Tafel slopes, potentiodynamic polarisation and Koutecky-Levich kinetic analyses.
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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 · 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 · Tafel slope comparison in H-cell CO2RR.
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 · 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 · Corrosion potential from polarization curve; figure axis labelled Potential (V vs. Ag/AgCl).
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 · Corrosion potential from polarization curve; figure axis labelled Potential (V vs. Ag/AgCl).
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 · Corrosion potential from polarization curve; figure axis labelled Potential (V vs. Ag/AgCl).
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 · 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 · 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 · 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 · 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 · Ultrathin 2D metal-organic framework nanosheet arrays to boost the overall efficiency of water splitting
TIT-1@NS/NF · Electrode · Potential versus log(j) analysis for HER kinetics.
2025 · Ultrathin 2D metal-organic framework nanosheet arrays to boost the overall efficiency of water splitting
TIT-1@NS/NF · Electrode · Potential versus log(j) analysis for OER kinetics.
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 · Linear fitting of Tafel plot straight segments; overpotential versus log current density.
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 · 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 · 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 · 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 · Efficient oxygen evolution using conductive cobalt-based metal-organic framework
Co3O4 control catalyst ink on conductive carbon paper · Electrode · Tafel plot derived from OER polarisation data in 1 M KOH.
2024 · Efficient oxygen evolution using conductive cobalt-based metal-organic framework
Co-BTB catalyst ink on conductive carbon paper · Electrode · Tafel plot derived from OER polarisation data in 1 M KOH.
2024 · Efficient oxygen evolution using conductive cobalt-based metal-organic framework
IrO2 benchmark electrode · Electrode · Tafel plot derived from OER polarisation data in 1 M KOH.
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 · LSV at rotating speeds from 400 to 2500 rpm; electron-transfer number calculated from K-L plots.
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 · LSV at rotating speeds from 400 to 2500 rpm; electron-transfer number calculated from K-L plots.
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 · LSV at rotating speeds from 400 to 2500 rpm; electron-transfer number calculated from K-L plots.
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 · LSV at rotating speeds from 400 to 2500 rpm; electron-transfer number calculated from K-L plots.
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 · LSV at rotating speeds from 400 to 2500 rpm; electron-transfer number calculated from K-L plots.
2024 · Enhancement of the performance of Ge–air batteries under high temperatures using conductive MOF-modified Ge anodes
bare Ge anode · Electrode · Bare Ge corrosion behaviour in 6 M KOH gel electrolyte.
2024 · Enhancement of the performance of Ge–air batteries under high temperatures using conductive MOF-modified Ge anodes
Ge@Ni3(HITP)2 anode · Electrode · Corrosion behaviour in 6 M KOH gel electrolyte.
2024 · Multimetallic Prussian Blue Analogue Nanoparticles for Oxygen Evolution Reaction and Efficient Benzyl Alcohol Oxidation
MnFeCoNiCu-PBA@carbon cloth working electrode · Electrode · Tafel slope determined at potential where current density reached up to 10 mA cm-2
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 · Regulating Electronic Structure of Bimetallic NiFe-THQ Conductive Metal–Organic Frameworks to Boost Catalytic Activity for Oxygen Evolution Reaction
NixFe1-x-THQ series · Powder · Tafel plots from low-overpotential portions of OER polarisation curves.
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 · 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.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Por(Co)-MOF · Powder · Tafel plots calculated from corresponding overpotentials versus log|jCO| in 0.5 M KHCO3.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-MOF · Powder · Tafel plots calculated from corresponding overpotentials versus log|jCO| in 0.5 M KHCO3.
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 · Tafel plots calculated from corresponding overpotentials versus log|jCO| in 0.5 M KHCO3.
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 · Tafel plots calculated from corresponding overpotentials versus log|jCO| in 0.5 M KHCO3.
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 · Tafel plots calculated from corresponding overpotentials versus log|jCO| in 0.5 M KHCO3.
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 · Tafel plots calculated from corresponding overpotentials versus log|jCO| in 0.5 M KHCO3.
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 · Creating Dual Active Sites in Conductive Metal-Organic Frameworks for Efficient Water Splitting
RuCo-CAT/CC nanorod arrays · Electrode · Tafel slopes from HER LSV data in 1.0 M KOH.
2023 · Creating Dual Active Sites in Conductive Metal-Organic Frameworks for Efficient Water Splitting
RuCo-CAT/CC nanorod arrays · Electrode · Tafel slopes from OER LSV data in 1.0 M KOH.
2023 · Electrically conductive Pt-MOFs for acidic oxygen reduction: Optimized performance via altering conjugated ligands
Pt3(C12N6O6)2 MOF RRDE electrode · Electrode · Tafel plot comparing Pt3(C12N6O6)2 MOF and Pt/C in acidic ORR conditions.
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 · Tafel slopes from OER polarisation curves
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 · 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 · 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 · Tafel slopes derived from HER polarisation curves 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 · Tafel slopes derived from OER polarisation curves in 1.0 M KOH.
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 · 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 · 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 · 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
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 · 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
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 · 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 · Tafel slope derived from OER polarisation data in 0.1 M KOH.
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 · Tafel slope derived from OER polarisation data in 0.1 M KOH.
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 · 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 · 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 · 1 M KOH, room temperature, three-electrode set-up, graphite rod counter, Hg/HgO reference; curves with 85% iR compensation unless otherwise stated.
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 · 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 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Co-BTC/CFP HER electrode · Electrode · Tafel slopes obtained from HER polarisation curves in 0.5 M H2SO4.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Cu-BTC/CFP HER electrode · Electrode · Tafel slopes obtained from HER polarisation curves in 0.5 M H2SO4.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Co-BTC/CFP HER electrode · Electrode · Supplementary Fig. S4; 0.5 M H2SO4 HER, graphitic rod as counter electrode at 10 mV s-1, compared with Pt-paper CE trend.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Cu-BTC/CFP HER electrode · Electrode · Supplementary Fig. S4; 0.5 M H2SO4 HER, graphitic rod as counter electrode at 10 mV s-1, compared with Pt-paper CE trend.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Ni-BTC/CFP HER electrode · Electrode · Supplementary Fig. S4; 0.5 M H2SO4 HER, graphitic rod as counter electrode at 10 mV s-1, compared with Pt-paper CE trend.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Ni-BTC/CFP HER electrode · Electrode · Tafel slopes obtained from HER polarisation curves in 0.5 M H2SO4.
2021 · Facile synthesis of Ni-, Co-, Cu-metal organic frameworks electrocatalyst boosting for hydrogen evolution reaction
Commercial 20 wt% Pt/C HER benchmark electrode · Electrode · Commercial 20 wt% Pt/C benchmark in 0.5 M H2SO4.
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 · Tafel slopes derived from ORR polarisation in 0.1 M KOH.
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 · Br-Ni MOF and Ni MOF compared for Tafel slopes and FE evolution; Br-Ni MOF operated for 15 h ORR durability testing.
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 · Tafel slopes derived from OER polarization data in oxygen-saturated 1.0 M KOH.
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 · Tafel slopes derived from OER polarization data in oxygen-saturated 1.0 M KOH.
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 · Tafel slopes derived from OER polarization data in oxygen-saturated 1.0 M KOH.
2021 · Structural and electronic modulation of conductive MOFs for efficient oxygen evolution reaction electrocatalysis
NiPc-Fe/acetylene black/Nafion on glassy carbon electrode · Electrode · Tafel slopes derived from OER polarization data in oxygen-saturated 1.0 M KOH.
2021 · Structural and electronic modulation of conductive MOFs for efficient oxygen evolution reaction electrocatalysis
NiPc-Ni/acetylene black/Nafion on glassy carbon electrode · Electrode · Tafel slopes derived from OER polarization data in oxygen-saturated 1.0 M KOH.
2021 · Truxone-Based Conductive Metal-Organic Frameworks for the Oxygen Reductive Reaction
truxone-Cu MOF-modified GC electrode · Electrode · K-L from 0.4, 0.45 and 0.5 V polarization curves; Tafel at 1500 rpm; stability at 0.65 V for 10000 s in O2-saturated 0.1 M KOH.
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(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
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 · Electrochemical Transformation of Metal Organic Framework into Ultrathin Metal Hydroxide-(oxy)hydroxide Nanosheets for Alkaline Water Oxidation
CF-2 · Electrode · Tafel plots comparing CF-1, CF-2, CF-3, and CF-4
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
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@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 · Highly Dispersed MoO2Nanoparticles Confined in N-Doped Porous Carbon Nanosheets for Efficient Hydrogen Evolution in Alkaline Media
MoO2 NPs@N-C NSs/NF · Electrode · Tafel slopes derived from HER polarisation data in 1.0 M KOH.
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 · TOF calculated at 1.63 V vs RHE using J*A/(4*n*F); Tafel plots from OER polarisation curves.
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.
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 · 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 · Copper-based conductive metal organic framework in-situ grown on copper foam as a bifunctional electrocatalyst
Cu3HITP2/CF · Electrode · Tafel slopes calculated from eta = b log j + a for OER LSV data in 1.0 mol L-1 KOH.
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
Pure carbon paper · Electrode · Pure carbon paper control in 0.5 M H2SO4; scan rate 1 mV s^-1 for HER polarisation.
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 · 0.5 M H2SO4, scan rate 1 mV s^-1; three-electrode system; N2 bubbled for 30 min; potentials converted to RHE.
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 · 0.5 M H2SO4, scan rate 1 mV s^-1; three-electrode system; N2 bubbled for 30 min; potentials converted to RHE.
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 · 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 · Tafel slope calculated from E = a + b * log j using OER LSV data in 1.0 M KOH.
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.
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 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ir/C (20 wt% Ir) · Electrode · Tafel slope from OER polarisation data, Fig. 5d.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-O · Powder · Tafel slope from OER polarisation data, Fig. 5d.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
NiFe-PBA · Powder · Tafel slope from OER polarisation data, Fig. 5d.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-Se1:1-180 · Powder · Tafel slope from OER polarisation data, Fig. 5d.
2018 · Modular O2 electroreduction activity in triphenylene-based metal-organic frameworks
Ni3(HITP)2/Nafion-modified glassy carbon electrode · Electrode · j0 values tabulated from activation-controlled ORR Tafel fits in pH 8 and pH 13.
2018 · Modular O2 electroreduction activity in triphenylene-based metal-organic frameworks
Ni3(HITP)2/Nafion-modified glassy carbon electrode · Electrode · pH 8 and pH 13 ORR; CV under N2 and O2, potentiostatic steps over ORR window, rotation speeds 625, 816 and 1189 rpm.
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 · 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.
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 · 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 · 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 · pH 13 and pH 8 electrolytes under O2; pH 8 potentiostatic measurements -100 to -290 mV vs Ag/AgCl with varying rotation speeds
2017 · Ultrathin metal-organic framework array for efficient electrocatalytic water splitting
NiFe-MOF/NF ultrathin nanosheet array electrode · Electrode · Tafel plots derived from OER LSVs and steady-state tests in 0.1 M KOH.
2016 · Electrochemical oxygen reduction catalysed by Ni3 (hexaiminotriphenylene)2
Ni3(HITP)2 thin film on glassy carbon electrode · Electrode · Rotating disk measurements at multiple rotation rates; 0.10 M KOH; O2 atmosphere.
2016 · Hollow Cobalt-Based Bimetallic Sulfide Polyhedra for Efficient All-pH-Value Electrochemical and Photocatalytic Hydrogen Evolution
hollow Zn0.30Co2.70S4 · Powder · Tafel plots from HER polarisation curves in 0.5 M H2SO4; exchange current density from extrapolation.
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, 194 ug cm^-2 Co(OH)2 loading · Electrode · 1 M NaOH, scan rate 10 mV s^-1; mass loading 194 ug cm^-2.
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, 294 ug cm^-2 Co(OH)2 loading · Electrode · 1 M NaOH, scan rate 10 mV s^-1; mass loading 294 ug cm^-2.
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, 389 ug cm^-2 Co(OH)2 loading · Electrode · 1 M NaOH, scan rate 10 mV s^-1; mass loading 389 ug cm^-2.
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-P electrode · Electrode · 1 M NaOH, scan rate 10 mV s^-1; powder-cast ZIF-67 control vs in-situ ZIF-67.
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, 4 h ZIF-67 reaction · Electrode · 1 M NaOH, scan rate 10 mV s^-1; ZIF-67 reaction time 4 h.
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 rate 10 mV s^-1; ZIF-67 reaction time 6 h.
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, 8 h ZIF-67 reaction · Electrode · 1 M NaOH, scan rate 10 mV s^-1; ZIF-67 reaction time 8 h.
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 · Derived from OER polarisation curves in 1 M NaOH.
2016 · In-situ Growth of Ultrathin ZIF-67 Nanosheets on Conductive Ti@TiO2/CdS Substrate for High-efficient Electrochemical Catalysis
Ti/CdS/ZIF-67 electrode · Electrode · 1 M NaOH, scan rate 10 mV s^-1; Ti/CdS/ZIF-67 vs Ti@TiO2/CdS/ZIF-67 support comparison.
2016 · In-situ Growth of Ultrathin ZIF-67 Nanosheets on Conductive Ti@TiO2/CdS Substrate for High-efficient Electrochemical Catalysis
Ti@TiO2/ZIF-67 electrode · Electrode · 1 M NaOH, scan rate 10 mV s^-1; Ti@TiO2/ZIF-67 vs Ti@TiO2/CdS/ZIF-67 CdS comparison.
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
FTO_Ni-S · Electrode · Aqueous 0.1 M HCl, pH 1; MOF-free FTO_Ni-S control.
2015 · A porous proton-relaying metal-organic framework material that accelerates electrochemical hydrogen evolution
FTO_NU-1000 · Electrode · Aqueous 0.1 M HCl, pH 1; pristine FTO_NU-1000 without Ni-S.
2015 · A porous proton-relaying metal-organic framework material that accelerates electrochemical hydrogen evolution
NU-1000_Ni-S · Electrode · Aqueous 0.1 M HCl, pH 1; three-electrode cell; potentials adjusted to RHE and iR-corrected.
No mapped measurement matches these filters.
These are the exact source-preserving method strings consolidated by this technique group.
| Raw method label | Mapped measurements |
|---|---|
| Tafel analysis | 15 |
| RDE OER electrochemistry: LSV, Tafel, CV Cdl, EIS | 12 |
| OER polarisation and Tafel analysis | 10 |
| Tafel analysis from LSV | 7 |
| LSV and Tafel analysis | 7 |
| OER LSV and Tafel analysis | 7 |
| LSV and Tafel analysis for OER | 7 |
| linear sweep voltammetry and Tafel analysis | 6 |
| Tafel analysis for CO production | 6 |
| HER linear sweep voltammetry and Tafel analysis | 6 |
| OER RDE LSV and Tafel analysis | 5 |
| RDE Koutecky-Levich analysis | 5 |
| Tafel slope estimation | 5 |
| OER Tafel analysis | 4 |
| ORR RDE LSV and Tafel analysis | 4 |
| OER linear sweep voltammetry and Tafel analysis | 4 |
| Tafel analysis from HER LSV curves | 4 |
| Tafel analysis from HER polarisation curves | 4 |
| Potentiodynamic polarization | 3 |
| HER polarisation and Tafel analysis | 3 |
| HER Tafel analysis | 3 |
| HER J-V curves and Tafel plots | 3 |
| Tafel analysis from HER polarisation curves using graphitic rod counter electrode | 3 |
| Tafel analysis derived from CV curves | 2 |
| Tafel analysis for OER | 2 |
| Tafel analysis derived from LSV | 2 |
| HER LSV, Tafel, and EIS | 2 |
| HER LSV, Tafel, EIS, and chronopotentiometry | 2 |
| Li-S battery CV and Tafel | 2 |
| Linear sweep voltammetry and Tafel analysis | 2 |
| HER LSV and Tafel analysis | 2 |
| Tafel analysis from LSV curves | 2 |
| potentiodynamic polarization / Tafel curve | 2 |
| Linear sweep voltammetry Tafel analysis | 2 |
| Koutecky-Levich analysis and activation-controlled Tafel plot | 1 |
| powder Cu3HITP2 ORR rotating-electrode LSV and Tafel analysis | 1 |
| OER LSV, Tafel, EIS, Cdl and chrono-stability testing | 1 |
| HER LSV and Tafel analysis on on-chip micro-electrochemical device | 1 |
| OER CV, LSV, Tafel and chronopotentiometry | 1 |
| ORR Tafel analysis | 1 |
| TOF calculation and Tafel analysis | 1 |
| Tafel analysis from OER LSV | 1 |
| Exchange current density derived from Tafel equations | 1 |
| Activation-controlled Tafel analysis from Koutecky-Levich data | 1 |
| Tafel analysis from polarisation curves | 1 |
| three-electrode OER; LSV, Tafel, EIS, chronoamperometry and double-layer capacitance | 1 |
| OER LSV/Tafel/EIS/Cdl controls | 1 |
| OER LSV/Tafel/EIS/Cdl/stability | 1 |
| Koutecky-Levich analysis, Tafel plot and chronoamperometric stability. | 1 |
| ORR CV, RDE linear sweep voltammetry, Koutecky-Levich analysis | 1 |
| OER RDE LSV and Tafel benchmark | 1 |
| ORR RDE LSV and Tafel benchmark | 1 |
| ORR RDE/RRDE LSV, Tafel, Koutecky-Levich analysis | 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 |
| Tafel polarisation / LSV | 1 |
| Tafel analysis and exchange-current extrapolation | 1 |
| LSV, Tafel analysis, CV, EIS and Cdl/ECSA analysis | 1 |
| linear sweep voltammetry (LSV) and Tafel analysis | 1 |
| Tafel analysis from OER polarisation | 1 |
| CV, rotating disk linear sweep voltammetry and Koutecky-Levich analysis | 1 |
| OER LSV/Tafel comparator | 1 |
| ORR LSV/Tafel comparator | 1 |
| Tafel analysis for ORR | 1 |
| activation-controlled Tafel analysis | 1 |
| EIS, Tafel linear polarisation, and LSV in symmetric cells | 1 |
| OER LSV/polarisation, Tafel, EIS, CV-derived Cdl/ECSA and chronopotentiometry | 1 |
| RDE linear sweep voltammetry and Koutecky-Levich analysis | 1 |
| symmetric-cell CV and LSV/Tafel | 1 |
| Tafel analysis, chronoamperometry, and post-durability RRDE comparison | 1 |
| Rotating disk electrode linear sweep voltammetry; Koutecky-Levich analysis | 1 |