3(HITP)2/carbon black/Nafion carbon-paper electrode · Electrode · H-cell separated by Nafion 117; Ag/AgCl reference; graphite counter electrode; CO2-saturated 0.5 M KHCO3; scan rate 1 mV/s; products analysed by Agilent 7890B GC-TCD/FID.
2018 · Stabilization of Hexaaminobenzene in a 2D Conductive Metal-Organic Framework for High Power Sodium Storage
Standard Co-HAB-D sodium half-cell electrode · Electrode · CV in Na half-cells at sweep rates from 0.375 to 3 mV s^-1; b-values determined from cathodic peak current versus sweep rate; capacitive contribution evaluated at 0.375 mV s^-1.
2018 · Synthesis and Electric Properties of a Two-Dimensional Metal-Organic Framework Based on Phthalocyanine
Cu-CuPc/carbon black/PTFE cathode on stainless mesh · Electrode · 2.0-4.4 V vs Li/Li+; scan rate 1 mV s-1; Li foil counter electrode; 1 M LiPF6 in EC/DMC (1:2)
2017 · 2D MOF nanoflake-assembled spherical microstructures for enhanced supercapacitor and electrocatalysis performances
Ni/Co-MOF nanoflake RDE catalyst electrode · Electrode · 0.1 M KOH; O2- or Ar-saturated; CV sweep 50 mV s-1; RDE scan 10 mV s-1 at 400-2500 rpm; comparison at 1600 rpm.
2017 · 2D MOF nanoflake-assembled spherical microstructures for enhanced supercapacitor and electrocatalysis performances
Ni/Co-MOF nanoflake glassy-carbon supercapacitor electrode · Electrode · Three-electrode supercapacitor in 1 M LiOH; Pt wire auxiliary, Ag/AgCl reference; CV 0-0.5 V at 5-200 mV s-1; GCD 0-0.5 V at 0.5-10 A g-1.
2017 · Carbon-incorporated Janus-type Ni2P/Ni hollow spheres for high performance hybrid supercapacitors
NP-150 working electrode · Electrode · CV of NP-150 electrode in 2 M KOH at scan rates 2-20 mV s-1; comparison CVs of NP-50/NP-150/NP-250/NP-350 at 10 mV s-1 in SI Fig. S5a.
2017 · Carbon-incorporated Janus-type Ni2P/Ni hollow spheres for high performance hybrid supercapacitors
NP-150//AC HSC device · Electrode · NP-150 positive electrode and active carbon negative electrode in 2.0 M KOH; CV voltage windows 0.8-1.8 V and GCD/device capacitance, energy density and cycling measured.
2017 · Colossal Increase in Electric Current and High Rectification Ratio in a Photoconducting, Self-Cleaning, and Luminescent Schottky Barrier NMOF Diode
NMOF-1 bulk nanosheets/powder · Nanosheet · NMOF-1 on glassy carbon electrode in anhydrous acetonitrile with TBAP; 50 mV/s scan rate; Ag/Ag+ nonaqueous reference
2017 · Conductive Metal–Organic Framework Nanowire Array Electrodes for High-Performance Solid-State Supercapacitors
Blank carbon fibre paper electrode · Electrode · Blank carbon paper in three-electrode 3 M KCl cell; -0.4 to +0.4 V vs Ag/AgCl at 100 mV s-1.
2017 · Conductive Metal–Organic Framework Nanowire Array Electrodes for High-Performance Solid-State Supercapacitors
Symmetric solid-state supercapacitor with Cu-CAT NWA electrodes · Electrode · Symmetric Cu-CAT NWA device with PVA/KCl gel; scan rates 5, 10, 20, 50 and 100 mV s-1; about 0-0.8 V window.
2017 · Conductive Metal–Organic Framework Nanowire Array Electrodes for High-Performance Solid-State Supercapacitors
Cu-CAT nanowire arrays on carbon fibre paper · Electrode · Cu-CAT NWA electrode in three-electrode 3 M KCl aqueous cell; scan rates 10, 20, 50, 100, 200 and 500 mV s-1 in Figure 3a.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP polyhedron control · Powder · 0.5 M H2SO4; CoP polyhedron control; no iR compensation.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP/C · Electrode · 0.5 M H2SO4; CoP plus 10 wt% carbon black; no iR compensation.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP@PNC · Powder · 0.5 M H2SO4; three-electrode cell; GCE working electrode; sweep rate 5 mV s-1; no iR compensation; catalyst loading 0.35 mg cm-2.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP@PNC/C · Electrode · 0.5 M H2SO4; CoP@PNC plus 10 wt% carbon black; same GCE loading; no iR compensation.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP polyhedron control · Powder · 1 M KOH; CoP control; no iR compensation.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP/C · Electrode · 1 M KOH; CoP plus 10 wt% carbon black; no iR compensation.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP@PNC · Powder · 1 M KOH; three-electrode cell; no iR compensation; EIS at -100 mV vs RHE from 100 kHz to 0.01 Hz.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP@PNC/C · Electrode · 1 M KOH; CoP@PNC plus 10 wt% carbon black; no iR compensation.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP polyhedron control · Powder · 1 M KOH; CoP control; no iR compensation.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP/C · Electrode · 1 M KOH; CoP plus 10 wt% carbon black; no iR compensation.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP@PNC · Powder · 1 M KOH; three-electrode cell; no iR compensation; EIS at 1.53 V vs RHE from 100 kHz to 0.01 Hz.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP@PNC/C · Electrode · 1 M KOH; CoP@PNC plus 10 wt% carbon black; no iR compensation.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
Commercial IrO2 electrode · Electrode · 1 M KOH; commercial IrO2 benchmark; no iR compensation.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP@PNC//CoP@PNC two-electrode electrolyser · Electrode · Two-electrode cell in 1 M KOH; CoP@PNC used as both anode and cathode on nickel foam; loading 2 mg cm-2.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
Pt/C//IrO2 two-electrode benchmark · Electrode · Two-electrode benchmark Pt/C//IrO2 system in 1 M KOH.
2017 · Efficient hydrogen production from MIL-53(Fe) catalyst-modified Mo: BiVO4 photoelectrodes
nanoporous BiVO4 photoanode · Electrode · Three-electrode cell, 0.2 M Na2SO4, Pt counter, SCE reference, AM 1.5G 100 mW cm-2 back-side illumination, scan 10 mV s-1, 0-1.6 V vs RHE.
2017 · Efficient hydrogen production from MIL-53(Fe) catalyst-modified Mo: BiVO4 photoelectrodes
FMBV-2 / 2% Mo:BiVO4-MIL-53(Fe) · Electrode · Three-electrode cell, 0.2 M Na2SO4, Pt counter, SCE reference, AM 1.5G 100 mW cm-2 back-side illumination, scan 10 mV s-1.
2017 · Efficient hydrogen production from MIL-53(Fe) catalyst-modified Mo: BiVO4 photoelectrodes
pure MIL-53(Fe) photoanode · Electrode · Pure MIL-53(Fe) photoanode under dark and light conditions; exact electrolyte not restated in SI figure, likely PEC conditions from main text.
2017 · Efficient hydrogen production from MIL-53(Fe) catalyst-modified Mo: BiVO4 photoelectrodes
2% Mo:BiVO4 photoanode · Electrode · Three-electrode cell, 0.2 M Na2SO4, Pt counter, SCE reference, AM 1.5G 100 mW cm-2 back-side illumination, scan 10 mV s-1.
2017 · Electrical semiconduction modulated by light in a cobalt and naphthalene diimide metal-organic framework
MOF-CoNDI-py-2 purple leaf-like crystals/powder · Single Crystal · MeCN, 0.1 mol dm^-3 [N(n-Bu)4](PF6), Ag/AgNO3 reference (1e-2 mol dm^-3 in MeCN), 50 mV s^-1.
2017 · Electrical semiconduction modulated by light in a cobalt and naphthalene diimide metal-organic framework
NDI-py ligand · Powder · 0.1 mmol dm^-3 NDI-py in 10 mmol dm^-3 [N(n-Bu)4](PF6) DMF; ferrocene internal reference; 25 mV s^-1 method text says 1 mmol dm^-3 solution, SI figure says 0.1 mmol dm^-3.
2017 · Fabrication of Hierarchical Porous Metal-Organic Framework Electrode for Aqueous Asymmetric Supercapacitor
PC//HP-UiO-66 ASC · Electrode · PC//HP-UiO-66 ASC in 6 M KOH; potential window optimisation and scan-rate testing.
2017 · Fabrication of Hierarchical Porous Metal-Organic Framework Electrode for Aqueous Asymmetric Supercapacitor
HP-UiO-66 working electrode · Electrode · 6 M KOH aqueous electrolyte, 20 C; Hg/HgO reference, Pt counter electrode; scan rates 5-100 mV s-1.
2017 · Fabrication of Hierarchical Porous Metal-Organic Framework Electrode for Aqueous Asymmetric Supercapacitor
Bare UiO-66 working electrode · Electrode · 6 M KOH aqueous electrolyte, 20 C; Hg/HgO reference, Pt counter electrode; scan rates 5-100 mV s-1.
2017 · From zinc-cyanide hybrid coordination polymers to hierarchical yolk-shell structures for high-performance and ultra-stable lithium-ion batteries
YC-ZnO electrode · Electrode · CR2032 cell, Li counter electrode, 1 M LiPF6 in EC/DEC; 0.001-3.0 V; initial 5 cycles at 0.1 mV s-1 and variable scan rates 0.1-2.0 mV s-1.
2017 · From zinc-cyanide hybrid coordination polymers to hierarchical yolk-shell structures for high-performance and ultra-stable lithium-ion batteries
ZnO control electrode · Electrode · Control ZnO CV in 0.001-3.0 V range; detailed curves are in rendered SI Fig. S3.
2017 · Lowering Band Gap of an Electroactive Metal-Organic Framework via Complementary Guest Intercalation
DSNDI ligand reference · Unknown · First reduction of DSNDI ligand, 1 mM in 0.1 M Bu4NPF6/DMF, vs Ag/AgCl.
2017 · Lowering Band Gap of an Electroactive Metal-Organic Framework via Complementary Guest Intercalation
TTF guest reference · Unknown · First oxidation of TTF guest, 1 mM in 0.1 M Bu4NPF6/DMF, vs Ag/AgCl.
2017 · Mechanistic Evidence for Ligand-Centered Electrocatalytic Oxygen Reduction with the Conductive MOF Ni3(hexaiminotriphenylene)2
Ni(ISQ)2 dropcast on glassy carbon and ITO · Electrode · 0.1 M KOH; SCE reference; Pt counter; N2 and O2 atmospheres; dropcast Ni(ISQ)2 on glassy carbon and ITO; electrodes not rotated
2017 · Mechanistic Evidence for Ligand-Centered Electrocatalytic Oxygen Reduction with the Conductive MOF Ni3(hexaiminotriphenylene)2
Ni3(HITP)2 film on glassy carbon working electrode · Electrode · O2 atmosphere; pH 13, pH 8 and pH 4 electrolytes; potentials referenced to RHE
2017 · Mechanistic Evidence for Ligand-Centered Electrocatalytic Oxygen Reduction with the Conductive MOF Ni3(hexaiminotriphenylene)2
Ni3(HITP)2 film on glassy carbon working electrode · Electrode · CV under N2 over E = -1.1 to 0.7 V vs SCE at pH 13.6, 12.5, 11.8, 11.2, 10.6, 9.4 and 8.9
2017 · Mixed-metallic MOF based electrode materials for high performance hybrid supercapacitors
CNC-HSC · Electrode · Co/Ni-MOF positive electrode and CNTs-COOH negative electrode in 3 M KOH.
2017 · Mixed-metallic MOF based electrode materials for high performance hybrid supercapacitors
CNTs-COOH negative electrode · Electrode · CNTs-COOH charge-discharge from 1 to 10 A g-1; CV 5-80 mV s-1; Nyquist plot.
2017 · Mixed-metallic MOF based electrode materials for high performance hybrid supercapacitors
Co/Ni-MOF working electrode on Ni foam · Electrode · Three-electrode cell, 3 M KOH, room temperature; scan rates 5-80 mV s-1.
2017 · Mixed-metallic MOF based electrode materials for high performance hybrid supercapacitors
Ni-MOF working electrode on Ni foam · Electrode · Three-electrode cell, 3 M KOH, room temperature; scan rate 5 mV s-1 for Fig. 4a; additional scan rates in Fig. S3.
2017 · Mixed-metallic MOF based electrode materials for high performance hybrid supercapacitors
Zn/Ni-MOF working electrode on Ni foam · Electrode · Three-electrode cell, 3 M KOH, room temperature; scan rates in Fig. S3.
2017 · Mixed-metallic MOF based electrode materials for high performance hybrid supercapacitors
NC-HSC · Electrode · Ni-MOF positive electrode and CNTs-COOH negative electrode in 3 M KOH.
2017 · Mixed-metallic MOF based electrode materials for high performance hybrid supercapacitors
ZNC-HSC · Electrode · Zn/Ni-MOF positive electrode and CNTs-COOH negative electrode in 3 M KOH.
2017 · Novel Solid-State Solar Cell Based on Hole-Conducting MOF-Sensitizer Demonstrating Power Conversion Efficiency of 2.1%
Co-DAPV film on ITO electrode · Electrode · Cyclic voltammogram of Co-DAPV film on ITO in 0.1 M tetra-n-butylammonium tetrafluoroborate in acetonitrile; Pt counter electrode, Ag/AgCl (3 M KCl) reference, 5 mV s-1 scan speed.
2017 · Ultrathin metal-organic framework array for efficient electrocatalytic water splitting
NiFe-MOF/NF ultrathin nanosheet array electrode · Electrode · CVs at 2-10 mV s-1 in 0.86-0.97 V vs RHE; slope of current density vs scan rate.
2017 · Ultrathin metal-organic framework array for efficient electrocatalytic water splitting
NiFe-MOF/NF ultrathin nanosheet array electrode · Electrode · 0.1 M KOH; HER polarisation to negative potentials; compared NiFe-MOF, Ni-MOF, bulk NiFe-MOF and calcined NiFe-MOF.
2017 · Ultrathin metal-organic framework array for efficient electrocatalytic water splitting
NiFe-MOF/NF ultrathin nanosheet array electrode · Electrode · Chronoamperometry at -0.2 V vs RHE for 2000 s in 0.1 M KOH; before/after LSV comparison.
2017 · Ultrathin metal-organic framework array for efficient electrocatalytic water splitting
NiFe-MOF/NF ultrathin nanosheet array electrode · Electrode · 0.1 M KOH, three-electrode, scan rate 10 mV s-1, no iR correction; compared against Ni-MOF, Fe-MOF, bare NF, bulk NiFe-MOF, calcined NiFe-MOF, NiFe-MOF/GC and IrO2.
2017 · Ultrathin metal-organic framework array for efficient electrocatalytic water splitting
NiFe-MOF/NF ultrathin nanosheet array electrode · Electrode · Chronoamperometry at 1.42 V vs RHE for 20000 s; CV 1000 cycles and EIS before/after cycling.
2017 · Ultrathin metal-organic framework array for efficient electrocatalytic water splitting
Two-electrode cell using two NiFe-MOF electrodes · Electrode · Two NiFe-MOF electrodes as anode and cathode; 0.1 M KOH; scan rate 10 mV s-1; compared Pt/C cathode + IrO2 anode.
2017 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
amorphous ZnTPA Li-ion half-cell electrode · Electrode · First several cycles at 0.1 mV s-1 in 0.2-3.0 V vs Li+/Li; 2032 Li half-cell.
2017 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
crystalline ZnTPA Li-ion half-cell electrode · Electrode · First several cycles at 0.1 mV s-1 in 0.2-3.0 V vs Li+/Li; 2032 Li half-cell.
2017 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
ZnTPA.2H2O Li-ion half-cell electrode · Electrode · First several cycles at 0.1 mV s-1 in 0.2-3.0 V vs Li+/Li; 2032 Li half-cell.
2017 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
amorphous ZnTPA Li-ion half-cell electrode · Electrode · CV scan rates from 0.1 to 0.4 mV s-1; peak current plotted against square root of scan rate.
2017 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
ZnTPA.2H2O Li-ion half-cell electrode · Electrode · CV scan rates from 0.1 to 0.4 mV s-1; peak current plotted against square root of scan rate.
2016 · Electrochemical oxygen reduction catalysed by Ni3 (hexaiminotriphenylene)2
Ni3(HITP)2 thin film on glassy carbon electrode · Electrode · Under N2 atmosphere with CV scan rates labelled 5, 20 and 50 mV s-1.
2016 · Electrochemical oxygen reduction catalysed by Ni3 (hexaiminotriphenylene)2
Ni3(HITP)2 thin film on indium tin oxide electrode · Electrode · Ni3(HITP)2-modified and blank ITO under N2 and O2 atmosphere.
2016 · Electrochemical oxygen reduction catalysed by Ni3 (hexaiminotriphenylene)2
Ni3(HITP)2 thin film on glassy carbon electrode · Electrode · 0.10 M KOH; Pt mesh auxiliary; Hg/HgO reference; scan 5 mV s-1; 2000 rpm; N2 or O2 sparged.
2016 · Facile formation of a nanostructured NiP2@C material for advanced lithium-ion battery anode using adsorption property of metal-organic framework
NiP2@C composite working electrode · Electrode · 0.01-2.5 V vs Li+/Li at scan rate 0.1 mV s^-1
2016 · Hollow Cobalt-Based Bimetallic Sulfide Polyhedra for Efficient All-pH-Value Electrochemical and Photocatalytic Hydrogen Evolution
hollow Zn0.30Co2.70S4 · Powder · CV non-Faradaic overpotentials 0.1-0.2 V vs RHE in 0.5 M H2SO4 at 10-50 mV s-1; EIS 100 kHz-0.1 Hz fitted to simplified Randles circuit.
2016 · Hollow Cobalt-Based Bimetallic Sulfide Polyhedra for Efficient All-pH-Value Electrochemical and Photocatalytic Hydrogen Evolution
hollow Zn0.30Co2.70S4 · Powder · 0.5 M H2SO4, pH 0; three-electrode setup; graphite counter, SCE reference calibrated to RHE; scan rate 5 mV s-1.
2016 · Hollow Cobalt-Based Bimetallic Sulfide Polyhedra for Efficient All-pH-Value Electrochemical and Photocatalytic Hydrogen Evolution
hollow Zn0.30Co2.70S4 · Powder · 1 M KOH, pH 14, scan rate 5 mV s-1.
2016 · Hollow Cobalt-Based Bimetallic Sulfide Polyhedra for Efficient All-pH-Value Electrochemical and Photocatalytic Hydrogen Evolution
hollow Zn0.30Co2.70S4 · Powder · 0.1 M phosphate buffer, pH 7, scan rate 5 mV s-1.
2016 · In-situ Growth of Ultrathin ZIF-67 Nanosheets on Conductive Ti@TiO2/CdS Substrate for High-efficient Electrochemical Catalysis
Ti@TiO2/CdS/ZIF-67 electrode · Electrode · 0.5 M NaOH with H2O2 from 0 to 5 mM; scan rate 10 mV s^-1.
2016 · In-situ Growth of Ultrathin ZIF-67 Nanosheets on Conductive Ti@TiO2/CdS Substrate for High-efficient Electrochemical Catalysis
Ti@TiO2/CdS/Co(OH)2 electrode · Electrode · 1 M NaOH, room temperature, scan rate 10 mV s^-1.
2016 · In-situ Growth of Ultrathin ZIF-67 Nanosheets on Conductive Ti@TiO2/CdS Substrate for High-efficient Electrochemical Catalysis
Ti@TiO2/CdS/ZIF-67 electrode · Electrode · 1 M NaOH, room temperature, scan rate 10 mV s^-1; three-electrode cell with Hg/HgO reference and Pt counter.
2016 · In-situ Growth of Ultrathin ZIF-67 Nanosheets on Conductive Ti@TiO2/CdS Substrate for High-efficient Electrochemical Catalysis
Ti@TiO2/CdS/ZIF-67 electrode · Electrode · 1 M NaOH; scan rates 5, 8, 10 and 15 mV s^-1.
2016 · Metal-organic framework nanomaterials as novel signal probes for electron transfer mediated ultrasensitive electrochemical immunoassay
Cd2+-exchanged cleaned HKUST-1 MOFs · Powder · Typical DPV signal for MOFs before and after ion exchange reaction of Cd2+; axis around -1.0 to -0.6 V vs SCE.
2016 · Metal-organic framework nanomaterials as novel signal probes for electron transfer mediated ultrasensitive electrochemical immunoassay
Cd-MOF-74 DPV signal-probe sample · Powder · Typical DPV signal for cadmium-based MOFs (Cd-MOF-74).
2016 · Metal-organic framework nanomaterials as novel signal probes for electron transfer mediated ultrasensitive electrochemical immunoassay
Au-MOFs-Ab2-CRP/anti-CRP/Pt-COFs/GCE immunosensor · Electrode · Electrochemical response to a series of CRP target concentrations under optimised conditions.
2016 · Metal-organic framework nanomaterials as novel signal probes for electron transfer mediated ultrasensitive electrochemical immunoassay
Au-MOFs-Ab2-CRP/anti-CRP/Pt-COFs/GCE immunosensor · Electrode · CV of Au/Cu(II)-HKUST-1 labelled anti-CRP/CRP/anti-CRP/Pt-COF/GCE at scan rates from 40 to 180 mV/s.
2016 · Metal-organic framework nanomaterials as novel signal probes for electron transfer mediated ultrasensitive electrochemical immunoassay
Au-MOFs-Ab2-CRP/anti-CRP/Pt-COFs/GCE immunosensor · Electrode · DPV in pH 4.5 HAc/NaAc, scan 0.3 to -0.3 V, pulse amplitude 25 mV, pulse frequency 15 Hz, quiet time 2 s; CRP response recorded at -0.02 V.
2016 · Metal-organic framework nanomaterials as novel signal probes for electron transfer mediated ultrasensitive electrochemical immunoassay
cleaned HKUST-1 MOFs · Powder · Typical DPV signal of cleaned MOFs; axis spans -0.6 to 0.4 V vs SCE and 0 to -100 uA.
2016 · Metal-organic framework nanomaterials as novel signal probes for electron transfer mediated ultrasensitive electrochemical immunoassay
Au-MOFs-Ab2-CRP/anti-CRP/Pt-COFs/GCE immunosensor · Electrode · Optimised pH, anti-CRP concentration, anti-CRP incubation time, and CRP incubation time based on immunosensor response.
2016 · Metal-organic framework nanomaterials as novel signal probes for electron transfer mediated ultrasensitive electrochemical immunoassay
Au-MOFs-Ab2-CRP/anti-CRP/Pt-COFs/GCE immunosensor · Electrode · Five replicate measurements at 20 ng/mL CRP; 100 successive CV scans; storage in pH 7.4 PBS at 4 C for 1 week; urea soaking for regeneration.
2016 · Metal-organic framework nanomaterials as novel signal probes for electron transfer mediated ultrasensitive electrochemical immunoassay
Pt-COFs modified glassy carbon electrode · Electrode · GC electrode and Pt-COFs-modified electrode in 10 mM PBS (pH 7.4) containing 0.1 M KCl and 5 mM K3[Fe(CN)6]/K4[Fe(CN)6].
2016 · Metal-organic framework nanomaterials as novel signal probes for electron transfer mediated ultrasensitive electrochemical immunoassay
Au-MOFs-Ab2-CRP/anti-CRP/Pt-COFs/GCE immunosensor · Electrode · Response to CRP at 100 ng/mL compared with CEA, HCG, Gly, and Glu interferents at 1 ug/mL.
2016 · Metal-organic framework nanomaterials as novel signal probes for electron transfer mediated ultrasensitive electrochemical immunoassay
ZIF-8 DPV signal-probe sample · Powder · Typical DPV signal for zinc-based MOFs (ZIF-8).
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
BMOF/ZnO-FTO electrochemical film · Electrode · BMOF/ZnO-FTO working electrode; Pt mesh counter; Ag/AgCl reference; 0.1 M Bu4NPF6 supporting electrolyte.
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
BPDPNDI ligand solution · Model · 1 mM BPDPNDI in 0.1 M Bu4NPF6/MeCN.
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
DFDNB solution · Model · 1 mM DFDNB in 0.1 M Bu4NPF6/MeCN.
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
DNT solution · Model · 1 mM DNT in 0.1 M Bu4NPF6/MeCN.
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
MV2+·2PF6- solution · Model · 0.5 mM MV2+·2PF6- in 0.1 M Bu4NPF6/MeCN.
2016 · Novel CoS2 embedded carbon nanocages by direct sulfurizing metal-organic frameworks for dye-sensitized solar cells
CoS2_4 h CE · Electrode · Three-electrode CV in acetonitrile containing 100 mM LiClO4, 10 mM LiI and 1 mM I2; 50 mV s-1 for 30 cycles
2016 · Novel CoS2 embedded carbon nanocages by direct sulfurizing metal-organic frameworks for dye-sensitized solar cells
CoS2_4 h CE · Electrode · CE symmetric cells; potential range 1 V to -1 V; diffusion limiting current density Jlim compared
2015 · A porous proton-relaying metal-organic framework material that accelerates electrochemical hydrogen evolution
NU-1000_Ni-S · Electrode · FTO_Ni-S and NU-1000_Ni-S compared under HER working conditions; capacitive currents measured positive of HER region across scan rates.
2015 · Charge Transfer-Induced Molecular Hole Doping into Thin Film of Metal-Organic Frameworks
Iodine-doped Co3(NDC)3 LbL film on ITO · Thin Film · CV of LbL and DB Co3(NDC)3 films on ITO under Ar in 0.1 M tetra-n-butylammonium tetrafluoroborate/acetonitrile; HOMO from oxidation onset and LUMO from HOMO plus band gap.
2015 · Electronic Conductivity, Ferrimagnetic Ordering, and Reductive Insertion Mediated by Organic Mixed-Valence in a Ferric Semiquinoid Metal-Organic Framework
Composite electrochemical electrode containing 1 · Electrode · Lithium reference and counter electrodes; 0.1 M LiBF4 in propylene carbonate; scan rate 30 microV/s; argon-filled glovebox.
2015 · Facile interfacial charge transfer across hole doped cobalt-based MOFs/TiO2 nano-hybrids making MOFs light harvesting active layers in solar cells
Iodine-treated Co-NDC LBL film on amine-functionalised glass · Thin Film · Hole-doped Co-BDC and Co-NDC frameworks; supporting figures cited as Fig. S1 and Fig. S2.
2015 · Photoinduced Charge-Carrier Generation in Epitaxial MOF Thin Films: High Efficiency as a Result of an Indirect Electronic Band Gap?
Bare FTO substrate · Electrode · Bare FTO substrate with and without 530 nm illumination; used to show light does not strongly alter FTO current.
2015 · Topochemical conversion of a dense metal-organic framework from a crystalline insulator to an amorphous semiconductor
Compound 3 powder pellet · Pellet · Hokuto HZ5000 electrochemical system, scan rate 10 mV s-1, 25 deg C.
2014 · Bulk protonic conductivity in a cephalopod structural protein
Reflectin thin film on gold working electrode · Electrode · Reflectin-coated gold working electrode, Pt auxiliary, Ag/AgCl reference, 10X phosphate buffered saline, argon purged; scan rate 100 mV s^-1.
2014 · Solvothermal preparation of an electrocatalytic metalloporphyrin MOF thin film and its redox hopping charge-transfer mechanism
CoPIZA/FTO thin film electrode · Electrode · CoPIZA/FTO in 0.1 M LiClO4/DMF; CV before/after CCl4 addition at 100 mV/s; film first reduced to (CoI TCPP)CoPIZA, then CCl4 injected and spectral changes monitored.
2014 · Solvothermal preparation of an electrocatalytic metalloporphyrin MOF thin film and its redox hopping charge-transfer mechanism
CoPIZA/FTO thin film electrode · Electrode · BASi Epsilon potentiostat; CoPIZA/FTO working electrode, platinum mesh counter electrode, Ag/AgCl saturated KCl reference; 0.1 M LiClO4/DMF electrolyte; Ag/AgCl calibrated against Fe(CN)6^3-/4-; representative scan at 100 mV/s.
2012 · Electrochemical reduction of carbon dioxide using a copper rubeanate metal organic framework
bare conductive carbon paper electrode · Electrode · 0.5 M KHCO3 aqueous solution, same H-type-cell setup as CR-MOF electrode; CO2 saturated and N2-bubbled comparisons.
2012 · Electrochemical reduction of carbon dioxide using a copper rubeanate metal organic framework
CR-MOF deposited on conductive carbon paper · Electrode · 0.5 M KHCO3 aqueous solution in H-type cell; Ag/AgCl reference, Pt wire counter, Nafion 117 separator, ALS Model 760 potentiostat; CO2 saturated pH 8.7 and N2-bubbled pH 7.7 conditions; potentials translated to SHE and N2 data corrected by +59 mV.
2012 · Electrochemical reduction of carbon dioxide using a copper rubeanate metal organic framework
Cu metal electrode · Electrode · 0.5 M KHCO3 aqueous solution, same H-type-cell setup as CR-MOF electrode; CO2 saturated and N2-bubbled comparisons.
2012 · Stable organic radical stacked by in situ coordination to rare earth cations in MOF materials
La-RPF8 bulk powder/crystals · Powder · Used to estimate the LUMO energy of La-RPF8; electrode/electrolyte details not reported in supplied main/SI text.
2011 · Synthesis and characterization of a novel kind soluble, conjugated, and fluorescent chelate polymer containing fluorene ring in the backbone: Optical, electrical, and electrochemical properties
poly(3,4-HBA-Cr-FDA) bulk chelate polymer · Powder · DMSO/acetonitrile 1/4 v/v; 20 mV/s; argon-filled dry box; Pt working/counter electrodes, Ag wire reference, Fc/Fc+ calibration.
2010 · Conductivity, doping, and redox chemistry of a microporous dithiolene-based metal-organic framework
Cu[Cu(pdt)2] particles cast on Pt disk electrode · Electrode · Cu[Cu(pdt)2] cast on Pt disk electrode; 0.1 M TBABr or TBAPF6 in MeCN; 10 mV/s.
2010 · Conductivity, doping, and redox chemistry of a microporous dithiolene-based metal-organic framework
Cu[Ni(pdt)2] particles cast on Pt disk electrode · Electrode · Cu[Ni(pdt)2] cast on Pt disk electrode; 0.1 M TBABr or TBAPF6 in MeCN; 10 mV/s.
2010 · Conductivity, doping, and redox chemistry of a microporous dithiolene-based metal-organic framework
[Cu(pdt)2]2-/1- solution CV sample · Model · Tetra-n-butylammonium [Cu(pdt)2] salt in acetonitrile versus Ag/Ag+.
2010 · Conductivity, doping, and redox chemistry of a microporous dithiolene-based metal-organic framework
[Ni(pdt)2]2-/1- solution CV sample · Model · Solution redox couple for [Ni(pdt)2]2-/1- versus Ag/Ag+.
2009 · Soluble semi-conductive chelate polymers containing Cr(III) in the backbone: Synthesis, characterization, optical, electrochemical, and electrical properties
P-1 as-synthesised polymer · Powder · CHI 660 C analyser, 20 mV/s, dry argon box at room temperature, Pt working/counter electrodes, Ag reference calibrated vs Fc/Fc+, DMSO/acetonitrile 1/4 with TBAPF6 electrolyte
No mapped measurement matches these filters.
These are the exact source-preserving method strings consolidated by this technique group.
| Raw method label | Mapped measurements |
|---|---|
| Cyclic voltammetry | 113 |
| cyclic voltammetry | 99 |
| Cyclic voltammetry (CV) | 29 |
| cyclic voltammetry (CV) | 23 |
| differential pulse voltammetry | 17 |
| solid-state cyclic voltammetry | 14 |
| LSV | 13 |
| linear sweep voltammetry | 13 |
| Linear sweep voltammetry for HER | 12 |
| Cyclic voltammetry in three-electrode cell | 12 |
| Linear sweep voltammetry (LSV) for OER | 12 |
| RDE OER electrochemistry: LSV, Tafel, CV Cdl, EIS | 12 |
| linear sweep voltammetry for OER | 11 |
| Linear sweep voltammetry for OER | 11 |
| cyclic voltammetry double-layer capacitance | 11 |
| Differential pulse voltammetry (DPV) | 11 |
| Linear sweep voltammetry | 11 |
| OER linear sweep voltammetry (LSV) | 10 |
| Two-contact electrical conductivity from linear sweep voltammetry | 10 |
| Solid-state cyclic voltammetry | 9 |
| OER cyclic voltammetry | 9 |
| linear sweep voltammetry (LSV), OER | 9 |
| cyclic voltammetry in three-electrode cell | 8 |
| double-layer capacitance from CV scan-rate series | 7 |
| RDE linear sweep voltammetry for OER | 7 |
| Tafel analysis from LSV | 7 |
| LSV and Tafel analysis | 7 |
| OER LSV and Tafel analysis | 7 |
| Differential pulse voltammetry | 7 |
| LSV and Tafel analysis for OER | 7 |
| linear sweep voltammetry and Tafel analysis | 6 |
| Cyclic voltammetry double-layer capacitance | 6 |
| LSV CO2RR in H-type cell | 6 |
| HER linear sweep voltammetry and Tafel analysis | 6 |
| CV-derived Li diffusion coefficient using Randles-Sevcik equation | 6 |
| CV double-layer capacitance and ECSA calculation | 6 |
| Oxygen reduction LSV/RDE in O2-saturated 0.1 M KOH | 6 |
| CV | 5 |
| Scan-rate-dependent cyclic voltammetry | 5 |
| CV-derived charge mobility calculation | 5 |
| OER RDE LSV and Tafel analysis | 5 |
| Cyclic voltammetry scan-rate study | 5 |
| Linear sweep voltammetry photocurrent | 5 |
| Linear sweep voltammetry (LSV) | 5 |
| CV scan-rate dependence | 5 |
| Power-law CV analysis and capacitive/diffusion contribution fitting | 5 |
| Linear sweep voltammetry screening | 5 |
| HER linear sweep voltammetry | 5 |
| Chronoamperometry and CV | 5 |
| DPASV | 4 |
| cyclic voltammetry of flexible asymmetric MSC | 4 |
| linear sweep voltammetry (LSV) | 4 |
| DPV selectivity test | 4 |
| Cyclic voltammetry nitric oxide sensing | 4 |
| Scan-rate-dependent CV kinetics analysis | 4 |
| cyclic voltammetry and galvanostatic charge-discharge, three-electrode | 4 |
| ORR RDE LSV and Tafel analysis | 4 |
| OER linear sweep voltammetry and Tafel analysis | 4 |
| CV kinetic analysis (log(i) versus log(v) b-value) | 4 |
| cyclic voltammetry-derived double-layer capacitance | 4 |
| linear sweep voltammetry OER testing | 4 |
| CV, GCD and EIS | 4 |
| Linear sweep voltammetry-derived electrical conductivity | 4 |
| Tafel analysis from HER LSV curves | 4 |
| Linear sweep voltammetry for ORR | 4 |
| cyclic voltammetry with biologically relevant organic probes | 4 |
| cyclic voltammetry with inorganic probes | 4 |
| Cyclic voltammetry, capacitance and double-layer-capacitance ECSA analysis in 0.1 M TEBF4/acetonitrile. | 3 |
| RDE three-electrode OER/ORR LSV, CV, EIS and chronoamperometry | 3 |
| DPV pH optimisation | 3 |
| OER linear sweep voltammetry | 3 |
| DPV optimisation | 3 |
| Two-electrode HSC CV/GCD/Ragone/cycling | 3 |
| differential pulse voltammetry (DPV) calibration | 3 |
| CV scan-rate analysis | 3 |
| Cyclic voltammetry in a three-electrode cell using Biologic SP 200 potentiostat. | 3 |
| CV kinetic analysis | 3 |
| CV and galvanostatic charge-discharge | 3 |
| ORR RDE LSV comparison | 3 |
| cyclic voltammetry / current-potential (j-U) curves | 3 |
| Cyclic voltammetry (CV), three-electrode cell | 3 |
| CV double-layer capacitance / ECSA proxy | 3 |
| cyclic voltammetry using [Fe(CN)6]3-/4- redox probe | 3 |
| three-electrode CV, GCD and EIS | 3 |
| Linear sweep voltammetry HER polarisation | 3 |
| Non-faradaic CV for Cdl/ECSA | 3 |
| solid-state DC cyclic voltammetry | 3 |
| Double-layer capacitance from CV scan-rate dependence | 3 |
| CV and galvanostatic charge-discharge in symmetric coin cells | 3 |
| Cyclic voltammetry (three-electrode) | 3 |
| CV, GCD and EIS in three-electrode cell | 3 |
| VASP/PBE/PAW DFT band-structure calculations plus UV-vis/UPS/CV measurements | 3 |
| ENRR in H-cell with LSV and constant-current tests; indophenol blue NH3 quantification | 3 |
| double-layer capacitance from non-Faradaic CV | 3 |
| Two-probe cyclic voltammetric conductivity measurement | 3 |
| Cyclic voltammetry scan-rate analysis, log(Jpa) vs log(v) | 3 |
| CV, GCD and EIS in three-electrode setup | 3 |
| CV and galvanostatic charge/discharge in Zn-ion coin cell | 3 |
| Linear sweep voltammetry (OER polarisation) | 3 |
| Cyclic voltammetry and Randles-Sevcik analysis | 3 |
| spectroelectrochemical switching and three-electrode CV | 3 |
| symmetric two-electrode supercapacitor CV, GCD, cycling and EIS | 3 |
| Cyclic voltammetry, three-electrode | 3 |
| Langmuir adsorption isotherm from CV peak currents | 3 |
| three-electrode CV, GCD, EIS and cycling | 3 |
| RRDE ORR linear sweep voltammetry and derived selectivity | 3 |
| Cyclic voltammetry Cdl/ECSA estimation | 3 |
| RRDE linear sweep voltammetry for 2e ORR | 3 |
| Cyclic voltammetry and b-value/capacitive contribution analysis | 2 |
| Tafel analysis derived from CV curves | 2 |
| Slow-scan cyclic voltammetry | 2 |
| Solid-state CV and DPV in CH2Cl2 with 0.1 M LiClO4 versus Fc/Fc+ | 2 |
| Three-electrode CV, GCD, and EIS | 2 |
| Double-layer capacitance from CV | 2 |
| DPASV calibration | 2 |
| double-layer capacitance from scan-rate dependent CV | 2 |
| cyclic voltammetry capacitance | 2 |
| Scan-rate dependent cyclic voltammetry | 2 |
| steady-state polarisation / LSV for OER | 2 |
| scan-rate-dependent cyclic voltammetry | 2 |
| CV double-layer capacitance and ECSA analysis | 2 |
| Repeated cyclic voltammetry activation/stability | 2 |
| Cyclic voltammetry redox/HOMO-LUMO analysis | 2 |
| Tafel analysis derived from LSV | 2 |
| Cyclic voltammetry of cast MOF particles | 2 |
| OER LSV/EIS/Cdl | 2 |
| Nitrate electroreduction to ammonia; LSV and chronoamperometry; indophenol blue NH3 quantification | 2 |
| Electrochemical impedance/CV comparison of electrolyte anions | 2 |
| CV pH optimisation | 2 |
| Comparator cyclic voltammetry (CV) | 2 |
| CV at variable scan rates and b-value analysis | 2 |
| Double-layer capacitance from CV scan-rate series | 2 |
| cyclic voltammetry scan-rate study | 2 |
| cyclic voltammetry with ferrocene reference | 2 |
| HER LSV, Tafel, and EIS | 2 |
| HER LSV, Tafel, EIS, and chronopotentiometry | 2 |
| solid-electrode cyclic voltammetry | 2 |
| Cyclic voltammetry with CHI600D potentiostat | 2 |
| cyclic voltammetry specific capacitance | 2 |
| Cyclic voltammetry pH study | 2 |
| Cyclic voltammetry (CV), three-electrode system | 2 |
| double-layer capacitance and ECSA from non-faradaic CV | 2 |
| cyclic voltammetry and Dunn capacitive/diffusion analysis | 2 |
| Three-electrode CV and galvanostatic charge-discharge | 2 |
| cyclic voltammetry in LIB | 2 |
| cyclic voltammetry in SIB | 2 |
| CV scan-rate b-value analysis | 2 |
| Li+ diffusion coefficient from CV | 2 |
| Li-S battery CV and Tafel | 2 |
| CV scan-rate study | 2 |
| Linear sweep voltammetry and Tafel analysis | 2 |
| scan-rate CV and capacitive contribution analysis | 2 |
| CV and EIS | 2 |
| Cyclic voltammetry, double-layer capacitance, and ECSA | 2 |
| HER LSV and Tafel analysis | 2 |
| electrochemical double-layer capacitance from CV | 2 |
| CV at various scan rates and pseudocapacitive analysis | 2 |
| cyclic voltammetry with ferri/ferrocyanide redox probe | 2 |
| square wave voltammetry calibration | 2 |
| cyclic voltammetry for paracetamol oxidation | 2 |
| Scan-rate CV kinetic analysis | 2 |
| Cyclic voltammetry for H2O2 reduction | 2 |
| Cyclic voltammetry H2O2 sensing | 2 |
| Cyclic voltammetry for double-layer capacitance | 2 |
| Two-electrode CV and GCD | 2 |
| Scan-rate-dependent CV kinetic analysis | 2 |
| Asymmetric supercapattery CV/GCD/Ragone/cycling tests | 2 |
| Cyclic voltammetry-derived double-layer capacitance | 2 |
| DPV reproducibility | 2 |
| Three-electrode CV and GCD | 2 |
| CV and EIS-derived redox conductivity | 2 |
| CV and GCD, three-electrode cell | 2 |
| DPV interference/selectivity test | 2 |
| DPV storage stability | 2 |
| Tafel analysis from LSV curves | 2 |
| CV electrocatalytic ascorbic acid oxidation | 2 |
| CV electrocatalytic nitrite reduction | 2 |
| differential pulse voltammetry (DPV) | 2 |
| LSV screening for OER | 2 |
| solution-phase cyclic voltammetry | 2 |
| Solid-state DC cyclic voltammetry | 2 |
| cyclic voltammetry electrocatalysis | 2 |
| solid-state cyclic voltammetry (CV) | 2 |
| RRDE/RDE ORR voltammetry | 2 |
| Double-layer capacitance (Cdl) from CV curves | 2 |
| Cyclic voltammetry with redox probes and Randles-Sevcik analysis | 2 |
| Cyclic voltammetry of drop-cast polymer film | 2 |
| rotating ring disk electrode voltammetry | 2 |
| Cyclic voltammetry (CV), three-electrode | 2 |
| DFT HOMO-LUMO and electrochemical CV comparison | 2 |
| cyclic voltammetry H2O2 calibration | 2 |
| DPV reproducibility and storage stability | 2 |
| Cyclic voltammetry-derived ECSA / double-layer capacitance | 2 |
| cyclic voltammetry with methyl viologen redox mediator | 2 |
| scan-rate-dependent cyclic voltammetry and Randles-Sevcik analysis | 2 |
| Cyclic voltammetry glucose calibration | 2 |
| Cyclic voltammetry glucose sensing | 2 |
| CV charge-storage kinetics analysis | 2 |
| CV and galvanostatic charge-discharge in three-electrode cell | 2 |
| CV, b-value analysis, Dunn analysis, GCD and cycling | 2 |
| CV kinetic analysis and pseudocapacitive contribution | 2 |
| Scan-rate-dependent cyclic voltammetry and b-value analysis | 2 |
| Cyclic voltammetry potential-window optimisation | 2 |
| PEC HER photocurrent-time and LSV | 2 |
| Dunn's model fit to CV currents | 2 |
| Cyclic voltammetry (CV), two-electrode hybrid device | 2 |
| Cyclic voltammetry in symmetric 2032 coin-cell supercapacitor | 2 |
| UV-VIS-NIR absorption/Tauc plot plus CV against ferrocene reference | 2 |
| Na half-cell galvanostatic cycling and CV | 2 |
| scan-rate CV, capacitive contribution analysis, GITT and EIS | 2 |
| two-electrode asymmetric supercapacitor CV, GCD, EIS and Ragone analysis | 2 |
| cyclic voltammetry on bare GCE | 2 |
| two-electrode ASC CV, GCD, EIS, Ragone plot and cycling | 2 |
| Cyclic voltammetry using CHI 760E electrochemical workstation | 2 |
| RDE linear sweep voltammetry | 2 |
| CV capacitive measurements | 2 |
| Cyclic voltammetry for double-layer capacitance (Cdl) | 2 |
| cyclic voltammetry for double-layer capacitance | 2 |
| Linear sweep voltammetry Tafel analysis | 2 |
| Cyclic voltammetry double-layer capacitance scan-rate series | 1 |
| Cyclic voltammetry on modified ITO | 1 |
| Rotating disk electrode and rotating ring-disk electrode cyclic voltammetry | 1 |
| CV, EIS and ECL responses during electrode assembly | 1 |
| CV in anhydrous CH3CN/[nBu4N][PF6] | 1 |
| CV, GCD and EIS in 3 M KOH | 1 |
| ECSA-CV / double-layer capacitance slope | 1 |
| linear sweep voltammetry for ORR | 1 |
| CV cycling stability followed by ORR LSV | 1 |
| powder Cu3HITP2 ORR rotating-electrode LSV and Tafel analysis | 1 |
| PXRD before and after CV stability test | 1 |
| Cyclic voltammetry of HHTP ligand and iron acetate controls | 1 |
| Cyclic voltammetry on Au/SiO2 electrode before Cu deposition | 1 |
| Two-electrode solid-state cyclic voltammetry | 1 |
| Device cyclic voltammetry | 1 |
| CV and GCD control measurements of activated carbon electrode | 1 |
| Cyclic voltammetry with Gamry REF-3000 potentiostat | 1 |
| Cyclic voltammetry control test | 1 |
| Cyclic voltammetry electrocatalysis test | 1 |
| Cyclic voltammetry pH-dependence test | 1 |
| Cyclic voltammetry scan-rate dependence | 1 |
| Differential pulse voltammetry (DPV) calibration for paracetamol | 1 |
| DPV selectivity / interference test | 1 |
| DPV real-sample tablet analysis | 1 |
| DPV repeatability / reproducibility test | 1 |
| DPV stability test after storage in air | 1 |
| Differential pulse voltammetry stability traces from SI | 1 |
| Cyclic voltammetry controls for THQ ligand, BPY ligand and Cu salt | 1 |
| Cyclic voltammetry gravimetric capacitance | 1 |
| UV-vis-NIR spectroscopy, Tauc analysis, and cyclic-voltammetry-derived LUMO estimate | 1 |
| CV in symmetric EDLC | 1 |
| Cyclic voltammetry and galvanostatic charge-discharge in symmetric EDLC | 1 |
| CV, GCD and EIS in symmetric EDLC without conductive additive | 1 |
| Three-electrode cyclic voltammetry | 1 |
| GCD with increasing final cell voltages and CV stress test | 1 |
| CV, GCD rate and cycle testing in symmetric EDLC | 1 |
| Three-electrode LSV and online GC product analysis | 1 |
| Cyclic voltammetry. | 1 |
| Cyclic voltammetry comparison. | 1 |
| CV, galvanostatic charge-discharge, rate and cycling tests. | 1 |
| Cyclic voltammetry in 0.1 M n-Bu4NPF6/CH2Cl2 versus Fc/Fc+ | 1 |
| Cyclic voltammetry of ferricyanide redox process | 1 |
| two-electrode ZHS CV and GCD | 1 |
| linear sweep voltammetry during EtOH exposure | 1 |
| Cyclic voltammetry in coin cell | 1 |
| Cyclic voltammetry and optical band-gap estimation | 1 |
| CV, GCD, EIS, and cycling of 8OH-DBC ligand control | 1 |
| Symmetric solid-state cell CV, GCD, EIS, cycling, Ragone analysis | 1 |
| Cyclic voltammetry AA probe screening | 1 |
| Differential pulse voltammetry for UA detection | 1 |
| Cyclic voltammetry for gravimetric capacitance | 1 |
| Cycling stability cyclic voltammetry | 1 |
| HER chronoamperometry and before/after LSV | 1 |
| Chronoamperometry/CV/EIS OER durability | 1 |
| Two-electrode full water-splitting LSV | 1 |
| RDE three-electrode OER/ORR LSV, CV, EIS and chronoamperometry; post-test SEM/TEM/PXRD/FT-IR | 1 |
| DPASV standard-spiking recovery | 1 |
| DPASV selectivity/repeatability/reproducibility/stability | 1 |
| DPASV parameter optimisation | 1 |
| Quasi-solid-state asymmetric supercapacitor CV, charge/discharge, cycling, bending and Ragone analysis | 1 |
| OER LSV, Tafel, EIS, Cdl and chrono-stability testing | 1 |
| Three-electrode supercapacitor CV, galvanostatic charge/discharge and EIS | 1 |
| Double-layer capacitance from cyclic voltammetry | 1 |
| HER LSV and Tafel analysis on on-chip micro-electrochemical device | 1 |
| HER stability after cyclic voltammetry and acid soaking | 1 |
| two-electrode symmetric solid-state supercapacitor CV, GCD, EIS, cycling and LED demo | 1 |
| three-electrode CV and galvanostatic charge-discharge | 1 |
| CV of 8OH-TTC ligand control | 1 |
| OER CV, LSV, Tafel and chronopotentiometry | 1 |
| ORR CV and linear sweep voltammetry | 1 |
| asymmetric supercapacitor CV, GCD, EIS, Ragone, and cycling | 1 |
| cyclic voltammetry integrated area comparison | 1 |
| three-electrode CV, GCD, and EIS protocol | 1 |
| CV redox behaviour | 1 |
| Accelerated CV cycling and chronopotentiometry | 1 |
| LSV/CV/chronopotentiometry/EIS in three-electrode OER cell | 1 |
| XPS after 1000 CV cycles | 1 |
| Supplementary LSV acetylene-black control | 1 |
| Double-layer capacitance from non-Faradaic CV | 1 |
| Tafel analysis from OER LSV | 1 |
| Cyclic voltammetry control | 1 |
| Cyclic voltammetry in MeCN electrolyte | 1 |
| Three-electrode CV and galvanostatic charge/discharge in Swagelok cell | 1 |
| CV and UV-vis-derived HOMO/LUMO/band-gap estimates | 1 |
| CV under bending | 1 |
| CV and EIS of bare Pt/Pt interdigitated control | 1 |
| Cyclic voltammetry of Ni3(HITP)2 electrolytic bath | 1 |
| Cyclic voltammetry of individual bath constituents and combined Ni3(HITP)2 precursor bath | 1 |
| Two-electrode cyclic voltammetry of Ni3(HITP)2 micro-supercapacitor | 1 |
| Cycling stability by cyclic voltammetry | 1 |
| CV kinetic analysis using i = a v^b and surface/diffusion contribution separation | 1 |
| Cyclic voltammetry and galvanostatic charge-discharge in three-electrode cell | 1 |
| Two-electrode CV, GCD, EIS, rate capability, cycling and bending tests for all-solid-state supercapacitor | 1 |
| Series/parallel connection CV/GCD and LED demonstration | 1 |
| Linear sweep voltammetry / two-contact pressed-pellet conductivity | 1 |
| differential pulsed voltammetry / energy-level assignment | 1 |
| Cyclic voltammetry on ITO substrate | 1 |
| Cyclic voltammetry for O2 electroreduction | 1 |
| pH-dependent redox cyclic voltammetry under N2 | 1 |
| CV and EIS using ferri/ferrocyanide redox probe | 1 |
| Cyclic voltammetry ratio optimisation | 1 |
| Cyclic voltammetry for L-tryptophan oxidation | 1 |
| Differential pulse voltammetry calibration | 1 |
| DPV interference test | 1 |
| DPV recovery and mouse plasma analysis | 1 |
| Long-term DPV stability | 1 |
| cyclic voltammetry redox-probe comparison | 1 |
| DPV calibration for CRP | 1 |
| replicate precision, CV cycling stability, storage stability, regeneration test | 1 |
| CV scan-rate and capacitive/diffusive contribution analysis | 1 |
| Control electrode CV/cycling of conductive carbon black | 1 |
| Cyclic voltammetry and galvanostatic charge/discharge in Li half-cell | 1 |
| linear sweep voltammetry and chronoamperometry | 1 |
| CV cycling, chronoamperometry, chronopotentiometry | 1 |
| Electrochemical double-layer capacitance from CV scan-rate series | 1 |
| Linear sweep voltammetry (LSV) for benzylamine electrooxidation | 1 |
| Linear sweep voltammetry (LSV) for OER/water oxidation | 1 |
| Turnover frequency and mass activity calculated from LSV/current density and EDS metal-ion counts | 1 |
| steady-state polarisation / LSV scan-rate dependence | 1 |
| cyclic voltammetry for H2O2 oxidation | 1 |
| CV/GCD/EIS of CNTs-COOH | 1 |
| CV and GCD of activated carbon negative electrode | 1 |
| Hybrid supercapacitor CV and GCD | 1 |
| CV kinetic analysis using power-law ip = a v^b and capacitive/diffusion contribution separation | 1 |
| Cyclic voltammetry in a three-electrode cell | 1 |
| Conductivity annotation, CV, charge-discharge, and rate-performance plots for CNF@c-MOF-CNT nanopaper | 1 |
| Symmetric double-layer supercapacitor CV/GCD cycling on Autolab/GPES | 1 |
| Three-electrode CV, GCD, and EIS on Autolab/GPES and CHI 660D-3 | 1 |
| GCD, CV, EIS, cycling and Ragone analysis for flexible all-solid-state supercapacitor | 1 |
| cyclic voltammetry in ferri/ferrocyanide probe | 1 |
| cyclic voltammetry of estradiol oxidation | 1 |
| pH-dependent CV/oxidation potential study | 1 |
| successive and between-electrode DPV repeatability/reproducibility | 1 |
| ambient-storage DPV stability/robustness | 1 |
| AcOH titration cyclic voltammetry | 1 |
| Integrated current from cyclic voltammetry | 1 |
| Scan-rate-dependent cyclic voltammetry for double-layer capacitance and ECSA | 1 |
| Cyclic voltammetry polymer stabilisation screening | 1 |
| CV-derived double-layer capacitance | 1 |
| three-electrode OER; LSV, Tafel, EIS, chronoamperometry and double-layer capacitance | 1 |
| OER LSV/Tafel/EIS/Cdl controls | 1 |
| OER LSV/EIS/Cdl comparison for double-metal MOFs | 1 |
| OER LSV/Tafel/EIS/Cdl/stability | 1 |
| OER LSV/EIS/Cdl comparison for quadruple-metal MOFs | 1 |
| OER LSV/EIS/Cdl comparison for single-metal MOFs | 1 |
| OER LSV/EIS/Cdl comparison for triple-metal MOFs | 1 |
| Two-probe linear sweep voltammetry conductivity measurement. | 1 |
| Cyclic voltammetry in 0.1 M KOH saturated with O2 or N2. | 1 |
| CV and EIS electrochemical workstation conditions | 1 |
| CV kinetic analysis using log(i)-log(v) and capacitive/diffusion partitioning | 1 |
| CV during mechanical bending and twisting | 1 |
| CV during device bending and twisting | 1 |
| Cyclic voltammetry and galvanostatic charge-discharge in a three-electrode system | 1 |
| Two-electrode CV, GCD and Ragone analysis | 1 |
| lean-electrolyte CV scan-rate analysis | 1 |
| Cyclic voltammetry of colloidal Fe(TA)2 nanoparticles | 1 |
| Cyclic voltammetry of drop-cast 16 nm Fe(TA)2 film on glassy carbon | 1 |
| Cyclic voltammetry with simultaneous quartz crystal microbalance | 1 |
| CV scan-speed dependence | 1 |
| Cyclic voltammetry (CV) selectivity test | 1 |
| Comparator CV against HKUST-1/GCE and ZIF-8/GCE | 1 |
| Cyclic voltammetry (CHI660E) | 1 |
| CV at variable scan rates and capacitive contribution analysis | 1 |
| cyclic voltammetry-derived energy levels | 1 |
| Cyclic voltammetry durability | 1 |
| ORR LSV using rotating ring-disk electrode | 1 |
| cyclic voltammetry comparison | 1 |
| CV concentration calibration | 1 |
| differential pulse voltammetry calibration | 1 |
| spiked-recovery DPV and HPLC validation | 1 |
| ORR CV, RDE linear sweep voltammetry, Koutecky-Levich analysis | 1 |
| cyclic voltammetry and galvanostatic charge-discharge | 1 |
| two-electrode ASC CV, GCD, cycling and Ragone analysis | 1 |
| CV redox potentials in 0.2 M Na2SO4 | 1 |
| cyclic voltammetry (CV), three-electrode cell | 1 |
| CV and GCD, three-electrode | 1 |
| CV, GCD, cycling, and Ragone analysis, two-electrode HSC | 1 |
| CV of assembled ionic actuator | 1 |
| three-electrode CV and GCD | 1 |
| OER RDE LSV and Tafel benchmark | 1 |
| ORR RDE LSV and Tafel benchmark | 1 |
| ORR RDE/RRDE LSV, Tafel, Koutecky-Levich analysis | 1 |
| Cyclic voltammetry concentration series | 1 |
| two-electrode HSC CV/GCD/Ragone/cycling | 1 |
| OER LSV, Tafel, EIS, double-layer capacitance and chronoamperometric/cyclic stability | 1 |
| ORR CV, LSV, RDE, Tafel, Koutecky-Levich, cycling stability and chronoamperometry | 1 |
| OER LSV, Tafel, EIS, CV double-layer capacitance and ECSA analysis | 1 |
| ORR CV, LSV, rotating ring-disk electrode and Tafel analysis | 1 |
| accelerated CV ageing, Koutecky-Levich analysis and H2O2 selectivity | 1 |
| OER LSV, Tafel, EIS, and chronopotentiometry | 1 |
| Overall water splitting LSV and chronopotentiometry | 1 |
| Overall water splitting LSV | 1 |
| Arrhenius analysis of LSV-derived conductivity | 1 |
| Two-probe linear sweep voltammetry conductivity | 1 |
| Cyclic voltammetry for paraquat on cMOF-modified and bare GC electrodes | 1 |
| Differential pulse voltammetry paraquat sensing | 1 |
| CV redox peak separation comparison | 1 |
| CV and GCD of series/parallel supercapacitor packs | 1 |
| Cyclic voltammetry concentration response | 1 |
| DPV anti-interference/selectivity test | 1 |
| CV reproducibility and stability | 1 |
| Cyclic voltammetry (CV), asymmetric full cell | 1 |
| Two-electrode flexible asymmetric supercapacitor CV, GCD, EIS, Ragone, and 5000-cycle test | 1 |
| Flexibility and operating-temperature CV/GCD tests | 1 |
| CV, GCD, and EIS of MnO2 negative electrode | 1 |
| CV scan-rate series, GCD current series, EIS before/after cycling, 7000-cycle stability test | 1 |
| Cyclic voltammetry bare-ITO control | 1 |
| Linear sweep voltammetry and H-cell controlled-potential electrolysis | 1 |
| two-electrode asymmetric supercapacitor CV, GCD, Ragone, EIS and cycling | 1 |
| LSV durability comparison before and after cycling | 1 |
| DPV analytical calibration for CBZ | 1 |
| DPV standard addition in strawberry and cabbage extracts | 1 |
| DPV reproducibility, repeatability, and interference tests | 1 |
| DPV accumulation-time and electrodeposition-time optimisation | 1 |
| CV scan-rate analysis using Dunn theory | 1 |
| Two-electrode supercapacitor CV, GCD, rate and cycling tests | 1 |
| Two-electrode asymmetric supercapacitor CV, GCD and Ragone analysis | 1 |
| CV, GCD and cycling stability in a three-electrode setup | 1 |
| CV, GCD and EIS in a three-electrode setup | 1 |
| CV and GCD substrate control | 1 |
| Cyclic voltammetry of NOCA@CF as binder-free LIB anode | 1 |
| CV of Li2S6 symmetric cell | 1 |
| Differential pulse voltammetry, oxidation side | 1 |
| Differential pulse voltammetry, reduction side | 1 |
| CV/DPV control comparison of blank FTO, pristine NU-1000, and Ru-NU-1000 | 1 |
| Cyclic voltammetry of molecular Ru complex | 1 |
| Solid-state cyclic voltammetry, LiClO4 electrolyte | 1 |
| Solid-state cyclic voltammetry, n-Bu4NPF6 electrolyte | 1 |
| Ion-size-dependent solid-state CV used as porosity/selectivity probe | 1 |
| DPV standard addition in simulated blood serum | 1 |
| Solution-phase cyclic voltammetry | 1 |
| Cyclic voltammetry stability | 1 |
| Tafel polarisation / LSV | 1 |
| Three-electrode CV/GCD/EIS in 1 M KCl | 1 |
| Three-electrode GCD/CV/EIS in 1 M KCl | 1 |
| UV/visible absorption-derived band gap and cyclic voltammetry-derived HOMO; LUMO calculated | 1 |
| 2032 coin-cell LIB measurements; galvanostatic cycling, CV, EIS | 1 |
| 2032 coin-cell SIB measurements; galvanostatic cycling, CV, EIS | 1 |
| Stepwise CV and EIS | 1 |
| Square-wave voltammetry | 1 |
| SWV recovery in beer samples | 1 |
| SWV recovery in treated beer samples | 1 |
| SWV recovery in untreated beer samples | 1 |
| Intermittent SWV stability | 1 |
| SWV optimisation | 1 |
| Repeatability SWV across seven electrode batches | 1 |
| SWV selectivity/interference | 1 |
| Long-term storage stability by SWV | 1 |
| SWV calibration for T-2 toxin | 1 |
| OER CV cycling followed by chronoamperometry | 1 |
| BSH cyclic voltammetry potential-window test | 1 |
| CV comparison | 1 |
| CV rate test | 1 |
| Two-electrode asymmetric supercapacitor CV, GCD and cycling | 1 |
| CV kinetic analysis (b-value and capacitive/diffusion contribution) | 1 |
| CV sweep-rate kinetic analysis | 1 |
| CV sweep-rate kinetic analysis using i = a v^b and capacitive/diffusion separation | 1 |
| cyclic voltammetry, CHI 660D electrochemical workstation | 1 |
| Overall water splitting two-electrode LSV and stability | 1 |
| HER/OER LSV ratio-series comparison | 1 |
| cyclic voltammetry glucose oxidation | 1 |
| CV glucose oxidation current versus Co content | 1 |
| scan-rate-dependent CV kinetics | 1 |
| Electrochemical impedance spectroscopy and cyclic voltammetry | 1 |
| CCl4 reduction electrocatalysis by CV and UV-vis spectroelectrochemistry | 1 |
| CV, GCD and EIS of activated carbon electrode | 1 |
| Two-electrode battery-supercapacitor hybrid device CV, GCD and cycling | 1 |
| CV kinetic analysis, Dunn method, GCD rate testing and cycling stability | 1 |
| CV, galvanostatic charge-discharge and electrochemical impedance spectroscopy | 1 |
| Cyclic voltammetry and electrochemical impedance spectroscopy | 1 |
| CV double-layer capacitance-derived ECSA | 1 |
| homogeneous cyclic voltammetry | 1 |
| linear sweep voltammetry and first derivative analysis | 1 |
| scan-rate dependent cyclic voltammetry | 1 |
| post-electrolysis UV-vis, CV, PXRD, DRIFTS, and TEM-EDS stability checks | 1 |
| DPASV ratiometric calibration for simultaneous Cu2+, Pb2+ and Cd2+ | 1 |
| DPASV heavy-metal-ion peak assignment | 1 |
| DPASV experimental-condition optimisation | 1 |
| DPASV reproducibility across five parallel electrodes | 1 |
| DPASV river-water spike recovery with ICP-AES comparison | 1 |
| DPASV selectivity/interference test | 1 |
| DPASV storage stability | 1 |
| DPASV tap-water spike recovery | 1 |
| Cyclic voltammetry at different scan rates | 1 |
| Cyclic voltammetry for methanol oxidation reaction | 1 |
| Cyclic voltammetry for H2O2 oxidation response | 1 |
| Two-electrode ASC CV, GCD and EIS on CHI760e | 1 |
| Three-electrode cyclic voltammetry and galvanostatic charge-discharge | 1 |
| cyclic voltammetry and ECL intensity-time response | 1 |
| CV and electrochemical impedance spectroscopy (EIS) | 1 |
| ECL detection using CV in three-electrode system | 1 |
| EIS, CV, and DPV comparison of sole-ligand Cu-MOF aptasensors | 1 |
| Cyclic voltammetry (CV) and differential pulse voltammetry (DPV) | 1 |
| DPV calibration for S. aureus detection | 1 |
| EIS and DPV optimisation | 1 |
| EIS and DPV recovery tests in spiked food samples | 1 |
| EIS and DPV selectivity, reproducibility, storage-stability, and regeneration tests | 1 |
| Scan-rate-dependent CV and capacitive contribution analysis | 1 |
| Cyclic voltammetry plus Tauc plot | 1 |
| Cyclic voltammetry at various scan rates | 1 |
| CV and Randles-Sevcik analysis | 1 |
| DPV/CV optimisation | 1 |
| standard addition DPV in human serum and urine | 1 |
| standard addition DPV in low-dilution human serum and urine | 1 |
| DPV repeatability, reproducibility, stability and selectivity tests | 1 |
| cyclic voltammetry of intrinsic Cu redox transitions | 1 |
| chronoamperometry and CV optimisation | 1 |
| cyclic voltammetry during electrodeposition | 1 |
| CV/SWV pH dependence for paracetamol oxidation | 1 |
| real-sample SWV assay | 1 |
| reproducibility by SWV currents from five identically fabricated electrodes | 1 |
| SWV calibration versus synthesis time | 1 |
| CV, GCD, rate and cycling tests for AC cathode | 1 |
| Full-cell CV, GCD, Ragone and cycling tests | 1 |
| Two-electrode asymmetric-supercapacitor cyclic voltammetry | 1 |
| CV capacitive/diffusion contribution analysis | 1 |
| two-electrode supercapattery CV, GCD, Ragone and cycling | 1 |
| two-electrode supercapattery CV, GCD and cycling | 1 |
| Cyclic voltammetry of asymmetric cell | 1 |
| ECSA by CV double-layer capacitance and EIS Nyquist charge-transfer resistance | 1 |
| Three-electrode CV voltage-window screening for device electrodes | 1 |
| Cyclic voltammetry in three-electrode configuration | 1 |
| Cyclic voltammetry of asymmetric hybrid supercapacitor device | 1 |
| BMOF/ZnO-FTO film CV | 1 |
| BPDPNDI ligand CV | 1 |
| DFDNB CV | 1 |
| DNT CV | 1 |
| MV2+ CV | 1 |
| Cyclic voltammetry in three-electrode Swagelok cell | 1 |
| Cyclic voltammetry for LUMO/onset reduction potential | 1 |
| CV and galvanostatic charge-discharge in three-electrode configuration | 1 |
| Aqueous cyclic voltammetry | 1 |
| Cyclic voltammetry in DMF | 1 |
| Cyclic voltammetry of free linker in DMF | 1 |
| Cyclic voltammetry of SAM@FTO | 1 |
| cyclic voltammetry double-layer capacitance and ECSA | 1 |
| CV kinetics analysis | 1 |
| cyclic voltammetry (homogeneous linker) | 1 |
| cyclic voltammetry (MOF thin film) | 1 |
| LSV, Tafel analysis, CV, EIS and Cdl/ECSA analysis | 1 |
| Long-term storage stability CV | 1 |
| Recurrent cyclic voltammetry stability | 1 |
| HLIC CV, GCD, Ragone analysis and long-term cycling | 1 |
| cyclic voltammetry and electrochemical impedance spectroscopy | 1 |
| Scan-rate-dependent CV, power-law b-value and Dunn capacitive/diffusion separation | 1 |
| CV, galvanostatic cycling, rate performance, EIS and self-discharge control tests | 1 |
| Activated carbon electrode CV, GCD, EIS and capacity-current testing | 1 |
| Asymmetric supercapacitor CV, GCD, EIS, Ragone and cycling tests | 1 |
| CV scan-rate kinetics and capacitive/diffusion contribution analysis | 1 |
| CV and galvanostatic charge-discharge (GCD) | 1 |
| Cyclic voltammetry double-layer capacitance (Cdl) from scan-rate-dependent capacitive current | 1 |
| Turnover frequency calculated from LSV curves | 1 |
| DPV calibration for DON | 1 |
| Spiked wheat sample recovery by DPV aptasensor | 1 |
| OER cyclic voltammetry before CA treatment | 1 |
| Cyclic voltammetry of HTM and HTM/In10, SI Figure S5 caption only | 1 |
| Cyclic voltammetry at varied scan rates | 1 |
| b-value and capacitive/diffusion contribution analysis from CV curves | 1 |
| Hybrid supercapacitor CV, GCD, Ragone plot, and cycling | 1 |
| OER durability: post-CV LSV and chronoamperometry | 1 |
| Countercation-dependent CV and EIS redox conductivity | 1 |
| CV and GCD | 1 |
| Two-electrode hybrid supercapacitor CV/GCD/Ragone/cycling | 1 |
| Cyclic voltammetry with in situ transmittance | 1 |
| Electrochromic cycling stability and post-cycling spectroscopy/CV | 1 |
| CV response versus Cu3(HBC)2 modification concentration | 1 |
| HUVEC culture-medium DPV and cell assays | 1 |
| DPV monitoring of rutin hydrolysis | 1 |
| cyclic voltammetry pH dependence | 1 |
| CV/DPV response to quercetin metabolite | 1 |
| cyclic voltammetry scan-rate dependence | 1 |
| DPV determination of rutin in medicinal tablets | 1 |
| DPV serum recovery and chemiluminescence comparison | 1 |
| DPV specificity and reproducibility tests | 1 |
| RRDE LSV/selectivity in 0.1 M KOH | 1 |
| RRDE LSV/selectivity analogue comparison | 1 |
| linear sweep voltammetry and chronopotentiometry OER testing | 1 |
| Linear sweep voltammetry for HER across M23(M13.HAHATN)2 variants | 1 |
| Durability by repeated CV, chronoamperometry, post-test XRD/TEM/SEM | 1 |
| galvanostatic discharge-charge, cyclic voltammetry, rate capability, long-term cycling | 1 |
| CV scan-rate kinetics and Laviron analysis | 1 |
| intermittent DPV stability test | 1 |
| DPV standard addition in human urine | 1 |
| Cyclic voltammetry in pure ionic liquid [BMIM][TFSI] | 1 |
| Cyclic voltammetry in 3 M KCl aqueous electrolyte | 1 |
| EIS and cyclic voltammetry on CHI 660E workstation | 1 |
| Cyclic voltammetry used as conductivity evidence | 1 |
| LSV and chronoamperometry under varied KOH/KCl electrolyte composition | 1 |
| Cyclic voltammetry, chronoamperometric I-t response and linear sweep voltammetry | 1 |
| LSV and square-wave voltammetry | 1 |
| ASC CV and GCD | 1 |
| CV cycling comparison | 1 |
| activated carbon cyclic voltammetry | 1 |
| ASC cyclic voltammetry | 1 |
| cyclic voltammetry in three-electrode system | 1 |
| Symmetric-cell CV for LiPS catalysis | 1 |
| cyclic voltammetry and Dunn correction | 1 |
| square wave voltammetry (SWV) | 1 |
| linear sweep voltammetry (LSV) and Tafel analysis | 1 |
| Linear sweep voltammetry (LSV) for benzyl alcohol oxidation | 1 |
| CV, rotating disk linear sweep voltammetry and Koutecky-Levich analysis | 1 |
| Accelerated ageing test by cyclic voltammetry | 1 |
| Cyclic voltammetry effective-area analysis | 1 |
| SWV reproducibility, stability and specificity tests | 1 |
| Square wave voltammetry (SWV) | 1 |
| Cyclic voltammetry and charge-discharge testing | 1 |
| Asymmetric supercapacitor device CV, GCD, EIS, Ragone and cycling tests | 1 |
| cyclic voltammetry and Randles-Sevcik analysis | 1 |
| RRDE ORR voltammetry | 1 |
| Activated-carbon anode CV/GCD supporting curves | 1 |
| CR2025 lithium half-cell galvanostatic charge/discharge, CV and EIS | 1 |
| scan-rate-dependent cyclic voltammetry and log(i) versus log(v) fitting | 1 |
| Cyclic voltammetry (CV), scan-rate series | 1 |
| Cyclic voltammetry (CV), potential-window evaluation | 1 |
| HER linear sweep voltammetry (LSV) | 1 |
| CV cycling and chronopotentiometry | 1 |
| CV cycling and chronoamperometry | 1 |
| DPV sensing comparison on bare GCE | 1 |
| CV and differential pulse voltammetry (DPV) sensing of 5-HT, uric acid and caffeic acid | 1 |
| CV, GCD, strain-dependent capacitance and Ragone analysis of stretchable all-solid-state SC | 1 |
| CV kinetic b-value analysis | 1 |
| Cyclic voltammetry on glassy carbon electrode | 1 |
| CV deposition and chronoamperometry on GCE | 1 |
| Cyclic voltammetry (CV), SI bare Ni-foam control | 1 |
| Cyclic voltammetry (CV), asymmetric device | 1 |
| Two-electrode hybrid supercapacitor CV, GCD, Ragone and cycling tests | 1 |
| Linear sweep voltammetry (LSV), chopped and continuous | 1 |
| HER growth-time optimisation LSV | 1 |
| HER phosphating-temperature optimisation LSV and EIS | 1 |
| mass-normalised HER and OER LSV | 1 |
| OER growth-time optimisation LSV and EIS | 1 |
| OER phosphating-temperature optimisation LSV and EIS | 1 |
| overall water splitting two-electrode LSV | 1 |
| linear sweep voltammetry and cyclic voltammetry | 1 |
| LSV comparison | 1 |
| ENRR LSV and UV-vis NH3 test | 1 |
| solid-state voltammetry | 1 |
| CV and GCD blank-control testing | 1 |
| scan-rate CV / Dunn analysis | 1 |
| Cyclic voltammetry (CV) and Randles-Sevcik active-area calculation | 1 |
| Ratiometric DPV nitrite sensing using iNO2-/iTMB | 1 |
| Double-layer capacitance and ECSA from CV | 1 |
| cyclic voltammetry of ligand controls | 1 |
| Scan-rate-dependent cyclic voltammetry and capacitive/diffusion analysis | 1 |
| cyclic voltammetry in two-electrode BSH | 1 |
| PXRD after CV cycling/OER | 1 |
| accelerated CV cycling stability | 1 |
| CV analysis of non-catalytic [Co(bpy)3]3+ wave through inert Zn(NDI) film | 1 |
| steady-state catalytic cyclic voltammetry with [Co(bpy)3]3+ electron acceptor | 1 |
| background cyclic voltammetry on bare FTO | 1 |
| cyclic voltammetry of [Co(bpy)3]3+ on glassy carbon | 1 |
| cyclic voltammetry without [Co(bpy)3]3+ | 1 |
| postmortem X-ray diffraction after LSV | 1 |
| linear sweep voltammetry electrochemical stability window | 1 |
| CR2025 sodium-ion battery CV/GCD/cycling/rate tests | 1 |
| CV kinetic analysis and Dunn method | 1 |
| Lithium-ion battery cyclic voltammetry | 1 |
| Three-electrode cyclic voltammetry redox test | 1 |
| Cyclic voltammetry and UV-vis control measurements | 1 |
| GCD and CV of asymmetric supercapacitor | 1 |
| cyclic voltammetry scan-rate series for double-layer capacitance / ECSA | 1 |
| cyclic voltammetry in H2O2/PBS | 1 |
| CV/EIS/amperometric reproducibility, stability, repeatability, reliability, selectivity and serum recovery tests | 1 |
| Activated carbon negative-electrode CV, GCD, capacitance and Nyquist tests | 1 |
| Asymmetric supercapacitor CV and GCD | 1 |
| ASC supplementary potential-window CV and Nyquist testing | 1 |
| Cyclic voltammetry and galvanostatic charge-discharge for Zn2(bdc)2P | 1 |
| CV scan-rate Randles-Sevcik analysis | 1 |
| DPV and EIS | 1 |
| CV optimisation of MOF loading and Au electrodeposition time | 1 |
| DPV clinical serum comparison | 1 |
| DPV LPS calibration | 1 |
| DPV buffer-versus-serum matrix comparison | 1 |
| DPV spiked serum recovery | 1 |
| CV scan-rate series with Randles-Sevcik analysis | 1 |
| CV and ECL mechanism study | 1 |
| Cyclic voltammetry construction characterisation | 1 |
| Cyclic voltammetry on drop-cast thin films | 1 |
| Voltage disparity from OER and HER LSV curves | 1 |
| Cyclic voltammetry double-layer capacitance and ECSA calculation | 1 |
| Magnified LSV extrapolation onset-potential table | 1 |
| Two-electrode overall water-splitting LSV and chronoamperometry | 1 |
| Urea electrolysis LSV | 1 |
| CV, GCD and EIS for benzoic-acid series | 1 |
| CV, GCD and EIS for H2BDC series | 1 |
| CV, GCD and EIS for H3BTC series | 1 |
| Two-electrode HSC CV, GCD, EIS, Ragone and cycling | 1 |
| CV and Nyquist EIS comparison of slurry-based H2BDC-80 and binder-free H2BDC-80 | 1 |
| Cyclic voltammetry for ECSA/Cdl | 1 |
| Cycling durability LSV | 1 |
| CV scan-rate kinetic analysis | 1 |
| Cyclic voltammetry double-layer capacitance / ECSA proxy | 1 |
| OER durability by CV cycling and chronoamperometry | 1 |
| cyclic voltammetry with diquat redox mediator | 1 |
| cyclic voltammetry control electrodes with methyl viologen | 1 |
| cyclic voltammetry without redox mediator | 1 |
| solvent/electrolyte kinetic isotope effect by CV | 1 |
| Literature cyclic voltammetry/redox potentials cited for thermodynamic argument | 1 |
| Cyclic voltammetry using CHI 660 C Electrochemical Analyzer | 1 |
| Cyclic voltammetry and Randles-Sevcik diffusion coefficient analysis | 1 |
| CO2 electroreduction in H-type cell with LSV, chronoamperometry, GC, and 1H NMR product analysis | 1 |
| Cyclic voltammetry glucose sensing control | 1 |
| Current-voltage characteristics by cyclic voltammetry | 1 |
| LSV polarization in flow cell | 1 |
| double-layer capacitance from CV for ECSA proxy | 1 |
| cyclic voltammetry of asymmetric supercapacitor | 1 |
| cyclic voltammetry (CHI 660E, three-electrode) | 1 |
| Two-electrode solid-state FTSC testing; UV-vis transmittance; CV/GCD/EIS | 1 |
| Two-electrode solid-state MSC testing; UV-vis transmittance; GCD/CV/EIS; cycling and bending tests | 1 |
| CV/GCD ratio comparison | 1 |
| CV and GCD in three-electrode system | 1 |
| Solid-state cyclic voltammetry with cavity microelectrode | 1 |
| Cyclic voltammetry of NDI-py in DMF with glassy carbon working electrode | 1 |
| CV of blank current collector | 1 |
| Two-electrode symmetric supercapacitor CV and GCD | 1 |
| Cyclic voltammetry for glucose oxidation | 1 |
| Cyclic voltammetry at varied scan rate | 1 |
| Cyclic voltammetry glucose calibration in NaOH | 1 |
| Cyclic voltammetry comparison with PP cell | 1 |
| In situ XRD during cyclic voltammetry | 1 |
| Symmetric supercapacitor CV, GCD, and EIS with EMIM-BF4 ionic liquid electrolyte | 1 |
| Symmetric supercapacitor CV, GCD, and EIS with 1 M NEt4BF4/ACN electrolyte | 1 |
| Symmetric supercapacitor CV and GCD with neat A-CuHHTP pellet electrodes | 1 |
| Electrochemical impedance spectroscopy during CV cycling | 1 |
| Cyclic voltammetry, two-electrode asymmetric device | 1 |
| cyclic voltammetry, galvanostatic discharge-charge, cycling and rate performance | 1 |
| CV scan-rate analysis, GITT, and EIS | 1 |
| cyclic voltammetry and galvanostatic discharge-charge | 1 |
| CV and GCD, three-electrode AC control | 1 |
| Scan-rate-dependent CV and log(i)-log(v) b-value fitting | 1 |
| cyclic voltammetry kinetic analysis | 1 |
| full-cell CV, GCD, Ragone and cycling tests | 1 |
| post-CV XPS, CV and in situ Raman during charge-discharge | 1 |
| CC-CV charging state-of-charge versus time | 1 |
| double-layer capacitance from CV | 1 |
| OER LSV and chronoamperometry | 1 |
| OER LSV/Tafel comparator | 1 |
| ORR LSV/Tafel comparator | 1 |
| ORR CV, LSV, chronoamperometry and RRDE | 1 |
| glucose-concentration-dependent cyclic voltammetry | 1 |
| pH-dependent glucose CV/current response | 1 |
| long-term stability by cyclic voltammetry | 1 |
| Linear sweep voltammetry (LSV) and cyclic voltammetry (CV) | 1 |
| Stepwise CV, EIS and ECL characterisation of biosensor fabrication | 1 |
| ECL-potential profiles and cyclic voltammetry | 1 |
| CV and galvanostatic charge-discharge in symmetric two-electrode cells | 1 |
| Cyclic voltammetry in a three-electrode PFA Swagelok cell | 1 |
| Cyclic voltammetry with potassium salts of different anions | 1 |
| Cyclic voltammetry and capacitance-versus-scan-rate comparison across hydroxide electrolytes | 1 |
| Cyclic voltammetry in hydroxyl-free organic base electrolytes | 1 |
| Cyclic voltammetry in sodium phosphate buffered solutions with varied pH | 1 |
| Cyclic voltammetry using [Fe(CN)6]4-/3- redox probe. | 1 |
| Cyclic voltammetry with cationic redox probes of different molecular sizes. | 1 |
| Cyclic voltammetry of ATCh oxidation at AChE biosensors. | 1 |
| Cyclic voltammetry for acidic ORR activity | 1 |
| CR2032 half-cell K-ion battery galvanostatic charge-discharge, rate, cycling, CV | 1 |
| CR2032 half-cell K-ion battery galvanostatic charge-discharge, rate, cycling, CV, dQ/dV, EIS | 1 |
| Cyclic voltammetry of CTAB series | 1 |
| Two-probe I-V method by CV | 1 |
| Cyclic voltammetry kinetic analysis | 1 |
| cyclic voltammetry for ORR control | 1 |
| cyclic voltammetry for ORR | 1 |
| pH-dependent cyclic voltammetry / Pourbaix analysis | 1 |
| differential pulse adsorption stripping voltammetry (DPASV) | 1 |
| Cyclic voltammetry double-layer capacitance fitting | 1 |
| CV scan-rate and Laviron analysis | 1 |
| CV with ferricyanide/ferrocyanide redox probe | 1 |
| DPV analysis of MG in fish samples with ELISA comparison | 1 |
| Selective and competitive DPV tests | 1 |
| DPV feasibility comparison for MG | 1 |
| Non-ratiometric DPV calibration | 1 |
| DPV condition optimisation | 1 |
| Ratiometric DPV calibration | 1 |
| Repeated ratiometric DPV response | 1 |
| DPV recovery/real-sample analysis for water and shrimp | 1 |
| CV and GCD of symmetric two-electrode button cell | 1 |
| Cyclic voltammetry with electrochemical quartz crystal microbalance (EQCM) | 1 |
| Comparative RRDE-LSV | 1 |
| RRDE LSV and chronoamperometry | 1 |
| extended-window cyclic voltammetry | 1 |
| Capacitive CV-derived capacitance and ECSA | 1 |
| CV optimisation of Cu3(HHTP)2 loading | 1 |
| CV and galvanostatic charge-discharge in R2032 coin cells | 1 |
| CV, GCD cycling, EIS and rate testing of Zn@DDA-Cu||NVO full cells | 1 |
| EIS, Tafel linear polarisation, and LSV in symmetric cells | 1 |
| 6OH-TBC ligand CV/GCD/EIS/cycling control | 1 |
| Two-electrode Cu-TBC//AC CV and GCD | 1 |
| OER LSV/polarisation, Tafel, EIS, CV-derived Cdl/ECSA and chronopotentiometry | 1 |
| Cyclic voltammetry, two-electrode hybrid device | 1 |
| RDE linear sweep voltammetry and Koutecky-Levich analysis | 1 |
| RDE linear sweep voltammetry and chronoamperometry benchmark | 1 |
| cyclic voltammetry for BPA and BPS | 1 |
| cyclic voltammetry scan-rate study and Laviron analysis | 1 |
| CV response comparison of M-HHTP controls | 1 |
| CV optimisation of pH, Fe-HHTP concentration, deposition potential, and deposition time | 1 |
| CR2032 Li-ion coin cells; CV, galvanostatic charge-discharge, EIS | 1 |
| CR2032 Li-S coin cells; CV, galvanostatic charge-discharge, rate capability, EIS, diffusion coefficient from Randles-Sevcik | 1 |
| cyclic voltammetry of Li-S cell | 1 |
| symmetric-cell CV and LSV/Tafel | 1 |
| Li+ transfer number and CV-derived diffusion coefficient | 1 |
| Electrochemical impedance spectroscopy and double-layer capacitance CV | 1 |
| Dunn method CV scan-rate analysis | 1 |
| cyclic voltammetry in CR2032 Li half-cell | 1 |
| Cyclic voltammetry (CV) at different scan rates | 1 |
| Stepwise cyclic voltammetry (CV) | 1 |
| DPV detection in total RNA extracted from L02 and MCF-7 cells | 1 |
| DPV calibration for simultaneous miRNA-21 and miRNA-141 | 1 |
| DPV calibration for miRNA-21 | 1 |
| DPV optimisation of sensor construction variables | 1 |
| DPV calibration for miRNA-21 using Fc single signal | 1 |
| DPV calibration for miRNA-21 using MB single signal | 1 |
| Cyclic voltammetry for glucose response | 1 |
| Glucose CV scan-rate study | 1 |
| Cyclic voltammetry for H2O2 response | 1 |
| H2O2 CV scan-rate study | 1 |
| differential pulse voltammetry (DPV) calibration for NIF | 1 |
| DPV optimisation of coating concentration, coating amount, and pH | 1 |
| DPV reproducibility, storage stability, and selectivity tests | 1 |
| real sample DPV assay of NIF tablets with HPLC comparison | 1 |
| RRDE linear sweep voltammetry and H2O2 selectivity calculation | 1 |
| CV and DPV | 1 |
| DPV concentration calibration | 1 |
| DPV peak current optimisation | 1 |
| DPV pH/interference testing | 1 |
| DPV repeatability | 1 |
| DPV/CV/EIS variant performance | 1 |
| Amperometric/DPV dopamine detection in wearable patch context | 1 |
| DPV detection of AA and UA | 1 |
| DPV for physiological dopamine range | 1 |
| DPV anti-interference test | 1 |
| photocurrent, EIS, LSV, CV, and Mott-Schottky electrochemical analysis | 1 |
| CV, LSV and EIS | 1 |
| Rotating disk electrode linear sweep voltammetry; Koutecky-Levich analysis | 1 |
| Cyclic voltammetric stability scan plus SEM/XRD checks | 1 |
| bulk/grinding homogeneity CV/EIS | 1 |
| CV scan-rate AA sensing | 1 |
| H-type cell CO2 electroreduction, LSV and constant-potential chronoamperometry with GC product analysis | 1 |
| Deposition-volume optimisation by CV | 1 |
| Differential pulse voltammetry pH optimisation | 1 |
| Differential pulse voltammetry (DPV) calibration for imidacloprid | 1 |
| Repeatability by consecutive CV measurements | 1 |
| Cyclic voltammetry in ferricyanide/ferrocyanide redox system | 1 |
| Cyclic voltammetry with [Ru(bpy)3]2+ | 1 |
| CV and ECL control measurements with HHTP film | 1 |
| Cyclic voltammetry double-layer capacitance fitting for ECSA comparison | 1 |
| CV cycling durability and post-test SEM/XRD | 1 |