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2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CH composite working electrode · Electrode · 0.1 A g^-1, 0.01-3.0 V, CH electrode.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CNH composite working electrode · Electrode · 0.1 A g^-1, 0.01-3.0 V, CNH electrode.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CH composite working electrode · Electrode · First three cycles at 0.1 A g^-1 in 0.01-3.0 V window.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CNH composite working electrode · Electrode · First three cycles at 0.1 A g^-1 in 0.01-3.0 V window.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CNH high-loading composite electrode · Electrode · 0.1 A g^-1 with active substance loading 1.13 mg cm^-2.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CH composite working electrode · Electrode · 600 cycles at 1 A g^-1 in 0.01-3.0 V; detailed plot in SI Fig. S9.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CNH composite working electrode · Electrode · 600 cycles at 1 A g^-1 in 0.01-3.0 V.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CNH (1:1) composite working electrode · Electrode · 0.1 A g^-1, 0.01-3.0 V ratio-series comparison in SI; numeric plot values not available.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CNH (3:1) composite working electrode · Electrode · 0.1 A g^-1, 0.01-3.0 V ratio-series cycling comparison in SI Fig. S6.
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 · 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
Zn-doped Ni/Fe-MOF//AC ASC device · Electrode · 5000 consecutive GCD cycles at 10 A g-1 in 2 M KOH
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
Zn-doped Ni/Fe-MOF-derived material on glassy carbon electrode · Electrode · 2000 consecutive GCD cycles at 10 A g-1 in 2 M KOH
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 · 2 M KOH; 0.0-0.6 V vs Ag/AgCl; current densities 1-10 A g-1
2026 · Structure–Property Engineering of Redox-Active Tetrathiafulvalene- and Bipyridine-Based Metal–Organic Frameworks for Battery Cathodes
Cd2(TTFTB) MOF cathode · Electrode · CR2032 Li cell; 1.0 M LiPF6 in EC/DEC (1:1); 1.5-4.2 V vs Li+/Li; 100 mA g^-1; RT; charging first
2026 · Structure–Property Engineering of Redox-Active Tetrathiafulvalene- and Bipyridine-Based Metal–Organic Frameworks for Battery Cathodes
H4TTFTB ligand cathode · Electrode · Literature H4TTFTB control under same 100 mA g^-1 LIB comparison
2026 · Structure–Property Engineering of Redox-Active Tetrathiafulvalene- and Bipyridine-Based Metal–Organic Frameworks for Battery Cathodes
TTF-hybrid-MOF cathode · Electrode · CR2032 Li cell; 1.0 M LiPF6 in EC/DEC (1:1); 1.5-4.2 V vs Li+/Li; 100 mA g^-1; RT; charging first
2026 · Structure–Property Engineering of Redox-Active Tetrathiafulvalene- and Bipyridine-Based Metal–Organic Frameworks for Battery Cathodes
Cd2(TTFTB) MOF cathode · Electrode · CR2032 Na cell; 1.0 M NaClO4 in EC/PC (1:1); 1.0-4.2 V vs Na+/Na; 100 mA g^-1; RT; charging first
2026 · Structure–Property Engineering of Redox-Active Tetrathiafulvalene- and Bipyridine-Based Metal–Organic Frameworks for Battery Cathodes
H4TTFTB ligand cathode · Electrode · Literature H4TTFTB control under same 100 mA g^-1 SIB comparison
2026 · Structure–Property Engineering of Redox-Active Tetrathiafulvalene- and Bipyridine-Based Metal–Organic Frameworks for Battery Cathodes
TTF-hybrid-MOF cathode · Electrode · CR2032 Na cell; 1.0 M NaClO4 in EC/PC (1:1); 1.0-4.2 V vs Na+/Na; 100 mA g^-1; RT; charging first
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-N2-OHBA composite working electrode · Electrode · three-electrode Li2SO4 electrolyte; variable current density; -0.5 to 0.5 V
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 · Tailoring Li-ion Storage and Transport in Two-Dimensional Conjugated Metal-Organic Frameworks via Precise Nitrogen Incorporation
Cu-N4-OHBA composite working electrode · Electrode · three-electrode Li2SO4 electrolyte; variable current density; -0.5 to 0.5 V
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 Tetrathiafulvalene-Based Metal–Organic Framework Linked by Hydrogen Bonding for Boosting Long-Cycle Stability of Lithium-Ion Batteries
Prelithiated m-TTFTB-Co-MOF||LiFePO4 full cell · Electrode · Prelithiated m-TTFTB-Co-MOF negative electrode and LiFePO4 positive electrode; full battery cycled at 0.2 A g^-1 for 40 cycles.
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 coin-cell LIB, m-TTFTB-Co-MOF active anode material, voltage window 0.01-3.0 V; initial cycle at 0.1 A g^-1 and cycling reported at 0.2 A g^-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 anode electrode in coin cell · Electrode · m-TTFTB-Co-MOF electrode tested at 0.2, 0.5, 1.0, 2.0, 5.0 and 10 A g^-1, then returned to 0.2 A g^-1.
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 ligand LIB cathode control · Electrode · DDA molecular cathode control at 0.05 A g^-1
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 · E/AM = 7.8 uL mg^-1; 0.05 A g^-1
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 · CR2032 half cells; Li metal counter; 4 M LiTFSI in DOL:DME 1:1; standard/excess electrolyte; 0.05 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 · Zn@DDA-Cu anode, DDA-Cu cathode, 3.5 M Zn(CF3SO3)2 electrolyte, 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
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
Zn@DDA-Cu-1 · Electrode · Zn@DDA-Cu-1 and Zn@DDA-Cu-2 at 0.5 mA cm-2/0.5 mAh cm-2 and 1 mA cm-2/1 mAh cm-2.
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@DDA-Cu||Zn@DDA-Cu versus Zn||Zn at 0.5 mA cm-2/0.5 mAh cm-2, 1 mA cm-2/1 mAh cm-2, 5 mA cm-2/1 mAh cm-2, and rate testing 0.5-5 mA cm-2.
2025 · A novel 2D conductive MOF nanobelts for highly efficient electrosynthesis of hydrogen peroxide
Ni-PTC-60 flow-cell gas-diffusion electrode · Electrode · 1.0 cm2 working electrode; 10 mL 0.1 M KOH in cathode and anode compartments; electrolyte circulation 5 mL min-1; O2 flow 20 mL min-1.
2025 · Bimetal MOF nanosheets as efficient anode materials for lithium-ion batteries
CoxFe1-x-MOF powder/nanosheet series · Nanosheet · CoxFe1-x-MOF electrodes cycled at 0.1 A g-1 for 200 cycles.
2025 · Bimetal MOF nanosheets as efficient anode materials for lithium-ion batteries
Co1/2Fe1/2-MOF LIB anode electrode · Electrode · CR2032 Li half-cells; voltage range 0.01-3.0 V vs Li/Li+; active mass basis; selected cycles and cycling at 0.1 A g-1.
2025 · Bimetal MOF nanosheets as efficient anode materials for lithium-ion batteries
Co1/2Fe1/2-MOF LIB anode electrode · Electrode · Co1/2Fe1/2-MOF electrode tested at 2 A g-1 for 1000 cycles; text reports capacity after 500 cycles.
2025 · Bimetal MOF nanosheets as efficient anode materials for lithium-ion batteries
CoxFe1-x-MOF powder/nanosheet series · Nanosheet · Specific capacities measured at current densities from 0.1 to 2 A g-1; returned to 0.1 A g-1 for Co1/2Fe1/2-MOF.
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 various separators measured at 0.05 C, sulfur loading 1 mg cm-2.
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 · 0.5 C for 1000 cycles, sulfur loading 1 mg cm-2, E/S = 20 uL mg-1.
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 · 0.2 A g-1 cycling for VO, VO@Cu-HHTP-1, VO@Cu-HHTP-2, and VO@Cu-HHTP-3.
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 · 10 A g-1 long-cycle stability for VO, VO@Cu-HHTP-1, VO@Cu-HHTP-2, and VO@Cu-HHTP-3.
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||VO@Cu-HHTP-2 cathode at 1 A g-1 for 2000 cycles; Figure 3h also reports low-temperature context in 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 · Discharge at 0.2 A g-1 and charge at 5 A g-1 in Zn||VO@Cu-HHTP-2 coin batteries.
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 · Zn2+ diffusion coefficient comparison between VO@Cu-HHTP-2 and VO.
2025 · Conductive Metal–Organic Frameworks Anchoring on V3O7·H2O Nanobelts Toward High-Capacity and Long-Life Zinc-Ion Batteries
Zn||VO@Cu-HHTP-2 pouch battery · Electrode · Flexible pouch batteries tested at bending angles 0, 90, 180, 270, 360 degrees and restored state; GCD at 1 A g-1.
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||VO@Cu-HHTP-2 coin cells at 0.2, 0.5, 1, 3, 5, 7, and 10 A g-1, then returned to 0.2 A g-1.
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 · Engineering the structures of ZnCo-MOFs via a ligand effect for enhanced supercapacitor performance
ZnCo-MOF-ABDC/Ni-foam working electrode · Electrode · 5000 cycles at 10 A g^-1 in 6 M KOH.
2025 · Engineering the structures of ZnCo-MOFs via a ligand effect for enhanced supercapacitor performance
ZnCo-MOF-BDC/Ni-foam working electrode · Electrode · 5000 cycles at 10 A g^-1 in 6 M KOH.
2025 · Engineering the structures of ZnCo-MOFs via a ligand effect for enhanced supercapacitor performance
ZnCo-MOF-HMIM/Ni-foam working electrode · Electrode · 5000 cycles at 10 A g^-1 in 6 M KOH.
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 · 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; 0.0-0.4 V; specific currents 1-10 A g^-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; 0.0-0.4 V; specific currents 1-10 A g^-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; 0.0-0.4 V; specific currents 1-10 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 · 5000 cycles at 5 A g-1 in three-electrode configuration.
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 · 5000 cycles at 5 A g-1 in three-electrode configuration.
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 · 5000 cycles at 5 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 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 · Enhancing electrochemical hydrogen storage in nickel-based metal-organic frameworks (MOFs) through zinc and cobalt doping as bimetallic MOFs
Bare copper foam electrode · Electrode · Three-electrode system; 4.0 M KOH electrolyte; constant current 1 mA; ambient pressure and temperature.
2025 · Enhancing electrochemical hydrogen storage in nickel-based metal-organic frameworks (MOFs) through zinc and cobalt doping as bimetallic MOFs
Co-Ni(TPA)-1 electrode on Cu foam · Electrode · Three-electrode system; 4.0 M KOH electrolyte; constant current 1 mA; 20 cycles; 0.1 mg MOF material on working electrode.
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 · Three-electrode system; 4.0 M KOH electrolyte; constant current 1 mA; 20 cycles; 0.1 mg MOF material on working electrode.
2025 · Enhancing electrochemical hydrogen storage in nickel-based metal-organic frameworks (MOFs) through zinc and cobalt doping as bimetallic MOFs
Co-Ni(TPA)-3 electrode on Cu foam · Electrode · Three-electrode system; 4.0 M KOH electrolyte; constant current 1 mA; 20 cycles; 0.1 mg MOF material on working electrode.
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 · Three-electrode system; 4.0 M KOH electrolyte; constant current 1 mA; 20 cycles; 0.1 mg MOF material on working electrode.
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 · Three-electrode system; 4.0 M KOH electrolyte; constant current 1 mA; 20 cycles; 0.1 mg MOF material on working electrode.
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-tdc-bpy/bpe 0.25 and 0.75 size variants · Powder · SEM images for 0.75 and 0.25 variants; GCD curves for 0.25 variants at 0.5-5 A/g
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 · Fibrous Pb(II)-Based Coordination Polymer Operable as a Photocatalyst and Electrocatalyst for High-Rate, Selective CO2-to-Formate Conversion
KGF-9/Ketjen Black gas diffusion electrode · Electrode · Catholyte and anolyte 1 M KHCO3 aq. pH 6.8; CO2 gas 99.99% to gas chamber at 10 sccm; total current densities 200 and 300 mA cm-2; 30 min; no iR compensation.
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; different current densities; 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; different current densities; 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
Ni-MOF planar symmetric supercapacitor · Electrode · Three-electrode system; different current densities; 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
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 · 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 · Specific capacitance calculated from GCD discharge profiles of c-MOF@CP electrodes in three-electrode configuration.
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, voltage range 1.00-3.80 V; 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, voltage range 1.00-3.80 V
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 · GITT-derived K+ diffusion coefficient using Fick's second law
2025 · Interconnected Lamellar 3D Semiconductive PCP for Rechargeable Aqueous Zinc Battery Cathodes
VO-HHTP 80 wt% composite cathode · Electrode · 80 wt% VO-HHTP cathode cycled at 2 A g-1 for 1000 cycles.
2025 · Interconnected Lamellar 3D Semiconductive PCP for Rechargeable Aqueous Zinc Battery Cathodes
VO-HHTP 50 wt% composite cathode · Electrode · Two-electrode PFA Swagelok cells, zinc foil anode, 3 mol kg-1 Zn(OTf)2 electrolyte; current densities 0.05-8 A g-1.
2025 · Interconnected Lamellar 3D Semiconductive PCP for Rechargeable Aqueous Zinc Battery Cathodes
VO-HHTP 80 wt% composite cathode · Electrode · Same zinc-cell geometry with 80 wt% VO-HHTP and 10 wt% conductive agent; rates 0.05-8 A g-1.
2025 · Manganese oxide and urea-assisted engineering of nickel-iron compounds for high-performance battery-supercapacitor hybrid devices
NiFe · Electrode · 3 M KOH electrolyte; capacitance from GC/D 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; capacitance from GC/D 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; capacitance from GC/D 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; capacitance from GC/D 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; capacitance from GC/D curves.
2025 · Metal-organic framework glass stabilizes high-voltage cathodes for efficient lithium-metal batteries
Glass@LRMO, 2 wt% MOF Glass coating · Powder · LRMO: 2.0-4.8 V, 1 C = 280 mA/g; LCO: 3.0-4.6 V, 1 C = 220 mA/g.
2025 · Metal-organic framework glass stabilizes high-voltage cathodes for efficient lithium-metal batteries
Glass@NCM-811, 2 wt% MOF Glass coating · Powder · 2.7-4.4 V or 2.8-4.6 V for NCM-811-based batteries; 1 C = 220 mA/g.
2025 · Metal-organic framework glass stabilizes high-voltage cathodes for efficient lithium-metal batteries
Glass@NCM-811, 2 wt% MOF Glass coating · Powder · After 100th cycle of rate-performance cycling between 3.0 and 4.4 V; titration step 0.5 C for 8 min and relaxation 1 h.
2025 · Metal-organic framework glass stabilizes high-voltage cathodes for efficient lithium-metal batteries
Glass@NCM-811, 2 wt% MOF Glass coating · Powder · 2.7-4.4 V, room temperature, 1 C = 220 mA/g; rate sequence 0.1 C to 5 C then 1 C.
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 · 200 cycles at 0.5 C
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
CR2032 Li-S cell with PP separator control · Electrode · 200 cycles at 0.5 C
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 · 300 cycles at 1 C
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
CR2032 Li-S cell with PP separator control · Electrode · 300 cycles at 1 C
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 · LAND CT2001A, 1.7-2.8 V, 1 C = 1672 mAh g-1; 0.5, 1.0, 2.0 and 4.0 C
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
CR2032 Li-S cell with PP separator control · Electrode · LAND CT2001A, 1.7-2.8 V, 1 C = 1672 mAh g-1; 0.5, 1.0, 2.0 and 4.0 C
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 · CR2032 or Swagelok Li cells; 0.1-3.0 V vs Li/Li+; cycling performance at 355 mA g-1 in a Neware Battery Tester System.
2025 · Operando Raman and ex situ characterization of an iron-based conductive MOF as a negative electrode in Li-ion batteries
Rectangular Fe-HHTP composite electrode in adapted operando Raman cell · Electrode · Renishaw inVia, 50x objective, 532 nm, 1% power, two accumulations, 90 s acquisition; Bio-Logic SP-150 applied galvanostatic current; CaF2 window.
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 · Li half-cells cycled between 0.1 and 3.0 V vs Li/Li+ at 50, 100, 200, 500, 1000, 1500 and 2000 mA g-1, then returned to 50 mA g-1.
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 · 5000 cycles at 0.2 A g-1 in 3.0 M KCl
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 GCD; 3.0 M KCl; current densities 0.2-5 A g-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 GCD; 3.0 M KCl; current densities 0.2-5 A g-1
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 · GCD in three-electrode cell; current density series 0.5-5 A/g; capacitance calculated from discharge time.
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 · GCD in three-electrode cell; current density series 0.5-5 A/g.
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 · 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 conductive metal-organic framework with 2,3,6,7,14,15-triptycenehexathiol (TCHT) ligand: synthesis, structure, electrical conductivity and CO2RR activity
Cu-BHT@Maxsorb · Electrode · 10 mA cm-2 for 30 min under same conditions as Cu-TCHT@Maxsorb.
2025 · Two-dimensional conductive metal-organic framework with 2,3,6,7,14,15-triptycenehexathiol (TCHT) ligand: synthesis, structure, electrical conductivity and CO2RR activity
Cu-TCHT@Maxsorb · Electrode · 10 mA cm-2 for 30 min; 1 M KHCO3 electrolyte; CO2 flow 10 mL min-1; gaseous products by GC, liquid product by 1H NMR.
2025 · Two-dimensional conductive metal-organic framework with 2,3,6,7,14,15-triptycenehexathiol (TCHT) ligand: synthesis, structure, electrical conductivity and CO2RR activity
Cu-BHT@Maxsorb · Electrode · 30 mA cm-2 for 30 min under same conditions as Cu-TCHT@Maxsorb.
2025 · Two-dimensional conductive metal-organic framework with 2,3,6,7,14,15-triptycenehexathiol (TCHT) ligand: synthesis, structure, electrical conductivity and CO2RR activity
Cu-TCHT@Maxsorb · Electrode · 30 mA cm-2 for 30 min; 1 M KHCO3 electrolyte; CO2 flow 10 mL min-1.
2025 · Two-dimensional conductive metal-organic framework with 2,3,6,7,14,15-triptycenehexathiol (TCHT) ligand: synthesis, structure, electrical conductivity and CO2RR activity
Cu-BHT@Maxsorb · Electrode · 50 mA cm-2 for 30 min under same conditions as Cu-TCHT@Maxsorb.
2025 · Two-dimensional conductive metal-organic framework with 2,3,6,7,14,15-triptycenehexathiol (TCHT) ligand: synthesis, structure, electrical conductivity and CO2RR activity
Cu-TCHT@Maxsorb · Electrode · 50 mA cm-2 for 30 min; 1 M KHCO3 electrolyte; CO2 flow 10 mL min-1.
2025 · Two-Dimensional π-d Conjugated Conductive Metal-Organic Framework with Triple Active Centers as High-Performance Cathodes for Flexible Zinc Batteries
Flexible 2D Cu-TABQ//Zn cell with PVA/Zn(CF3SO3)2 hydrogel electrolyte · Electrode · Flexible 2D Cu-TABQ//Zn cell with PVA/Zn(CF3SO3)2 hydrogel electrolyte; bending angles 0, 60, 120 and 180 degrees; cycling at 0.2 and 2 A g-1.
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 · CR2032 Zn cell in 2M Zn(CF3SO3)2 electrolyte; 1D Cu-TABQ control tested under same current densities as 2D Cu-TABQ.
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 · CR2032 Zn cell in 2M Zn(CF3SO3)2 electrolyte; GCD at 0.2 A g-1 and rate/cycling tests from 0.2 to 5.0 A g-1.
2024 · 2D Conductive Metal-Organic Frameworks Based on Tetraoxa[8]circulenes as Promising Cathode for Aqueous Zinc Ion Batteries
8OH-TOC cathode electrode · Electrode · CR2032 cell, Zn foil anode, 1.0 M Zn(CF3SO3)2 electrolyte, 0.2-1.2 V window, 50 mA g-1, room temperature.
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 · Current densities from 100 to 1000 mA g-1 and return to 100 mA g-1 in Zn-ion coin cell.
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
Mn-TOC cathode electrode · Electrode · Current densities from 100 to 1000 mA g-1 and return to 100 mA g-1 in Zn-ion coin cell.
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 · 2D Conductive Metal-Organic Frameworks Based on Tetraoxa[8]circulenes as Promising Cathode for Aqueous Zinc Ion Batteries
Zn-TOC cathode electrode · Electrode · Current densities from 100 to 1000 mA g-1 and return to 100 mA g-1 in Zn-ion coin cell.
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 · 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/PEM/Pt-C electrolyser · Electrode · NiFe-MOF-CQD anode and Pt/C cathode in Nafion 115 PEM electrolyser; operating temperature 60 C; current-voltage curve without iR compensation; durability at 2 A cm-2 and/or 2 V.
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 · 0 degC; 50 mA g-1; 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 · 25 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 · 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 · Air; 200 mA g-1; limited capacity 500 mA h g-1.
2024 · Conductive Metal−Organic Frameworks for Rechargeable LiOH-Based Li−O2 Batteries
comparative M-HHTP and KB cathode set · Electrode · LiFePO4 anode/counter electrode; humidified O2; 500 mA g-1; limited capacity 1000 mA h g-1.
2024 · Conductive Metal−Organic Frameworks for Rechargeable LiOH-Based Li−O2 Batteries
comparative M-HHTP and KB cathode set · Electrode · Initial deep discharge-charge in dry O2 at 100 mA g-1.
2024 · Conductive Metal−Organic Frameworks for Rechargeable LiOH-Based Li−O2 Batteries
comparative M-HHTP and KB cathode set · Electrode · Initial deep discharge-charge in humidified O2, RH about 65%, 100 mA g-1.
2024 · Conductive Metal−Organic Frameworks for Rechargeable LiOH-Based Li−O2 Batteries
comparative M-HHTP and KB cathode set · Electrode · Li-O2 batteries with NixCoy-HHTP cathodes, dry O2, 100 mA g-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 · EIS at 10 mV amplitude from 100 kHz to 0.01 Hz; chronopotentiometry at j = 10 mA cm-2 for 12 h; 2000-cycle LSV stability check in SI.
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 · EIS at 10 mV amplitude from 100 kHz to 0.01 Hz; undoped Sr MOF chronopotentiometry at j = 10 mA cm-2 for 12 h.
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 · Continuous GCD at 3 A g-1 for 10,000 cycles.
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 · Continuous GCD cycling at 3 A g-1 for 10,000 cycles for undoped Sr MOF control electrode.
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 GCD in 3 M KOH; potential window -0.10 to 0.45 V; current densities 1-8 A g-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 GCD in 3 M KOH; undoped Sr MOF/Ni foam electrode, potential window -0.10 to 0.45 V; current densities 1-8 A g-1.
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 · Efficient oxygen evolution using conductive cobalt-based metal-organic framework
Co-BTB catalyst ink on conductive carbon paper · Electrode · Long-term durability investigated at 20 and 30 mA cm-2 for 24 h in 1 M KOH.
2024 · Electrochemical investigation of copper 1D conductive polymer for hybrid supercapacitor applications
Cu-PDA-MOF//AC hybrid device · Electrode · Capacity retention and coulombic efficiency over 5000 GCD cycles.
2024 · Electrochemical investigation of copper 1D conductive polymer for hybrid supercapacitor applications
Cu-PDA-MOF working electrode on nickel foam · Electrode · GCD at 0.5-5.0 A/g current densities; 0-0.525 V potential window.
2024 · Electrochemical investigation of copper 1D conductive polymer for hybrid supercapacitor applications
Cu-PDA-MOF//AC hybrid device · Electrode · GCD at 0.5-2 A/g in a 0-1.4 V potential window.
2024 · Electrochemical investigation of copper 1D conductive polymer for hybrid supercapacitor applications
Cu-PDA-MOF//AC hybrid device · Electrode · Energy density and power density determined using Eqs. (7) and (8).
2024 · Enhancement of the performance of Ge–air batteries under high temperatures using conductive MOF-modified Ge anodes
Ge-air CR2032 cell with bare Ge anode · Electrode · Ge-air CR2032 cell with bare Ge anode, 6 M KOH gel electrolyte, 16 deg C, current densities 65-260 uA cm^-2.
2024 · Enhancement of the performance of Ge–air batteries under high temperatures using conductive MOF-modified Ge anodes
Ge-air CR2032 cell with Ge@Ni3(HITP)2 anode · Electrode · Ge-air CR2032 cell with Ge@Ni3(HITP)2 anode, 6 M KOH gel electrolyte, 16 deg C, current densities 65-260 uA cm^-2.
2024 · Enhancement of the performance of Ge–air batteries under high temperatures using conductive MOF-modified Ge anodes
Ge-air CR2032 cell with bare Ge anode · Electrode · Ge-air CR2032 cell with bare Ge anode, 6 M KOH gel electrolyte, 50 deg C, current densities 65-260 uA cm^-2.
2024 · Enhancement of the performance of Ge–air batteries under high temperatures using conductive MOF-modified Ge anodes
Ge-air CR2032 cell with Ge@Ni3(HITP)2 anode · Electrode · Ge-air CR2032 cell with Ge@Ni3(HITP)2 anode, 6 M KOH gel electrolyte, 50 deg C, current densities 65-260 uA cm^-2.
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 · 2-Ag@ZIF-8 electrode cycled for 5000 cycles; current density reported inconsistently as 5 A g-1 in section text/Fig. 6 caption and 10 A g-1 in abstract.
2024 · Fabrication of high-performance supercapacitor of surface-engineered ZIF-8 for energy storage applications
1-Ag@ZIF-8/Ni foam working electrode · Electrode · Three-electrode test in 3 M KOH; 1 A g-1 over 0-0.45 V; current density series shown in Fig. 6.
2024 · Fabrication of high-performance supercapacitor of surface-engineered ZIF-8 for energy storage applications
2-Ag@ZIF-8/Ni foam working electrode · Electrode · Three-electrode test in 3 M KOH; 1 A g-1 over 0-0.45 V; current density series shown in Fig. 6.
2024 · Fabrication of high-performance supercapacitor of surface-engineered ZIF-8 for energy storage applications
ZIF-8/Ni foam working electrode · Electrode · Three-electrode test in 3 M KOH; 1 A g-1 over 0-0.45 V; current density series shown in Fig. 6.
2024 · Fabrication of high-performance supercapacitor of surface-engineered ZIF-8 for energy storage applications
Ag@ZIF-8/AC hybrid supercapacitor · Electrode · Ag@ZIF-8 cathode and activated carbon anode in 3 M KOH; voltage-window series up to 1.6 V and current density series from 0.5 to 5 A g-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
NiCAT powder electrode · Electrode · NiCAT powder electrode compared with 50%-NiCAT@TOW at current densities of 0.5, 1, 2, 5 and 10 A g-1.
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 3 M KCl; specific capacitance calculated by C = it/(m Delta V).
2024 · Layered coordination polymer with two-dimensional covalent bismuth-organic networks: Semiconductor and lithium ion storage
conducting carbon/CMC control electrode · Electrode · Conducting carbon/CMC (3/1) electrode at current densities from 100 to 2000 mA/g.
2024 · Layered coordination polymer with two-dimensional covalent bismuth-organic networks: Semiconductor and lithium ion storage
Bi-DSBDC-DMA composite electrode · Electrode · Long cycling at 200 mA/g; composite electrode; capacity and coulombic efficiency tracked for 200 cycles.
2024 · Layered coordination polymer with two-dimensional covalent bismuth-organic networks: Semiconductor and lithium ion storage
Bi-DSBDC-DMA composite electrode · Electrode · 2032-type Li half-cell; 13 mm Li chips as counter/pseudo-reference electrodes; polypropylene separator; 1 M LiPF6 in EC/DEC (1/1); 0.1-3.0 V; GCD on Neware cell tester.
2024 · Layered coordination polymer with two-dimensional covalent bismuth-organic networks: Semiconductor and lithium ion storage
Bi-DSBDC-DMA composite electrode · Electrode · Rate capability at current densities between 100 and 2000 mA/g.
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
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
Q2 Cu-MOF//activated carbon hybrid device · Electrode · 5000 consecutive GCD cycles at 16 A g^-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 window 0-1.7 V; current densities 1-16 A g^-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 · First six and last six GCD cycles of the real-device stability test.
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 · Specific energy and power calculated using reported equations for asymmetric device.
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; voltage range 0.6 V; current densities 1-10 A g^-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; voltage range 0.6 V; current densities 1-10 A g^-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 · Q2 electrode stability test over 3000 GCD cycles.
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-120 C air cathode · Electrode · 0.1 mA/cm2 current density, limiting specific discharge capacity 500 mAh/g
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-120 C air cathode · Electrode · 2.0-4.5 V, 0.2 mA/cm2 current density, limiting specific discharge capacity 500 mAh/g
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 · 0.1 mA/cm2 current density, limiting specific discharge capacity 500 mAh/g
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 · 2.0-4.5 V, 0.2 mA/cm2 current density, limiting specific discharge capacity 500 mAh/g
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-160 C air cathode · Electrode · 0.1 mA/cm2 current density, limiting specific discharge capacity 500 mAh/g
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-160 C air cathode · Electrode · 2.0-4.5 V, 0.2 mA/cm2 current density, limiting specific discharge capacity 500 mAh/g
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-180 C air cathode · Electrode · 0.1 mA/cm2 current density, limiting specific discharge capacity 500 mAh/g
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-180 C air cathode · Electrode · 2.0-4.5 V, 0.2 mA/cm2 current density, limiting specific discharge capacity 500 mAh/g
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-200 C air cathode · Electrode · 0.1 mA/cm2 current density, limiting specific discharge capacity 500 mAh/g
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-200 C air cathode · Electrode · 2.0-4.5 V, 0.2 mA/cm2 current density, limiting specific discharge capacity 500 mAh/g
2024 · Ordered layered manganese-based metal–organic frameworks induce 2D growth of discharge products via LiO2 adsorbent for high performance lithium–oxygen batteries
commercial MnO2 air cathode · Electrode · 0.2 mA/cm2 current density, limiting specific discharge capacity 500 mAh/g
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-120 C air cathode · Electrode · LOB discharge at 0.1 mA/cm2 current density; capacity read from Figure 4a axis
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 discharge at 0.1 mA/cm2 current density
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-160 C air cathode · Electrode · LOB discharge at 0.1 mA/cm2 current density; capacity read from Figure 4a axis
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-180 C air cathode · Electrode · LOB discharge at 0.1 mA/cm2 current density; capacity read from Figure 4a axis
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-200 C air cathode · Electrode · LOB discharge at 0.1 mA/cm2 current density; capacity read from Figure 4a axis
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 working electrode · Electrode · 5000 charge-discharge cycles at 5 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
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 · Redox-active conductive metal-organic framework with high lithium capacities at low temperatures
SKIER-5/Super P/PVDF electrode · Electrode · Cycling stability and coulombic efficiency; main Figure 2d caption says 200 mA g^-1
2024 · Redox-active conductive metal-organic framework with high lithium capacities at low temperatures
commercial graphite/Super P/PVDF electrode · Electrode · 0.2C = 74.4 mA g^-1 for commercial graphite; 25, 10, 0, -10, -20 C and return to 25 C
2024 · Redox-active conductive metal-organic framework with high lithium capacities at low temperatures
commercial graphite/Super P/PVDF high-Super-P electrode · Electrode · Commercial graphite with high content of Super P (50 wt%) at 0.2C = 74.4 mA g^-1
2024 · Redox-active conductive metal-organic framework with high lithium capacities at low temperatures
SKIER-5/Super P/PVDF electrode · Electrode · SI comparison against graphite with high Super P; SKIER-5 values evaluated based on total electrode weight
2024 · Redox-active conductive metal-organic framework with high lithium capacities at low temperatures
SKIER-5/Super P/PVDF electrode · Electrode · 0.2C = 113 mA g^-1 for SKIER-5; 25, 10, 0, -10, -20 C and return to 25 C; 0.01-3.0 V
2024 · Redox-active conductive metal-organic framework with high lithium capacities at low temperatures
SKIER-5/Super P/PVDF electrode · Electrode · 5th-cycle discharge capacities at 0.2, 0.5, 1, 2, 5 and 10C; current returned to 0.2C after 70 cycles
2024 · Redox-active conductive metal-organic framework with high lithium capacities at low temperatures
SKIER-5/Super P/PVDF electrode · Electrode · Selected cycles at 113 mA g^-1 (0.2C), 0.01-3.0 V vs Li/Li+
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 · 5 A g^-1 for 5000 cycles
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 · 5 A g^-1 for 5000 cycles
2024 · Revealing the effect of cobalt content and ligand exchange in the bimetallic Ni–Co MOF for stable supercapacitors with high energy density
NiCo-M (10:1) electrode · Electrode · 5 A g^-1 for 5000 cycles
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; 0.5-10 A g^-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, 0.5-10 A g^-1
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, current densities 0.5-10 A g^-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 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Activated carbon AC YEC-8 · Electrode · AC negative electrode in 3 M KOH, 1 A g-1 reported
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Co-HHTP · Powder · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Co-HHTP@Co3O4 · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Co-HHTP@Co3O4-0.5 · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Co-HHTP@Co(OH)2 · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Co-HHTP@Co(OH)2-0.5 · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Co-HHTP@CoP · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Co-HHTP@CoP-0.5 · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 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//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 · Powder · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
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; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Ni-HHTP@Co3O4-0.5 · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 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 · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Ni-HHTP@Co(OH)2-0.5 · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-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; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
Ni-HHTP@CoP-0.5 · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
NiCo-HHTP · Powder · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
NiCo-HHTP@Co3O4 · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
NiCo-HHTP@Co(OH)2 · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Successful In Situ Growth of Conductive MOFs on 2D Cobalt-Based Compounds and Their Electrochemical Performance
NiCo-HHTP@CoP · Electrode · three-electrode cell in 3 M KOH; Hg/HgO reference, Pt counter, nickel foam working electrode; current densities 1-5 A g-1
2024 · Synergistic Enhancement of Supercapacitors with Cobalt–Copper Bimetal–Organic Framework
Co-MOF/Ni foam supercapacitor electrode · Electrode · GCD in 2 M KOH three-electrode cell; potential range -0.1 to 0.45 V; capacitance calculated as C = I*Delta t/(m*Delta V)
2024 · Synergistic Enhancement of Supercapacitors with Cobalt–Copper Bimetal–Organic Framework
CoCu-MOF/Ni foam supercapacitor electrode · Electrode · GCD in 2 M KOH three-electrode cell; potential range -0.1 to 0.45 V; capacitance calculated as C = I*Delta t/(m*Delta V)
2024 · Synergistic Enhancement of Supercapacitors with Cobalt–Copper Bimetal–Organic Framework
Cu-MOF/Ni foam supercapacitor electrode · Electrode · GCD in 2 M KOH three-electrode cell; potential range -0.1 to 0.45 V; capacitance calculated as C = I*Delta t/(m*Delta V)
2024 · Synergistic Enhancement of Supercapacitors with Cobalt–Copper Bimetal–Organic Framework
CoCu-MOF/Ni foam supercapacitor electrode · Electrode · 3000 galvanostatic charge-discharge cycles at 1 A g-1
2024 · Tri-Metallic Catalyst for Oxygen Evolution Reaction Enables Continuous Operation of Anion Exchange Membrane Electrolyzer at 1A cm−2 for Hundreds of Hours
Fe10Ni45Co45 MOF-74 · Powder · Constant current 200 mA cm-2 in 1 M KOH; two segments separated by 1 h OCV.
2024 · Tri-Metallic Catalyst for Oxygen Evolution Reaction Enables Continuous Operation of Anion Exchange Membrane Electrolyzer at 1A cm−2 for Hundreds of Hours
Ni5Co47.5Fe47.5 MOF-74 · Powder · Constant current 200 mA cm-2 in 1 M KOH; two segments separated by 1 h OCV.
2024 · Tri-Metallic Catalyst for Oxygen Evolution Reaction Enables Continuous Operation of Anion Exchange Membrane Electrolyzer at 1A cm−2 for Hundreds of Hours
Binary Fe-Co MOF-74 MEA anode catalyst · Electrode · MOF OER catalyst at anode; commercial Pt/carbon HER catalyst cathode; 0.1 M NaOH anolyte; 60 C; 750 mA cm-2.
2024 · Tri-Metallic Catalyst for Oxygen Evolution Reaction Enables Continuous Operation of Anion Exchange Membrane Electrolyzer at 1A cm−2 for Hundreds of Hours
Fe10Ni45Co45 MOF-74 MEA anode catalyst · Electrode · MOF-74 anode catalyst; commercial Pt/carbon cathode; 0.1 M NaOH; 60 C; 750 then 1000 mA cm-2.
2024 · Tri-Metallic Catalyst for Oxygen Evolution Reaction Enables Continuous Operation of Anion Exchange Membrane Electrolyzer at 1A cm−2 for Hundreds of Hours
Ni10Co45Fe45 MOF-74 · Powder · Identical MEA full-cell setup to binary Fe-Co comparator; 750 mA cm-2.
2024 · Triazacoronene-Based 2D Conductive Metal–Organic Framework for High-Capacity Lithium Storage
Cu-TAC electrode · Electrode · 1000 mA g^-1 for 200 cycles.
2024 · Triazacoronene-Based 2D Conductive Metal–Organic Framework for High-Capacity Lithium Storage
Cu-TAC electrode · Electrode · 300 mA g^-1 for 600 cycles.
2024 · Triazacoronene-Based 2D Conductive Metal–Organic Framework for High-Capacity Lithium Storage
Cu-TAC electrode · Electrode · 50 mA g^-1 initial cycles; 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 · Current densities from 50 to 1500 mA g^-1, then restored to 50 mA g^-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 · 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
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 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 Pyrazine-Based 2D Conductive Metal-Organic Framework for Efficient Lithium Storage†
TPQG-Cu-MOF composite cathode on carbon-coated aluminium foil · Electrode · Cycling evaluated at 20 mAh g-1 for 50 cycles and 1 A g-1 for 500 cycles.
2023 · A Pyrazine-Based 2D Conductive Metal-Organic Framework for Efficient Lithium Storage†
TPQG-Cu-MOF composite cathode on carbon-coated aluminium foil · Electrode · Discharge capacities measured at current densities from 0.02 to 2 A g-1, then returned to 20 mAh g-1.
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 · Anionic metal-organic framework modified separator boosting efficient Li-ion transport
UIOSOL@PP separator · Thin Film · Li|Li cells at 0.5 mA cm-2 with 1 mAh cm-2 areal capacity.
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 · Neware battery tester; Li-S cells with MIL-47/CNT, CNT or no interlayer at 0.2C.
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 · 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||RuCo-CAT two-electrode electrolyser · Electrode · RuCo-CAT/CC used as both cathode and anode in 1.0 M KOH; compared with Pt/C||RuO2.
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 device; GCD over 0-1.6 V at 0.8, 1.0, 1.5, 2.0, 2.5 and 3.0 A/g
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; GCD at 6-12 A/g in the same potential range optimised by CV
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 · Framework Dimensional Control Boosting Charge Storage in Conjugated Coordination Polymers
1D-CuTABQ composite cathode electrode · Electrode · Voltage window 1.0-3.6 V vs Na/Na+
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
2D-CuTABQ composite cathode electrode · Electrode · Voltage window 1.0-3.6 V vs Na/Na+
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 · Ionic Liquid-Laden Zn-MOF-74-Based Solid-State Electrolyte for Sodium Batteries
IL0.5@MOF (0.5:1) · Pellet · Na symmetric cells with two metallic Na electrodes at room temperature; current density 0.1 mA cm-2; charge and discharge times 1 h each cycle
2023 · Isonicotinic acid-based copper-MOF: An exotic redox propertied electrode material for high energy asymmetric supercapacitor
Cu-MOF/Ni foam working electrode · Electrode · Potential window 0-0.6 V; current densities 0.6-10 A/g in 1 M KOH at room temperature.
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 · Device GCD at 1.3-10 A/g; 5000 GCD cycles at 8 A/g; 0-1.7 V operating window.
2023 · Microscopic Origin of Electrochemical Capacitance in Metal-Organic Frameworks
Composite Cu3(HHTP)2 freestanding electrode film · Electrode · Cu3(HHTP)2 composite working electrode, YP80F oversized activated carbon counter electrode, Ag pseudo-reference, 1 M NEt4BF4 in anhydrous acetonitrile; potentials vs OCV.
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
Zn,Ni-CAT-T4 · Electrode · Zn,Ni-CAT-T4 electrode tested at 3 mA cm-2 for 30000 cycles; separate KOH test at 10 mA cm-2 for 5000 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 · 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
0.25Bi(C2H3O2)3:Bi(HHTP) 12 h mixture electrode · Electrode · Bi(C2H3O2)3, Bi(HHTP) 12 h, and 0.25:1 Bi(C2H3O2)3:Bi(HHTP) 12 h electrodes compared at 1 A g^-1.
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 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 · GC/D at 1.0 A/g for potential window selection; 1.0-3.0 A/g for rate curves; cycling at 1.0 A/g for 10000 cycles.
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 · 1 A/g for Table 2 specific capacitance and capacity.
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 · 1 A/g for Table 2 specific capacitance and capacity.
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 · 1 A/g for Table 2 specific capacitance and capacity.
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 · 1 A/g for Table 2 specific capacitance and capacity.
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 · 1 A/g for Table 2 specific capacitance and capacity.
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 · M-H10 GC/D curves at 2.0-4.0 A/g and 4.5-10.0 A/g; capacitance retention extracted from Fig. 5 text.
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 · Long cycling at 2.0 A g^-1 for 500 cycles in aqueous zinc-ion cells.
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 · Pulse current 0.025 A g^-1 for 10 min at 1 h rest intervals; Zn2+ diffusion coefficients compared for Cu-BTA-H/L and Ni-BTA-H.
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 in 2.5 M ZnSO4 with zinc foil anode; current densities 0.2-5.0 A g^-1.
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-L composite cathode nanosheet · Electrode · 0.3-1.6 V in 2.5 M ZnSO4 with zinc foil anode; current densities 0.2-5.0 A g^-1.
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 in 2.5 M ZnSO4 with zinc foil anode; current densities 0.2-5.0 A g^-1.
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 · Three-electrode Cu3(HHTP)2 || Li metal cells; 1 M LiTFSI in EC:EMC 3:7; 1.7-3.5 V; currents 100-2000 mA g-1 with 10 cycles each after 20 initial cycles at 100 mA g-1.
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 with 1 M LiTFSI in EC:EMC 3:7, 1.7-3.5 V vs Li|Li+, 100 mA g-1 for 100 cycles; shaded error from at least three cells.
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 with 1 M LiTFSI in EC:EMC 3:7, 1.7-3.5 V vs Li|Li+, 100 mA g-1 for 100 cycles; shaded error from at least three cells.
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 · Oxidatively Doped Tetrathiafulvalene-Based Metal-Organic Frameworks for High Specific Energy of Supercapatteries
1-ox electrode · Electrode · 6.0 M aqueous KOH electrolyte; specific currents 1 to 10 A g^-1.
2023 · Oxidatively Doped Tetrathiafulvalene-Based Metal-Organic Frameworks for High Specific Energy of Supercapatteries
2-ox electrode · Electrode · 6.0 M aqueous KOH electrolyte; specific currents 1 to 10 A g^-1.
2023 · Oxidatively Doped Tetrathiafulvalene-Based Metal-Organic Frameworks for High Specific Energy of Supercapatteries
1-ox' · Powder · 1 A g^-1 specific current; controls 1-ox', 2-ox' and iodine.
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
Zn-air battery with Se-doped MOF CoS2 hollow spheres air cathode · Electrode · Homemade liquid Zn-air battery with Zn foil anode, Se-doped MOF CoS2 air cathode, 6.0 M KOH/0.2 M zinc acetate electrolyte; comparison with Pt/C + IrO2.
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 · Single-electrode cycling at 10 A g-1 for 3000 cycles.
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; current densities 1, 2, 3 and 5 A g-1.
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 · 2 M KOH electrolyte; current density range 1-10 A g-1; specific capacity calculated from GCD curves.
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 · Stabilizing Redox-Active Hexaazatriphenylene in a 2D Conductive Metal–Organic Framework for Improved Lithium Storage Performance
Cu-HATN electrode · Electrode · Cycling at 300 and 600 mA g^-1; compared with 6OH-HATN and HATN.
2023 · Stabilizing Redox-Active Hexaazatriphenylene in a 2D Conductive Metal–Organic Framework for Improved Lithium Storage Performance
Cu-HATN electrode · Electrode · First discharge/charge profiles at 50 mA g^-1 for Cu-HATN, 6OH-HATN and HATN.
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; GCD curves shown at 0.7-4.0 A/g; specific capacity extracted from GCD.
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; Cu-MOF electrode on nickel foam; current densities shown 0.2-6 A/g.
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; GCD curves shown at 0.8-3.0 A/g; specific capacity extracted from GCD.
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; Ni-MOF electrode on nickel foam; current densities shown 6-12 A/g.
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 · 3000 consecutive charging/discharging cycles.
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 · 3000 consecutive charging/discharging 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
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 · GITT profiles and Na+ diffusion coefficients during sodiation and desodiation; pulse-current method described in SI.
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 cells, 0.01-3.0 V; MSC compared with MC at 0.2 A g-1 and long-term 10 A g-1.
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 · specific current 50-300 mA g-1 for rate performance; cycling at 300 mA g-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 · specific current 50-300 mA g-1 for rate performance; cycling at 300 mA g-1
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
Asymmetric Cu3(HHTP)2//AC hybrid device · Electrode · Asymmetric Cu3(HHTP)2//AC device; current densities 0.7-4.0 A/g.
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; current densities 0.2-4 A/g.
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 · 1000 GCD cycles at 4 A/g for the Cu3(HHTP)2//AC device.
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 · Li@Zn-MOF-74/Li-IL electrolyte; 30 C; 2.5 V to cut-off voltages 4.2-4.6 V; CCCV at higher rates.
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 · Li@Zn-MOF-74/Li-IL electrolyte sandwiched between LiFePO4 cathode and Li metal; 30 C; 2.5-4.2 V.
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 · A 2D copper-imidazolate framework without thermal treatment as an efficient ORR electrocatalyst for Zn-air batteries
2DCIF carbon-disk air electrode for all-solid-state Zn-air battery · Electrode · PVA-KOH gel polymer electrolyte; 0.7 g Zn powder negative electrode; 2DCIF-modified carbon disk positive air electrode
2022 · A 2D copper-imidazolate framework without thermal treatment as an efficient ORR electrocatalyst for Zn-air batteries
2DCIF carbon-paper air electrode for flooded Zn-air battery · Electrode · Zn plate anode, carbon-paper cathode modified with 0.375 mg 2DCIF, 6 M KOH electrolyte, 1 +/- 0.02 mL cell volume
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 · CuCA at 50 mA g-1 with PPC-PEO-LiTFSI-Al2O3 composite solid-state electrolyte film, apparently without added liquid electrolyte.
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 Monocrystalline Coordination Polymer with Multiple Redox Centers as a High-Performance Cathode for Lithium-Ion Batteries
K2CA composite electrode in quasi-solid-state LIB coin cell · Electrode · K2CA control electrode in CR2032 LIB cells with PPC-PEO-LiTFSI-Al2O3 based quasi-solid-state electrolyte.
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 · NEWARE battery test between 1.7-4.0 V; discharged at 50 mA g-1 for 15 min then rested for 1 h; quasi-solid-state electrolyte.
2022 · A Monocrystalline Coordination Polymer with Multiple Redox Centers as a High-Performance Cathode for Lithium-Ion Batteries
CuCA composite electrode in liquid-electrolyte LIB coin cell · Electrode · CA and CuCA tested at 500 mA g-1 with 1.0 M LiTFSI in DME/DOL (1:1 Vol%) and Celgard 2400 separator.
2022 · A novel Sn-based coordination polymer with high-efficiency and ultrafast lithium storage
Sn-DHTPA composite LIB electrode · Electrode · 0.01-3 V vs Li+/Li; 100 mA g^-1 unless otherwise noted
2022 · A novel Sn-based coordination polymer with high-efficiency and ultrafast lithium storage
Sn-DHTPA composite LIB electrode · Electrode · Ultra-high current density 20 A g^-1 for 1000 cycles; Figure S4 also reports 5 and 10 A g^-1 for 1000 cycles
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_dehydrated electrode · Electrode · Li cell; electrode dried at 180 C in vacuum before assembly; compared with normal Fe2(DHBQ)3 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 M LiTFSI/DOL-DME (1:1), 1.5-3.8 V vs Li+/Li, 50 mA g-1, AM/KB/PTFE 6:3:1, AM loading 1-2 mg cm-2.
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 · Li cells at 500 and 1000 mA g-1.
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 · Sequential current rates 50, 100, 200, 500, 1000, 2000, 5000 mA g-1, Li cell.
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 M NaPF6/DEGDME, 1.2-3.5 V vs Na+/Na, 50 mA g-1, AM/KB/PTFE 6:3:1.
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 battery cycling at 500 mA g-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 · Li-O2 battery cycling at 500 mA g-1
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 · initial Li-O2 battery profile at 500 mA g-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 · initial Li-O2 battery profile at 500 mA g-1
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 battery at 200, 500 and 1000 mA g-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 · Li-O2 battery at 200, 500 and 1000 mA g-1
2022 · Bimetallic MOFs with tunable morphology: Synthesis and enhanced lithium storage properties
Co-Ni-MOF 1:1/carbon black/PVDF electrode · Electrode · Co-Ni-MOF 1:1 electrode, cycles 1, 2, 5, 10, 20 and 50 at 100 mA g-1.
2022 · Bimetallic MOFs with tunable morphology: Synthesis and enhanced lithium storage properties
MOF/carbon black/PVDF electrode series · Electrode · CR2032 lithium half-cells, 0.01-3 V vs Li+/Li, 100 mA g-1, MOF/carbon black/PVDF electrodes.
2022 · Bimetallic MOFs with tunable morphology: Synthesis and enhanced lithium storage properties
Co-Ni-MOF 1:1/carbon black/PVDF electrode · Electrode · Co-Ni-MOF 1:1 electrode cycled at 100, 200, 300, 500 and 1000 mA g-1, then returned to 100 mA g-1.
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//LiCoO2 full cell · Electrode · Co-CAT//LiCoO2 full cell tested over 0.5-4.2 V at 200 mA g^-1 for cycling and 0.1-2.0 A g^-1 for rate performance.
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 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 · PIB half-cell cycling at 100, 500, and 1000 mA g^-1; rate steps from 50 to 4000 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 · Initial cycle, 0.5 h discharge/charge pulses at 100 mA g^-1 followed by 4 h rest; diffusion coefficient calculated from Fick's second law.
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 working electrode on nickel foam · Electrode · 1000 cycles at 10 A g-1; Zn0.3Co2.7S4 compared with Co3S4.
2022 · Construction of sulfur vacancies enriched hollow zinc cobalt bimetallic sulfides for high-performance supercapacitors
Co3S4 working electrode on nickel foam · Electrode · Specific capacities compared for Co3S4, Zn0.15Co2.85S4, Zn0.3Co2.7S4 and Zn0.45Co2.55S4 at 1 A g-1; 3 M KOH.
2022 · Construction of sulfur vacancies enriched hollow zinc cobalt bimetallic sulfides for high-performance supercapacitors
Zn0.3Co2.7S4 working electrode on nickel foam · Electrode · 0-0.45 V potential window; current densities 1, 2, 4, 6, 8 and 10 A g-1 in 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 · 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 · 1.6-IrOx@Ni/Co-ZIF-67 tested at constant current density of 10 mA cm^-2 for 24 h in the OER configuration; potential vs RHE read from Figure S18.
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 · Chronopotentiometry at constant current density 10 mA cm^-2 for 24 h in 1 M KOH.
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 · 6.5-IrOx@Ni/Co-ZIF-67 tested at constant current density of 10 mA cm^-2 for 24 h in the OER configuration; potential vs RHE read from Figure S18.
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 · Ni/Co-ZIF-67 tested at constant current density of 10 mA cm^-2 for 24 h in the OER configuration; potential vs RHE read from Figure S16.
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 · Ir 4f high-resolution XPS after 24 h OER stability test.
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 · 2032 sodium-ion coin cells; Na metal counter electrode; 1 M NaClO4 in EC/DEC 1:1; 0.01-3.0 V vs Na+/Na; room temperature.
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 · Sodium-ion coin cell cycled at 100, 200 and 500 mA g-1 for 100 cycles.
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 · Na+ diffusion coefficients calculated during discharge/charge.
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 · 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 · GCD cycles at current densities 0.2, 0.16, 0.12, 0.08, 0.04, and 0.02 A/g; Figure legend also shows constant currents 0.1, 0.08, 0.06, 0.04, 0.02, and 0.01 mA
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 · 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, -0.3 to 0.3 V vs Ag/AgCl, current densities 1-6 A g^-1.
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, current densities 1-6 A g^-1.
2022 · High performance Li-, Na-, and K-ion storage in electrically conducting coordination polymers
Li2-Co-PTtSA half-cell cathode electrode · Electrode · Li2-Co-PTtSA electrode sampled at pristine, half-charged, fully charged, half-discharged, and fully discharged states.
2022 · High performance Li-, Na-, and K-ion storage in electrically conducting coordination polymers
Li2-Co-PTtSA/graphite full cell · Electrode · Li2-Co-PTtSA cathode paired with graphite anode using LP30, 1 M LiPF6 in EC/DMC 1:1 vol%, cycled at 0.5C.
2022 · High performance Li-, Na-, and K-ion storage in electrically conducting coordination polymers
Li2-Co-PTtSA half-cell cathode electrode · Electrode · Cells first cycled 40 cycles at room temperature, then placed in homemade vacuum chamber down to 10^-8 Pa with stepped 2 h thermal ramps at 50, 60, and 70 C.
2022 · High performance Li-, Na-, and K-ion storage in electrically conducting coordination polymers
Li2-Co-PTtSA half-cell cathode electrode · Electrode · Li2-Co-PTtSA composite cathodes cycled versus Li metal at rates from C/5 to 10C, with variable carbon content and mass loading.
2022 · High performance Li-, Na-, and K-ion storage in electrically conducting coordination polymers
Li2-TM-PTtSA Li half-cell electrode set · Electrode · 2032 coin cells with Li metal counter/reference, glass microfiber separators, 1 M LiTFSI in PC electrolyte, nominal 22 C.
2022 · High performance Li-, Na-, and K-ion storage in electrically conducting coordination polymers
Na2-Co-PTtSA and K2-Co-PTtSA half-cell electrode set · Electrode · Na2-Co-PTtSA tested versus Na metal with 1 M NaPF6 EC/DEC; K2-Co-PTtSA tested versus K metal with KTFSI:EMIM-TFSI 1:9 electrolyte.
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; capacitance calculated from GCD curves using C = I dt / m.
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; capacitance calculated from GCD curves using C = I dt / m.
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 and PTA-NC MOF electrode samples tested at 2 A g^-1 for 10000 cycles; curve shown in SI Figure S8.
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 in 0 to 1.5 V voltage window; capacitance at 1, 2, 4, 6 and 8 A g^-1; energy density from Eq. (3) and power density from Eq. (4).
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 electrode in 1 M KOH at 0.5, 1, 2, 4, 6 and 8 A g^-1.
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; 1 A g^-1 comparison.
2022 · Nanostructured Conductive Metal Organic Frameworks for Sustainable Low Charge Overpotentials in Li–Air Batteries
Cu-THQ nanoflakes coated on GDE · Electrode · 1 M LiNO3 + 0.05 M InBr3 in TEGDME using Cu-THQ cathode; fixed capacities 1000 and 2000 mAh/g; current densities 1 and 2 A/g
2022 · Nanostructured Conductive Metal Organic Frameworks for Sustainable Low Charge Overpotentials in Li–Air Batteries
Cu-THQ nanoflakes coated on GDE · Electrode · Custom Swagelok cell assembled in argon glovebox; Li anode; Cu-THQ/GDE cathode; 40 uL electrolyte; dry air purged ca. 20 min; rest at least 1 h; electrolyte 1 M LiNO3 + 0.1 M InBr3 in TEGDME
2022 · Nanostructured Conductive Metal Organic Frameworks for Sustainable Low Charge Overpotentials in Li–Air Batteries
GDE-only cathode control · Electrode · GDE-only cathode; 1 M LiNO3 + 0.1 M InBr3 in TEGDME; 2 A/g; comparison to Cu-THQ
2022 · Nanostructured Conductive Metal Organic Frameworks for Sustainable Low Charge Overpotentials in Li–Air Batteries
Li||Li symmetric cell · Unknown · 1 M LiNO3 and 0.1 M InBr3 in TEGDME; fixed stripping/plating capacity 0.5 mAh/cm2 at 0.5 mA/cm2; rate range 0.1-2 mA/cm2
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 · 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 · 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 · GCD profiles and specific capacitance versus current density for SC-SD; SI reports 6.0 M PVA/KOH electrolyte and 0-1.5 V GCD range on a Biologic SP-200.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
1-CPE · Electrode · Carbon paper electrodes; current densities 3, 6, 9, 12 and 15 A g-1.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
1-GCE · Electrode · 0.5 M H2SO4; current densities 3, 6, 9, 12 and 15 A g-1.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
2-CPE · Electrode · Carbon paper electrodes; current densities 3, 6, 9, 12 and 15 A g-1; 5000-cycle test at 3 A g-1.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
2-GCE · Electrode · 0.5 M H2SO4; current densities 3, 6, 9, 12 and 15 A g-1.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
{P2W18O62}-CPE · Electrode · Carbon paper electrodes; current densities 3, 6, 9, 12 and 15 A g-1.
2022 · Supramolecular Host-Guest Assembly Based on Phosphotungstate Nanostructures for Pseudocapacitive and Electrochemical Sensing Applications
{P2W18O62}-GCE · Electrode · 0.5 M H2SO4; current densities 3, 6, 9, 12 and 15 A g-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 · 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; 5 A g-1; 5000 cycles in three-electrode configuration.
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 · 3.0 M KOH at room temperature; capacitance calculated from GCD at 0.5 A g-1.
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 · 3.0 M KOH at room temperature; capacitance calculated from GCD at 0.5 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; capacitance calculated from GCD curves at 0.5-5 A g-1.
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 · 3.0 M KOH at room temperature; capacitance calculated from GCD at 0.5 A g-1.
2022 · Synergistic effect of Co/Ni bimetallic metal–organic nanostructures for enhanced electrochemical energy storage
Ni-MOF three-electrode working electrode · Electrode · 3.0 M KOH at room temperature; capacitance calculated from GCD curves at 0.5-5 A g-1.
2022 · Synthesis of Tostadas-Shaped Metal-Organic Frameworks for Remitting Capacity Fading of Li-Ion Batteries
NHM composite working electrode · Electrode · 2032 coin cell versus Li/Li+; 0.01-3.0 V; 0.1 A g-1 for 100 cycles.
2022 · Synthesis of Tostadas-Shaped Metal-Organic Frameworks for Remitting Capacity Fading of Li-Ion Batteries
NHP composite working electrode · Electrode · 2032 coin cell versus Li/Li+; 0.01-3.0 V; 0.1 A g-1 for 100 cycles.
2022 · Synthesis of Tostadas-Shaped Metal-Organic Frameworks for Remitting Capacity Fading of Li-Ion Batteries
NHS composite working electrode · Electrode · 2032 coin cell versus Li/Li+; 0.01-3.0 V; 0.1 A g-1 for 100 cycles.
2022 · Synthesis of Tostadas-Shaped Metal-Organic Frameworks for Remitting Capacity Fading of Li-Ion Batteries
NHM composite working electrode · Electrode · High rate 1 A g-1 for 1000 cycles.
2022 · Synthesis of Tostadas-Shaped Metal-Organic Frameworks for Remitting Capacity Fading of Li-Ion Batteries
NHM composite working electrode · Electrode · Current density stepped from 0.1 to 2 A g-1 and back to 0.1 A g-1.
2022 · Synthesis of Tostadas-Shaped Metal-Organic Frameworks for Remitting Capacity Fading of Li-Ion Batteries
NHP composite working electrode · Electrode · Current density stepped from 0.1 to 2 A g-1.
2022 · Synthesis of Tostadas-Shaped Metal-Organic Frameworks for Remitting Capacity Fading of Li-Ion Batteries
NHS composite working electrode · Electrode · Current density stepped from 0.1 to 2 A g-1.
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
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 · 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 · 2D/2D NiCo-MOFs/GO hybrid nanosheets for high-performance asymmetrical supercapacitor
NCMG-15 · Nanosheet · Three-electrode system in 2 mol L-1 KOH; value at 0.5 A g-1.
2021 · 2D/2D NiCo-MOFs/GO hybrid nanosheets for high-performance asymmetrical supercapacitor
NCMG-5 · Nanosheet · Three-electrode system in 2 mol L-1 KOH; value at 0.5 A g-1.
2021 · 2D/2D NiCo-MOFs/GO hybrid nanosheets for high-performance asymmetrical supercapacitor
Pristine NiCo-MOF nanosheets · Nanosheet · Three-electrode system in 2 mol L-1 KOH; SCE reference, Pt foil counter; GCD potential range 0-0.4 V; value at 0.5 A g-1.
2021 · An Electrically Conducting Li-Ion Metal-Organic Framework
Li2-Mn-DOBDC composite Li half-cell electrode · Electrode · Li2-Mn-DOBDC active material with 10, 20 or 40 wt.% superP carbon, 10 or 5 wt.% PTFE, 1 M LiTFSI DOL/DME, 2.0-3.55 V at C/2.
2021 · An Electrically Conducting Li-Ion Metal-Organic Framework
Li2-Mn-DOBDC composite Li half-cell electrode · Electrode · Two-electrode coin cells assembled in Ar-filled glovebox; Li foil counter/reference; varied cut-off potentials; standard rate 1 electron in 10 h per formula for Figure 4.
2021 · An Electrically Conducting Li-Ion Metal-Organic Framework
Li2-Mn-DOBDC composite Li half-cell electrode · Electrode · Li half-cells using Li2-Mn-DOBDC, 40 wt.% superP carbon, 10 wt.% PTFE; 2.0-3.55 V at C/2; various 1 M electrolytes.
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 · Voltage range 0.05-3.0 V vs Li/Li+ for half-cell GCD; current densities 100-3000 mA g-1; cycling at 500 and 3000 mA g-1.
2021 · Cluster-Bridging-Coordinated Bimetallic Metal−Organic Framework as High-Performance Anode Material for Lithium-Ion Storage
Soft-packed Co4-Ir MOF||NCM523 full battery · Electrode · Co4-Ir MOF||NCM523 cell tested at 100 mA g-1 in 1.0-4.2 V under continuous bending-unbending; long cycling at 1000 mA g-1.
2021 · Conductive Metal-Organic Framework for High Energy Sodium-Ion Hybrid Capacitors
Ni-MOF working electrode · Electrode · Na/Ni-MOF cell, 50 mA g-1 for 30 min followed by 2 h rest; performed after first charge/discharge cycle.
2021 · Conductive Metal-Organic Framework for High Energy Sodium-Ion Hybrid Capacitors
Ni-MOF working electrode · Electrode · CR2032 Na half-cells; potential window 0.01-3.0 V versus Na+/Na.
2021 · Conductive Metal-Organic Framework for High Energy Sodium-Ion Hybrid Capacitors
Ni-MOF working electrode · Electrode · CR2032 Na half-cells, 1 M NaClO4 EC:PC/FEC electrolyte; potential window 0.5-3.0 V versus Na+/Na.
2021 · Conductive Metal-Organic Framework for High Energy Sodium-Ion Hybrid Capacitors
NVOPF/AC positive electrode · Electrode · NVOPF/AC positive electrode between 2.5 and 4.4 V versus Na+/Na.
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; cycling curve is cited in Fig. S21 caption but not numerically present in supplied SI text.
2021 · Conductive metal-organic frameworks promoting polysulfides transformation in lithium-sulfur batteries
Li-S coin cell with Ni-BTC@CP cathode · Electrode · Control cycling at 0.2 C; specific capacity based on sulfur mass.
2021 · Conductive metal-organic frameworks promoting polysulfides transformation in lithium-sulfur batteries
Li-S coin cell with Ni-HHTP@CP cathode · Electrode · Coin-type Li-S cell cycling at 0.2 C; specific capacity based on sulfur mass.
2021 · Conductive metal-organic frameworks promoting polysulfides transformation in lithium-sulfur batteries
Li-S coin cell with Ni-HHTP@CP cathode · Electrode · High sulfur loading and reduced E/S ratio of 6.5 uL mg-1; cells used 0.8 M Li2S6 without extra blank electrolyte.
2021 · Conductive metal-organic frameworks promoting polysulfides transformation in lithium-sulfur batteries
Li-S coin cell with Ni-BTC@CP cathode · Electrode · Control rate capability at 0.1, 0.2, 0.5, 1, and 2 C.
2021 · Conductive metal-organic frameworks promoting polysulfides transformation in lithium-sulfur batteries
Li-S coin cell with Ni-HHTP@CP cathode · Electrode · Rate capability at 0.1, 0.2, 0.5, 1, and 2 C; capacities based on sulfur mass.
2021 · Electron-Conductive Metal-Organic Framework, Fe(dhbq)(dhbq = 2,5-Dihydroxy-1,4-benzoquinone): Coexistence of Microporosity and Solid-State Redox Activity
Acetylene black charge-discharge reference · Electrode · AB-only charge-discharge used to estimate double-layer capacity contribution
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 · 0.25 C (70 mA/g); Fe(dhbq) 50 wt%, AB 40 wt%, PTFE 10 wt%
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) 45 wt% / AB 45 wt% / PTFE 10 wt% cathode · Electrode · 0.3 C (84 mA/g); 1.5-3.5 V; Fe(dhbq) 45 wt%, AB 45 wt%, PTFE 10 wt%
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) 10 wt% / AB 80 wt% / PTFE 10 wt% cathode · Electrode · 0.1 C (28 mA/g); variable mixing ratio Fe(dhbq) 10 wt%, AB 80 wt%, PTFE 10 wt%
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 · 0.1 C (28 mA/g); 1.5-4.0 V vs Li/Li+; half-cell from discharge; capacities normalised as reported
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) 80 wt% / AB 10 wt% / PTFE 10 wt% cathode · Electrode · 0.1 C (28 mA/g); variable mixing ratio Fe(dhbq) 80 wt%, AB 10 wt%, PTFE 10 wt%
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
TCNQ-MOF-MSC device · Electrode · Cycling stability after 5000 charge/discharge cycles at 10 mA cm^-2; SI plot image for Figure S23 was not supplied. 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 · GCD comparison at same current density of 2 mA cm^-2; SI plot images for Figures S18-S21 were not supplied. Measurements performed using CHI 760D electrochemical workstation.
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 · Immobilizing Redox-Active Tricycloquinazoline into a 2D Conductive Metal–Organic Framework for Lithium Storage
Cu-HHTQ composite working electrode · Electrode · Voltage window 0.01-2.5 V vs Li+/Li.
2021 · Immobilizing Redox-Active Tricycloquinazoline into a 2D Conductive Metal–Organic Framework for Lithium Storage
Cu-HHTQ composite working electrode · Electrode · Voltage window 0.01-3.0 V vs Li+/Li; Li metal counter electrode; 1 M LiPF6 in EC/DMC/DEC 1:1:1; room temperature.
2021 · Immobilizing Redox-Active Tricycloquinazoline into a 2D Conductive Metal–Organic Framework for Lithium Storage
Cu-HHTQ composite working electrode · Electrode · Voltage window 0.01-3.0 V vs Li+/Li; rate test after 50 cycles at 300 mA g-1.
2021 · Immobilizing Redox-Active Tricycloquinazoline into a 2D Conductive Metal–Organic Framework for Lithium Storage
TQ composite working electrode · Electrode · TQ active material, Li metal counter electrode, potential range 0.01-3.0 V vs Li+/Li; 30 mA g-1 for first three cycles.
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 V; 0.1 A g-1.
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 V; 1 A g-1.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
Cu3(HHTP)2 symmetric EDLC cell 1 · Electrode · 0.04-0.05 A g-1, 0-1 V; 1 M NEt4BF4/acetonitrile; symmetric EDLC.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
Cu3(HHTP)2 symmetric EDLC cell 2 · Electrode · 0.04-0.05 A g-1, 0-1 V; 1 M NEt4BF4/acetonitrile; symmetric EDLC.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
Cu3(HHTP)2 symmetric EDLC cell 3 · Electrode · 0.04-0.05 A g-1, 0-1 V; 1 M NEt4BF4/acetonitrile; symmetric EDLC.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
Cu3(HHTP)2 symmetric EDLC cell 4 from sample B · Electrode · 0.04-0.05 A g-1, 0.8/1 V; 1 M NEt4BF4/acetonitrile; symmetric EDLC from Cu3(HHTP)2 sample B.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
Cu3(HHTP)2 symmetric EDLC cell 5 from soaked sample X · Electrode · 0.04-0.05 A g-1, 0.8 V stable window; 1 M NEt4BF4/acetonitrile; symmetric EDLC from soaked Cu3(HHTP)2 sample X.
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 · 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
liquid Zn-air battery with D-ZIF air cathode · Electrode · D-ZIF-ZAB charge/discharge at 0.2-2.0 mA cm-2 and long-cycle test at 2 mA cm-2.
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 · 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 · 1 M KOH, gas diffusion electrode YLS-30T, CO2 gas flow 30 cm3 min-1, catholyte/anolyte flow 20 mL min-1.
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 cycling at 100 and 1000 mA/g; SI Figure S12 gives curves and main text reports 1000 mA/g retention.
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 cycling at 500 mA/g for 350 cycles.
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 · Initial Li-ion half-cell charge/discharge cycles at 10 mA/g between 1.5 and 3.5 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 · Li-ion rate capability from 10 to 1000 mA/g and back to 10 mA/g.
2021 · Quinone-Based Conducting Three-Dimensional Metal-Organic Framework as a Cathode Material for Lithium-Ion Batteries
(NBu4)2Fe2(DHBQ)3/Super P/PVDF sodium-ion cathode electrode · Electrode · Na-ion half-cell between 1.2 and 3.2 V using Na foil, glass fibre separator and 1.0 M NaPF6 in DME.
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/LiCoO2 full cell · Unknown · Si@Cu3(HITP)2-5 anode pre-lithiated for 1 cycle at 0.1C; full-cell cycled 2.5-4.2 V. Capacity normalised to Si@Cu-MOF anode loading.
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 MOF electrode at 0.1C; 1C defined as 3600 mAh g-1 in SI caption.
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 · Half-cells cycled at 0.1C, corresponding to 360 mA g-1, 0.005-1.5 V vs Li/Li+.
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 · Activated/relaxed for 10 cycles at 0.1C then cycled at 1C (3600 mA g-1) for 1000 cycles.
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 · C-rates from 0.1C to 20C in 10-cycle increments; 1C = 3600 mA g-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)2-3 · Powder · Si@Cu3(HITP)2-3 electrode at 0.1C for 50 cycles, compared with pure Si and Si@Cu3(HITP)2-5.
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 · LIR 2016 coin cell with Ni3(HITP)2 composite anode, Li counter electrode, 1 M LiPF6 in EC-DMC (1:1 v:v), Celgard 2300 separator, 0.005-3.000 V vs Li+/Li, 25 C.
2021 · Stabilization of NASICON-Type Electrolyte against Li Anode via an Ionic Conductive MOF-Incorporated Adhesive Interlayer
Li/LAGP/LFP full cell · Electrode · Li/LAGP/LFP, 0.1 C, 60 C, 2.7-3.9 V; cells equilibrated at 60 C for 12 h before test
2021 · Stabilization of NASICON-Type Electrolyte against Li Anode via an Ionic Conductive MOF-Incorporated Adhesive Interlayer
Li/ZCPL-LAGP/LFP full cell · Electrode · Li/ZCPL-LAGP/LFP, 0.1 C, 60 C, 2.7-3.9 V; cells equilibrated at 60 C for 12 h before test
2021 · Stabilization of NASICON-Type Electrolyte against Li Anode via an Ionic Conductive MOF-Incorporated Adhesive Interlayer
Li/ZCPL-LAGP/Li symmetric cell · Electrode · 60 C; fixed step 0.1 mA cm-2; 30 min plating/stripping; cutoff -4 to 4 V
2021 · Stabilization of NASICON-Type Electrolyte against Li Anode via an Ionic Conductive MOF-Incorporated Adhesive Interlayer
Li/PEO-LiTFSI-LAGP/Li symmetric cell · Electrode · Li/PEO-LiTFSI-LAGP/Li symmetric cell at 60 C; 0.05 mA cm-2 before 300 h and 0.1 mA cm-2 after 300 h
2021 · Stabilization of NASICON-Type Electrolyte against Li Anode via an Ionic Conductive MOF-Incorporated Adhesive Interlayer
Li/ZCPL-LAGP/Li symmetric cell · Electrode · Li/ZCPL-LAGP/Li symmetric cell at 60 C; current densities 0.05, 0.1, 0.15 mA cm-2
2021 · Structural and electronic modulation of conductive MOFs for efficient oxygen evolution reaction electrocatalysis
NiPc-NiFe0.09 on carbon cloth · Electrode · Carbon-cloth supported NiPc-NiFe0.09 monitored for 15000 s; post-test XPS and PXRD/SEM checked stability.
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 · Cycling at 10 A g-1 for 5000 cycles in three-electrode configuration.
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 GCD curves and specific capacitance versus current density; current densities labelled 1, 2, 3, 5, 8 and 10 A g-1 in Fig. S3a,c.
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 GCD at 0.3, 0.5, 0.7, 1, 3, 5 and 7 A g-1 within 0-1.5 V window.
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 cycled 4000 times at 7 A g-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 tested at current densities of 1, 3, 5, 7 and 10 A g-1 in 3 M KOH.
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Co-MOF-SWCNTs electrode · Electrode · Cycling stability of MOF-based electrodes in symmetric SCs for 10000 charge-discharge cycles.
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Co-MOF-AC electrode · Electrode · Symmetric 2032 coin-cell SC; 1 mol L-1 LiTFSI organic electrolyte; active carbon additive electrodes.
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Co-MOF-NC electrode · Electrode · Symmetric 2032 coin-cell SC; 1 mol L-1 LiTFSI organic electrolyte; capacity calculated from discharge time by C = I delta t/(3.6 m).
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Mn-MOF-NC electrode · Electrode · Symmetric 2032 coin-cell SC; 1 mol L-1 LiTFSI organic electrolyte; capacity calculated from discharge time by C = I delta t/(3.6 m).
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Co-MOF-SWCNTs electrode · Electrode · Symmetric 2032 coin-cell SC; 1 mol L-1 LiTFSI organic electrolyte; SWCNT additive electrodes.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
1-GCE · Electrode · 5000 cycles at current density of 2.4 A g-1.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
2-GCE · Electrode · 5000 cycles at current density of 2.4 A g-1.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
{As2W18O62}-GCE · Electrode · 5000 cycles at current density of 2.4 A g-1.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
1-GCE · Electrode · 0.5 M H2SO4; current densities reported as 2.4, 4.8, 7.2, 9.6, and 12.0 A g-1 in SI and figure captions.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
2-GCE · Electrode · 0.5 M H2SO4; current densities reported as 2.4, 4.8, 7.2, 9.6, and 12.0 A g-1 in SI and figure captions.
2021 · Wells-Dawson Arsenotungstate Porous Derivatives for Electrochemical Supercapacitor Electrodes and Electrocatalytically Active Materials
{As2W18O62}-GCE · Electrode · 0.5 M H2SO4; current densities reported as 2.4, 4.8, 7.2, 9.6, and 12.0 A g-1 in SI and figure captions.
2020 · A conductive anionic Co-MOF cage with zeolite framework for supercapacitors
Co-MOF on Ni foam · Electrode · Three-electrode cell in 3.0 mol/L KOH; potential range 0.0-0.5 V; current densities reported from 0.5 to 20 A/g.
2020 · A conductive anionic Co-MOF cage with zeolite framework for supercapacitors
Co-CTAB-6 · Electrode · Specific capacitance at 1 A/g for Co-MOF and CTAB series from Table 1; selected rate values from main text and Fig. 7a.
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 · 12 h test at 10 mA cm-2 in 1 M KOH; LSV before/after, XRD and TEM after stability test.
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 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
ZIF@HMCS-25% Zn-air battery air cathode · Electrode · Zn plate anode, ZIF@HMCS-25% air cathode, 6 M KOH/0.2 M zinc acetate electrolyte; cycling at 5 mA cm^-2
2020 · Encapsulating metal organic framework into hollow mesoporous carbon sphere as efficient oxygen bifunctional electrocatalyst
ZIF@HMCS-25% catalyst ink electrode · Electrode · RDE, 5 mA cm^-2, same rotation rate as OER test
2020 · Heteroatom-doped 3D porous carbon architectures for highly stable aqueous zinc metal batteries and non-aqueous lithium metal batteries
NOCA@CF · Electrode · NOCA@CF anode tested at 500 mA g-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 · 1.5-3.0 V vs Li+/Li; 1 M LiTFSI in DOL/DME (1:1); 300 and 1000 mA g-1; 500 cycles
2020 · Highly Conductive Two-Dimensional Metal-Organic Frameworks for Resilient Lithium Storage with Superb Rate Capability
high-loading Cu-BHT/CNT/PVDF cathode, 90:5:5 · Electrode · 50 mA g-1; mass loadings 1.22, 2.52 and 3.06 mg cm-2 discussed
2020 · Highly Conductive Two-Dimensional Metal-Organic Frameworks for Resilient Lithium Storage with Superb Rate Capability
CNT-free Cu-BHT/PVDF control electrode · Electrode · first cycle at 300 mA g-1; Cu-BHT/PVDF without CNTs
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 · current densities from 100 to 2000 mA g-1 in 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 · Long-term durability at 10 mA cm-2 for 24 h at room temperature; LSV before and after 1000 cycles.
2020 · In Situ Growth of Lithiophilic MOF Layer Enabling Dendrite-free Lithium Deposition
Li@Cu-MOF-30 min · Electrode · Voltage difference between charge and discharge platforms for Li@Cu-MOF-30 min, Li@Cu-MOF-24 h and Li@Cu cells.
2020 · In Situ Growth of Lithiophilic MOF Layer Enabling Dendrite-free Lithium Deposition
Cu-MOF-30 min · Electrode · Fixed plating capacity 1 mAh cm^-2 and current density 0.5 mA cm^-2; profiles followed for 300 cycles.
2020 · Mixed Anionic and Cationic Redox Chemistry in a Tetrathiomolybdate Amorphous Coordination Framework
<Na2MoS4> Li half-cell electrode with 0 wt % Super P · Electrode · Li half-cells at C/5 in 1.4-3.0 V vs Li+/Li with 0, 10, 20, and 30 wt % Super P.
2020 · Mixed Anionic and Cationic Redox Chemistry in a Tetrathiomolybdate Amorphous Coordination Framework
<Na2MoS4>/Super P Li half-cell electrodes · Electrode · Li and Na half-cells at C/10; voltage windows 1.4-3.0 V vs Li+/Li and 1.1-2.7 V vs Na+/Na.
2020 · Mixed Anionic and Cationic Redox Chemistry in a Tetrathiomolybdate Amorphous Coordination Framework
<Na2MoS4>/Super P Li half-cell electrodes · Electrode · Li half-cells operated in selected windows to emphasise S anionic redox or Mo cationic redox.
2020 · Mixed Anionic and Cationic Redox Chemistry in a Tetrathiomolybdate Amorphous Coordination Framework
<Na2MoS4>/Super P Na half-cell electrode · Electrode · Na half-cells at C/10 in the 1.1-2.7 V window vs Na+/Na; 1 M NaPF6 in EC/DEC electrolyte.
2020 · Mixed Anionic and Cationic Redox Chemistry in a Tetrathiomolybdate Amorphous Coordination Framework
<Na2MoS4>/Super P Li half-cell electrodes · Electrode · 30 wt % carbon-containing <Na2MoS4> Li half-cell electrodes; variable C/10 to 5C rates and extended cycling at 1C.
2020 · Multiscale optimization of Li-ion diffusion in solid lithium metal batteries: Via ion conductive metal-organic frameworks
Li|flexible LCMOF-1 composite SE|LiFePO4 cell · Electrode · C-rate performance of Li|flexible LCMOF-1 composite SE|LFP cell with different Li-IL contents.
2020 · Multiscale optimization of Li-ion diffusion in solid lithium metal batteries: Via ion conductive metal-organic frameworks
Li|flexible LCMOF-1 composite SE|LiFePO4 cell · Electrode · Cycling of Li|flexible LCMOF-1 composite SE|LFP cells at 0.1C and 2C at room temperature.
2020 · Multiscale optimization of Li-ion diffusion in solid lithium metal batteries: Via ion conductive metal-organic frameworks
Li|flexible LCMOF-1 composite SE|LiFePO4 cell · Electrode · Wide-temperature C-rate/cycling from -20 to 60 deg C.
2020 · Multiscale optimization of Li-ion diffusion in solid lithium metal batteries: Via ion conductive metal-organic frameworks
Li|LCMOF-1/PVDF-HFP SE|LiFePO4 cell · Electrode · Li|SE|LFP cell with 90 wt% LCMOF-1/10 wt% PVDF-HFP SE; C-rate and 1C cycling at room temperature.
2020 · Multiscale optimization of Li-ion diffusion in solid lithium metal batteries: Via ion conductive metal-organic frameworks
Li|flexible LCMOF-2 composite SE|LiFePO4 cell · Electrode · Room-temperature 1C cycling of LCMOF-2 flexible composite SE SSB.
2020 · Multiscale optimization of Li-ion diffusion in solid lithium metal batteries: Via ion conductive metal-organic frameworks
Li|flexible LCMOF-3 composite SE|LiFePO4 cell · Electrode · Room-temperature 1C cycling of LCMOF-3 flexible composite SE SSB.
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|Li symmetric cell; 0.05 mA for 200 h then 0.2 mA for 800 h at room temperature; before/after EIS.
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 · Lithium half-cell cycling at 200, 500 and 2000 mA g-1 depending on test.
2020 · Oxygen-Vacancy-Abundant Ferrites on N-Doped Carbon Nanosheets as High-Performance Li-Ion Battery Anodes
NC@NiFe2O4 powder · Powder · Lithium half-cell cycling at 200, 500 and 2000 mA g-1 depending on test.
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 composite working electrode · Electrode · 1000 cycles at 5 A g-1 in 3 M KOH three-electrode configuration.
2020 · Pillared nickel-based metal-organic frameworks as electrode material with high electrochemical performance
Ni2(bdc)2P composite working electrode · Electrode · Three-electrode cell in 3 M KOH; current densities from 0.5 to 10 A g-1; potential window not fully specified for Ni-only in main text.
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 · Pillared nickel-based metal-organic frameworks as electrode material with high electrochemical performance
(Zn/Ni)2(bdc)2P composite working electrode · Electrode · Three-electrode cell in 3 M KOH; potential window 0-0.5 V; current densities from 0.5 to 10 A g-1.
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 · 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
Symmetric supercapacitor assembled from two Cu3(HHTP)2 NWA electrodes · Electrode · 5000 GCD cycles between 0 and 0.8 V at 5 A g-1; energy and power density plotted versus current density.
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 · 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 · 5000 GCD cycles between -0.6 V and -0.02 V at 10 A g-1 in 1 M KCl; PXRD before/after cycling.
2020 · Temperature effect on the synthesis of two Ni-MOFs with distinct performance in supercapacitor
Ni-MOF-2D working electrode · Electrode · Three-electrode cell in 3 M KOH; specific capacitance calculated as C = I Delta t / (m Delta V); current densities 1, 2, 4, 6, 8 and 10 A g-1.
2020 · Temperature effect on the synthesis of two Ni-MOFs with distinct performance in supercapacitor
Ni-MOF-3D working electrode · Electrode · Three-electrode cell in 3 M KOH; specific capacitance calculated as C = I Delta t / (m Delta V); current densities 1, 2, 4, 6, 8 and 10 A g-1.
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 · Ultrathin two-dimensional conjugated metal-organic framework single-crystalline nanosheets enabled by surfactant-assisted synthesis
HHB-Cu NS organic cathode electrode · Electrode · HHB-Cu NS cathode cycled at 1.0 A g^-1; 1.3-2.6 V vs Li/Li+.
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 conjugated metal-organic framework single-crystalline nanosheets enabled by surfactant-assisted synthesis
HHB-Cu NS organic cathode electrode · Electrode · Potential window 1.3-2.6 V vs Li/Li+ unless otherwise noted; current densities from 0.1 to 2.0 A g^-1.
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 Li+ conductive metal organic framework electrolyte boosts the high-temperature performance of dendrite-free lithium batteries
Li/ILE@MOF/LiFePO4 cell · Electrode · Li/LiFePO4 cell, 2.7-4.2 V, 0.1 C, 60 deg C.
2019 · A Li+ conductive metal organic framework electrolyte boosts the high-temperature performance of dendrite-free lithium batteries
Li/ILE@MOF/Li symmetric cell · Model · 0.5 mA cm-2, 1 mAh cm-2 at 150 deg C; each cycle 2 h stripping and 2 h plating.
2019 · A Li+ conductive metal organic framework electrolyte boosts the high-temperature performance of dendrite-free lithium batteries
Li/ILE@MOF/Li symmetric cell · Model · 0.5 mA cm-2, 0.5 mAh cm-2 at 60 deg C; each cycle 1 h stripping and 1 h plating.
2019 · A Li+ conductive metal organic framework electrolyte boosts the high-temperature performance of dendrite-free lithium batteries
Li/ILE@MOF/Li4Ti5O12 cell · Electrode · Li/Li4Ti5O12 cell, 1.0-2.5 V, 1.0 C at 150 deg C; room-temperature profile also shown at 0.1 C.
2019 · A Li+ conductive metal organic framework electrolyte boosts the high-temperature performance of dendrite-free lithium batteries
Li/ILE@MOF/LiNi0.33Mn0.33Co0.33O2 cell · Electrode · Li/LiNi0.33Mn0.33Co0.33O2 cells, 2.8-4.2 V, 2.0 C, 60/90/120/150 deg C.
2019 · A Li+ conductive metal organic framework electrolyte boosts the high-temperature performance of dendrite-free lithium batteries
Li/ILE@MOF/LiNi0.8Mn0.1Co0.1O2 cell · Electrode · Li/LiNi0.8Mn0.1Co0.1O2 cell, 2.7-4.3 V, 2.0 C, 150 deg C.
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 · 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+ in the 0.01-3.0 V window; current densities from 0.1 to 2.0 A g^-1; Land CT2001A system.
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 · Relaxation interval 600 s at 0.5 A g^-1 during discharge; D_Li calculated from GITT equations.
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 · Conductive 2D metal-organic framework for high-performance cathodes in aqueous rechargeable zinc batteries
Cu3(HHTP)2 high-active-loading cathode electrode, 90:5:5 · Electrode · Cu3(HHTP)2:acetylene black:PVDF = 90:5:5 electrode at 500 mA g^-1.
2019 · Conductive 2D metal-organic framework for high-performance cathodes in aqueous rechargeable zinc batteries
Zn-Cu3(HHTP)2 coin cell · Electrode · Two-electrode Zn-Cu3(HHTP)2 coin cells, 3 M Zn(CF3SO3)2 in water, 0.5-1.3 V vs Zn/Zn2+, 25 deg C, constant current mode.
2019 · Conductive 2D metal-organic framework for high-performance cathodes in aqueous rechargeable zinc batteries
Zn-Cu3(HHTP)2 coin cell · Electrode · First charge process between 0.5 V and 1.3 V; current density 50 mA g^-1; pulse time interval tau = 30 min.
2019 · Conductive 2D metal-organic framework for high-performance cathodes in aqueous rechargeable zinc batteries
Zn-Cu3(HHTP)2 coin cell · Electrode · 0.25 M Zn(CF3SO3)2 in MeCN, 50 mA g^-1, 0.5-1.3 V vs Zn/Zn2+.
2019 · Conductive metal–organic framework with redox metal center as cathode for high rate performance lithium ion battery
Co3(HHTP)2 cathode electrode · Electrode · Co3(HHTP)2 cathode at 1C for different cycles.
2019 · Conductive metal–organic framework with redox metal center as cathode for high rate performance lithium ion battery
Cu3(HHTP)2 cathode electrode · Electrode · 1C cycling between 1.7 and 3.5 V vs Li+/Li at room temperature; first, second, fifth, tenth and twentieth cycles plotted.
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 · Charge/discharge profiles at 0.1, 0.2, 0.5, 1 and 2 C for PP and modified-separator cells.
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 · Long-time cycling for 300 cycles at 0.5 C; capacities based on sulfur mass.
2019 · Conductive MOF-Modified Separator for Mitigating the Shuttle Effect of Lithium-Sulfur Battery through a Filtration Method
CR2025 Li-S cell with PP separator · Unknown · Long-time cycling for 300 cycles at 0.5 C; capacities based on sulfur mass.
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 · Cycling at 0.2 and 0.5 A g-1 for 200 cycles; CE values approach 100% except first cycle.
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 · XRD patterns during discharge to 1.0/0.5/0.01 V and charge to 1.5/3.0 V; used to infer structural change and recovery.
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 · Potential range 0.01-3.0 V at 0.2 A g-1; first three cycles.
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 · Ni-CAT anode at 0.5 A g-1; charge/discharge pulse time t = 200 s and rest time tau = 150 s; DLi calculated from E vs t1/2 details in Fig. S3.
2019 · Exposing {001} Crystal Plane on Hexagonal Ni-MOF with Surface-Grown Cross-Linked Mesh-Structures for Electrochemical Energy Storage
bare Ni-foam electrode · Electrode · Bare Ni foam in three-electrode cell with 3.0 M KOH; 0.49 V voltage window.
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; Y1-Y5 at 0.5 A g-1 and Y3//AC at 0.5, 0.6, 1, 2, 3, and 5 A g-1.
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 · Energy and power densities calculated for Ni-MOF//AC aqueous devices from two-electrode GCD curves.
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; Y1-Y5 at 0.5 A g-1 and Y3 at 0.5, 0.6, 1, 2, 3, and 5 A g-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
Co2-Ni-MOF working electrode · Electrode · 3000 cycles at 6 A/g in 6 M KOH for Ni-MOF and Co2-Ni-MOF electrodes.
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 · 10 mA cm-2 for 2000 s in alkaline OER conditions; LSV before/after; TEM, EDX and XPS after cycling.
2019 · Highly Conductive Bimetallic Ni-Fe Metal Organic Framework as a Novel Electrocatalyst for Water Oxidation
FeNi-DOBDC-3 · Nanosheet · ADT by continuous CV scanning; chrono measurement at eta = 278 mV for 12 h without iR compensation; post-test XPS/HRTEM after OER catalysis at 15 mA cm-2 for 1 h.
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 · CR2032 cells between 3.5 and 4.9 V vs Li/Li+ at 40 C; initial profiles at 0.1C; rate test charged at 1C and discharged from 1C to 20C; cycling at 1C for 500 cycles.
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 · CR2032 cells between 3.5 and 4.9 V vs Li/Li+ at 40 C; initial profiles at 0.1C; rate test charged at 1C and discharged from 1C to 20C; cycling at 1C for 500 cycles.
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 · CR2032 cells between 3.5 and 4.9 V vs Li/Li+ at 40 C; initial profiles at 0.1C; rate test charged at 1C and discharged from 1C to 20C; cycling at 1C for 500 cycles.
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 · CR2032 cells between 3.5 and 4.9 V vs Li/Li+ at 40 C; initial profiles at 0.1C; rate test charged at 1C and discharged from 1C to 20C; cycling at 1C for 500 cycles.
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 · CR2032 cells between 3.5 and 4.9 V vs Li/Li+ at 40 C; initial profiles at 0.1C; rate test charged at 1C and discharged from 1C to 20C; cycling at 1C for 500 cycles.
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 · CR2032 cells between 3.5 and 4.9 V vs Li/Li+ at 40 C; initial profiles at 0.1C; rate test charged at 1C and discharged from 1C to 20C; cycling at 1C for 500 cycles.
2019 · Mo-Based crystal POMOFs with a high electrochemical capacitor performance
PMo@TBAB parent POM control powder · Powder · Parent POM (PMo@TBAB), bare Cu-MOF and compound 1 used as electrode materials for capacitance-performance comparison; exact current density not stated in SI text around Figure S9.
2019 · Mo-Based crystal POMOFs with a high electrochemical capacitor performance
compound 1-based GCE working electrode · Electrode · 1000 charge/discharge cycles at 10 A g-1 in 1 M H2SO4.
2019 · Mo-Based crystal POMOFs with a high electrochemical capacitor performance
compound 2-based GCE working electrode · Electrode · 1000 charge/discharge cycles at 10 A g-1 in 1 M H2SO4.
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; current densities 3, 5, 8 and 10 A g-1.
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; current densities 3, 5, 8 and 10 A g-1.
2018 · Composition-dependent electrocatalytic activities of NiFe-based selenides for the oxygen evolution reaction
Ni-Fe-Se1:1-180 · Powder · OER stability at constant current densities of 10 and 20 mA cm-2 for 12 h.
2018 · Conductive Metal-Organic Frameworks as Ion-to-Electron Transducers in Potentiometric Sensors
GCE/K+-ISM-II control without MOF · Electrode · +1 nA for 60 s followed by -1 nA for 60 s in 0.1 M KCl at room temperature.
2018 · Conductive Metal-Organic Frameworks as Ion-to-Electron Transducers in Potentiometric Sensors
GCE/Ni3HHTP2 MOF/K+-ISM-II potentiometric device · Electrode · +1 nA for 60 s followed by -1 nA for 60 s in 0.1 M KCl at room temperature.
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 · 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 · LIB anode cycling at 1.0 A g-1 for 400 cycles; H-Fe2O3-NSA rate test from 1.0 to 10.0 A g-1 and restored 1.0 A g-1
2018 · Electrochemical properties of uniquely structured Fe2O3 and FeSe2/graphitic-carbon microrods synthesized by applying a metal-organic framework
H-Fe2O3-NSA microrods · Powder · LIB anodes at current density 1 A g-1; comparison of H-Fe2O3-NSA and D-Fe2O3-NSA
2018 · Electrochemical properties of uniquely structured Fe2O3 and FeSe2/graphitic-carbon microrods synthesized by applying a metal-organic framework
H-FeSe2/GC microrods · Powder · SIB cycling at 0.2 A g-1 over 100 cycles; rate performance from 0.2 to 5.0 A g-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 · SIB anodes at current density 0.2 A g-1; comparison of H-FeSe2/GC and D-FeSe2/C
2018 · Electrochemical properties of uniquely structured Fe2O3 and FeSe2/graphitic-carbon microrods synthesized by applying a metal-organic framework
graphitic carbon microrods · Powder · Graphitic carbon microrods assembled with sodium metal counter electrode to evaluate graphitic-carbon capacity contribution
2018 · Encapsulating ionic liquids into POM-based MOFs to improve their conductivity for superior lithium storage
PMo10V2@MIL-100 composite electrode · Electrode · Control-electrode cycling at 0.1 A g^-1; results include PMo10V2@MIL-100, ILs@MIL-100, PMo10V2 and MIL-100 controls.
2018 · Encapsulating ionic liquids into POM-based MOFs to improve their conductivity for superior lithium storage
PMo10V2-ILs@MIL-100 composite electrode · Electrode · 0.01-3.0 V window at 0.1 A g^-1 for cycle performance.
2018 · Encapsulating ionic liquids into POM-based MOFs to improve their conductivity for superior lithium storage
PMo10V2-ILs@MIL-100 composite electrode · Electrode · Cycling at 1 A g^-1 after a few cycles at 0.1 A g^-1.
2018 · Encapsulating ionic liquids into POM-based MOFs to improve their conductivity for superior lithium storage
PMo10V2-ILs@MIL-100 composite electrode · Electrode · Charge capacity measured as current density increased from 0.1 to 3 A g^-1 and returned to 0.1 A g^-1.
2018 · Increased Electrical Conductivity in a Mesoporous Metal-Organic Framework Featuring Metallacarboranes Guests
spin-coated Mn-AIM-NiCB@NU-1000 thin film · Thin Film · Spin-coated Mn-AIM-NiCB@NU-1000 film in 0.1 M Na2SO4(aq); specific capacitance and addressable Mn fraction calculated from discharge curves and ICP/UV-vis loading.
2018 · Increased Electrical Conductivity in a Mesoporous Metal-Organic Framework Featuring Metallacarboranes Guests
spin-coated Mn-AIM-NU-1000 thin film · Thin Film · Spin-coated Mn-AIM-NU-1000 film in 0.1 M Na2SO4(aq); specific capacitance and addressable Mn fraction calculated from discharge curves and ICP/UV-vis loading.
2018 · Increased Electrical Conductivity in a Mesoporous Metal-Organic Framework Featuring Metallacarboranes Guests
spin-coated Mn-AIM-NiCB@NU-1000 thin film · Thin Film · 2000 charge-discharge cycles at 0.08 mA/cm2 in 0.1 M Na2SO4(aq); post-cycling XRD and ICP-OES.
2018 · Modular O2 electroreduction activity in triphenylene-based metal-organic frameworks
Cu3(HHTP)2/Nafion-modified glassy carbon electrode · Electrode · Potential measured at constant current I = -10 uA while pH varied from 13.5 to 8.0 in 0.10 M KOH titrated with 1.0 M HClO4 under O2 at 2000 rpm.
2018 · Nanostructured CuO/C Hollow Shell@3D Copper Dendrites as a Highly Efficient Electrocatalyst for Oxygen Evolution Reaction
HS-CuO/C NDs electrode · Electrode · 1.0 M KOH at 10 mA cm-2 for 50 h.
2018 · Nanostructured CuO/C Hollow Shell@3D Copper Dendrites as a Highly Efficient Electrocatalyst for Oxygen Evolution Reaction
PS-CuO NDs electrode · Electrode · 1.0 M KOH at 10 mA cm-2 for 50 h.
2018 · Nanostructured CuO/C Hollow Shell@3D Copper Dendrites as a Highly Efficient Electrocatalyst for Oxygen Evolution Reaction
PS-CuO/C NDs electrode · Electrode · 1.0 M KOH at 10 mA cm-2 for 50 h.
2018 · Stabilization of Hexaaminobenzene in a 2D Conductive Metal-Organic Framework for High Power Sodium Storage
Carbon-free Co-HAB-D electrode · Electrode · Carbon-free Co-HAB-D tested at 50 mA g^-1 and varied current densities; figure data only partly available from attached SI page.
2018 · Stabilization of Hexaaminobenzene in a 2D Conductive Metal-Organic Framework for High Power Sodium Storage
Co-HAB sodium electrode tested with 0.05 V lower cutoff · Electrode · Na cell cycled with lower discharge cutoff potential of 0.05 V vs Na+/Na; retention assessed after 40 cycles.
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 · Voltage window 0.5-3.0 V vs Na+/Na; standard electrode with 90 wt% Co-HAB; Na metal anode and 1 M NaPF6 in DEGDME electrolyte.
2018 · Stabilization of Hexaaminobenzene in a 2D Conductive Metal-Organic Framework for High Power Sodium Storage
Ni-HAB sodium half-cell electrode · Electrode · Conditions identical to Co-HAB; current 50 mA g^-1 and voltage window 0.5-3.0 V according to Fig. S12 caption.
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 · 0.4 C, 0.13 A g-1; 2.0-4.4 V vs Li/Li+; repeated up to 200 cycles
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 · 0.04 C, 13 mA g-1; 2.0-4.4 V vs Li/Li+; cut-off time 1440 min discharge and 1440 min charge
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 · various C-rates from 0.04 C (13 mA g-1) to 17 C (5.2 A g-1), 2.0-4.4 V vs Li/Li+
2017 · 2D MOF nanoflake-assembled spherical microstructures for enhanced supercapacitor and electrocatalysis performances
Ni-MOF nanoflakes · Nanosheet · Specific capacitance comparison of Ni-MOF nanoflakes and ZIF-67 controls at 0.5 A g-1 in 1 M LiOH.
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 · Three-electrode system in 2 M KOH aqueous electrolyte; NP-series active material/Super-P/PVDF working electrodes on graphite; capacitance calculated from discharge.
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 · 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; current densities 0.25, 0.5, 1.0, 2.5 and 5.0 A g-1.
2017 · Conductive Metal–Organic Framework Nanowire Array Electrodes for High-Performance Solid-State Supercapacitors
Cu-CAT nanowire arrays on carbon fibre paper · Electrode · Three-electrode cell in 3 M KCl; current densities 0.5, 1.0, 2.0, 5.0 and 10.0 A g-1.
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@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//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 · Fabrication of Hierarchical Porous Metal-Organic Framework Electrode for Aqueous Asymmetric Supercapacitor
PC//HP-UiO-66 ASC · Electrode · PC//HP-UiO-66 ASC cycled from 0 to 1.6 V at 5 A g-1.
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 0-1.6 V window; capacitance by eq 2; energy and power by eqs 3-4.
2017 · Fabrication of Hierarchical Porous Metal-Organic Framework Electrode for Aqueous Asymmetric Supercapacitor
HP-UiO-66 working electrode · Electrode · 6 M KOH aqueous electrolyte; capacitance calculated from discharge curves.
2017 · Fabrication of Hierarchical Porous Metal-Organic Framework Electrode for Aqueous Asymmetric Supercapacitor
Bare UiO-66 working electrode · Electrode · 6 M KOH aqueous electrolyte; capacitance calculated from discharge curves.
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, voltage window 0.001-3.0 V; 0.1 A g-1 initial and cycling charge/discharge.
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 electrode tested in the same cell configuration as YC-ZnO.
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 · Long-term cycling at successive 0.5 and 2 A g-1, and high-rate 10 A g-1 for 5000 cycles.
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 · YC-ZnO discharge capacities at current densities from 0.1 to 10 A g-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 · Solid ZnO control rate performance at current densities from 0.1 to 10 A g-1; main text reports the 10 A g-1 value and rendered SI Fig. S4 shows the full curve.
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 · constant current I = -10 uA; pH varied from 13.5 to 9.5 in 0.10 M KOH with 1.0 M HClO4 under O2, then titrated back with 1.0 M KOH
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 cycling at 10 A g-1 for 3000 cycles; compared to Zn/Ni-MOF and Ni-MOF.
2017 · Mixed-metallic MOF based electrode materials for high performance hybrid supercapacitors
Co/Ni-MOF working electrode on Ni foam · Electrode · Three-electrode GCD in 3 M KOH; capacities calculated from discharge curves.
2017 · Mixed-metallic MOF based electrode materials for high performance hybrid supercapacitors
Ni-MOF working electrode on Ni foam · Electrode · Three-electrode GCD in 3 M KOH; capacities calculated from discharge curves.
2017 · Mixed-metallic MOF based electrode materials for high performance hybrid supercapacitors
Zn/Ni-MOF working electrode on Ni foam · Electrode · Three-electrode GCD in 3 M KOH; capacities calculated from discharge curves.
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 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
carbon black control electrode · Electrode · Carbon black control in the voltage window 0.2-3.0 V.
2017 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
amorphous ZnTPA Li-ion half-cell electrode · Electrode · Capacity retention at 0.5C from second to 100th cycle; carbon-black contribution deducted.
2017 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
crystalline ZnTPA Li-ion half-cell electrode · Electrode · Capacity retention at 0.5C from second to 100th cycle; carbon-black contribution deducted.
2017 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
ZnTPA.2H2O Li-ion half-cell electrode · Electrode · Capacity retention at 0.5C from second to 100th cycle; carbon-black contribution deducted.
2017 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
amorphous ZnTPA Li-ion half-cell electrode · Electrode · Initial discharge-charge at 0.5C over 0.2-3.0 V vs Li+/Li.
2017 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
crystalline ZnTPA Li-ion half-cell electrode · Electrode · Initial discharge-charge at 0.5C over 0.2-3.0 V vs Li+/Li.
2017 · Zinc terephthalates ZnC8H4O4 as anodes for lithium ion batteries
ZnTPA.2H2O Li-ion half-cell electrode · Electrode · Initial discharge-charge at 0.5C over 0.2-3.0 V vs Li+/Li.
2016 · Electrochemical oxygen reduction catalysed by Ni3 (hexaiminotriphenylene)2
Ni3(HITP)2 thin film on glassy carbon electrode · Electrode · Potential measured over 25 min at I = -5 uA while titrating pH 12.89 to 11.54 in 0.10 M KOH with 1.0 M HClO4.
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 · CR2032 coin-type half-cells; 50 mA g^-1; voltage window 0.01-2.5 V vs Li+/Li; room temperature
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 · charge-discharge at 50, 100, 200, 500 mA g^-1 and 1 A g^-1; voltage window 0.01-2.5 V
2015 · A porous proton-relaying metal-organic framework material that accelerates electrochemical hydrogen evolution
NU-1000_Ni-S · Electrode · Faradaic efficiency at 2 mA cm-2 for 3 h in 0.1 M HCl; potentiostatic electrolysis over 8000 s at -210 mV vs RHE for TON/TOF estimate.
2015 · A porous proton-relaying metal-organic framework material that accelerates electrochemical hydrogen evolution
NU-1000_Ni-S · Electrode · Aqueous HCl pH 1; 10 mA cm-2 for 2 h; PXRD before/after; electrolyte UV-vis after catalysis.
2014 · Immobilization of N-(3-aminopropyl)-imidazole through MOFs in proton conductive membrane for elevated temperature anhydrous applications
6% encapsulated MOFs membrane · Thin Film · a.c. current amplitude 0.1 mA; frequency range 1 MHz to 50 Hz; heating/cooling 1-2 deg C/min from ambient to 160 deg C and back in air
No mapped measurement matches these filters.
These are the exact source-preserving method strings consolidated by this technique group.
| Raw method label | Mapped measurements |
|---|---|
| galvanostatic charge-discharge (GCD) | 28 |
| galvanostatic charge-discharge | 20 |
| Galvanostatic cycling | 18 |
| Long-term galvanostatic cycling | 13 |
| Galvanostatic charge-discharge | 13 |
| constant-current charge-discharge cycling | 11 |
| Galvanostatic charge/discharge | 9 |
| galvanostatic charge/discharge | 9 |
| Galvanostatic charge-discharge (GCD) | 9 |
| GCD cycling stability | 8 |
| Galvanostatic charge-discharge (GCD), three-electrode cell | 7 |
| galvanostatic cycling | 6 |
| Galvanostatic CO2 reduction electrolysis | 6 |
| Galvanostatic charge/discharge in three-electrode cell | 6 |
| Chronopotentiometry (CP) charge-discharge | 6 |
| Chronopotentiometry stability test | 6 |
| galvanostatic charge/discharge, rate capability and cycling | 6 |
| Long-term GCD cycling | 5 |
| Galvanostatic intermittent titration technique (GITT) | 5 |
| galvanostatic discharge | 5 |
| galvanostatic charge/discharge in three-electrode cell | 5 |
| Galvanostatic charge/discharge cycling | 5 |
| galvanostatic discharge-charge | 5 |
| galvanostatic charge-discharge specific capacitance | 4 |
| Galvanostatic rate capability | 4 |
| GCD rate capability | 4 |
| galvanostatic intermittent titration technique (GITT) | 4 |
| long-term galvanostatic cycling | 4 |
| rate capability galvanostatic cycling | 4 |
| cyclic voltammetry and galvanostatic charge-discharge, three-electrode | 4 |
| galvanostatic rate performance | 4 |
| CV, GCD and EIS | 4 |
| constant-current discharge | 4 |
| galvanostatic cycling performance | 3 |
| galvanostatic rate capability | 3 |
| GCD and EIS performance comparison | 3 |
| Two-electrode HSC CV/GCD/Ragone/cycling | 3 |
| GCD specific capacity | 3 |
| CV and galvanostatic charge-discharge | 3 |
| galvanostatic charge-discharge in LIB | 3 |
| galvanostatic charge-discharge in SIB | 3 |
| galvanostatic cycling and rate performance | 3 |
| Na half-cell galvanostatic cycling | 3 |
| cycling stability by repeated charge-discharge | 3 |
| Galvanostatic cycling stability test | 3 |
| three-electrode CV, GCD and EIS | 3 |
| AEMEC full-cell MEA chronopotentiometry | 3 |
| Rate capability galvanostatic cycling | 3 |
| Charge-discharge cycling durability | 3 |
| Cycling stability by repeated GCD | 3 |
| CV and galvanostatic charge-discharge in symmetric coin cells | 3 |
| GCD cycling stability (three-electrode) | 3 |
| Galvanostatic charge-discharge (three-electrode) | 3 |
| CV, GCD and EIS in three-electrode cell | 3 |
| ENRR in H-cell with LSV and constant-current tests; indophenol blue NH3 quantification | 3 |
| CV, GCD and EIS in three-electrode setup | 3 |
| CV and galvanostatic charge/discharge in Zn-ion coin cell | 3 |
| rate capability galvanostatic charge/discharge | 3 |
| symmetric two-electrode supercapacitor CV, GCD, cycling and EIS | 3 |
| Galvanostatic charge-discharge rate performance | 3 |
| three-electrode CV, GCD, EIS and cycling | 3 |
| GCD areal-capacitance comparison | 2 |
| Galvanostatic intermittent titration technique | 2 |
| Three-electrode CV, GCD, and EIS | 2 |
| galvanostatic cycling stability | 2 |
| chronopotentiometric charge-discharge | 2 |
| HER LSV, Tafel, EIS, and chronopotentiometry | 2 |
| Galvanostatic charge/discharge (GCD), three-electrode system | 2 |
| OER EIS and chronopotentiometric stability | 2 |
| long-term GCD cycling stability | 2 |
| Three-electrode CV and galvanostatic charge-discharge | 2 |
| galvanostatic cycling at 0.5 C | 2 |
| galvanostatic cycling at 1 C | 2 |
| initial galvanostatic discharge-charge profiles | 2 |
| galvanostatic charge-discharge, LAND CT2001A | 2 |
| Galvanostatic charge/discharge, rate performance and cycling | 2 |
| Galvanostatic charge/discharge (GCD) | 2 |
| Two-electrode CV and GCD | 2 |
| Asymmetric supercapattery CV/GCD/Ragone/cycling tests | 2 |
| Galvanostatic charge-discharge in three-electrode system | 2 |
| Galvanostatic discharge-charge | 2 |
| Galvanostatic rate performance | 2 |
| chronopotentiometry | 2 |
| Three-electrode CV and GCD | 2 |
| CV and GCD, three-electrode cell | 2 |
| Galvanostatic deep discharge-charge | 2 |
| galvanostatic charge/discharge cycling | 2 |
| long-cycling galvanostatic profiles | 2 |
| galvanostatic discharge/charge | 2 |
| rate capability galvanostatic profiles | 2 |
| Galvanostatic charge/discharge in Li half-cell | 2 |
| Galvanostatic charge-discharge (GCD), three-electrode | 2 |
| CV and galvanostatic charge-discharge in three-electrode cell | 2 |
| CV, b-value analysis, Dunn analysis, GCD and cycling | 2 |
| Galvanostatic discharge-charge cycling | 2 |
| Long-term constant-current cycling | 2 |
| Galvanostatic charge-discharge, three-electrode | 2 |
| Galvanostatic charge-discharge (GCD), two-electrode hybrid device | 2 |
| Galvanostatic charge-discharge specific capacity | 2 |
| GCD cycling/rate tests in Na half-cell | 2 |
| Galvanostatic charge-discharge full-cell cycling | 2 |
| Galvanostatic Li plating/stripping | 2 |
| Na half-cell galvanostatic cycling and CV | 2 |
| two-electrode asymmetric supercapacitor CV, GCD, EIS and Ragone analysis | 2 |
| Li stripping/plating galvanostatic cycling | 2 |
| two-electrode ASC CV, GCD, EIS, Ragone plot and cycling | 2 |
| Galvanostatic charge-discharge using CHI 760E electrochemical workstation | 2 |
| constant-current chronopotentiometry | 2 |
| temperature-dependent galvanostatic cycling | 2 |
| temperature-dependent galvanostatic cycling normalised by total electrode mass | 2 |
| rate capability and galvanostatic cycling | 2 |
| Galvanostatic ORR proton order study | 1 |
| Galvanostatic voltage profiles and rate capability of carbon-free Co-HAB-D electrode | 1 |
| Galvanostatic cycling with lower discharge cutoff | 1 |
| Galvanostatic cycling of 2032 Na half-cells | 1 |
| Galvanostatic cycling of Ni-HAB in Na half-cell | 1 |
| CV, GCD and EIS in 3 M KOH | 1 |
| galvanostatic high-sulfur-loading Li-S cycling under lean electrolyte | 1 |
| Two-electrode solid-state galvanostatic charge/discharge | 1 |
| CV and GCD control measurements of activated carbon electrode | 1 |
| Device galvanostatic charge-discharge | 1 |
| Galvanostatic charge-discharge with Gamry REF-3000 potentiostat | 1 |
| Cyclic stability by repeated GCD cycling | 1 |
| Cyclic voltammetry and galvanostatic charge-discharge in symmetric EDLC | 1 |
| CV, GCD and EIS in symmetric EDLC without conductive additive | 1 |
| GCD with increasing final cell voltages and CV stress test | 1 |
| CV, GCD rate and cycle testing in symmetric EDLC | 1 |
| Long-term galvanostatic cycling. | 1 |
| CV, galvanostatic charge-discharge, rate and cycling tests. | 1 |
| Galvanostatic charge-discharge. | 1 |
| Galvanostatic charge/discharge, cycling, and rate tests | 1 |
| two-electrode ZHS CV and GCD | 1 |
| CV, GCD, EIS, and cycling of 8OH-DBC ligand control | 1 |
| Symmetric solid-state cell CV, GCD, EIS, cycling, Ragone analysis | 1 |
| rate-dependent galvanostatic discharge/charge | 1 |
| Three-electrode supercapacitor CV, galvanostatic charge/discharge and EIS | 1 |
| two-electrode symmetric solid-state supercapacitor CV, GCD, EIS, cycling and LED demo | 1 |
| three-electrode CV and galvanostatic charge-discharge | 1 |
| OER CV, LSV, Tafel and chronopotentiometry | 1 |
| asymmetric supercapacitor CV, GCD, EIS, Ragone, and cycling | 1 |
| three-electrode CV, GCD, and EIS protocol | 1 |
| Accelerated CV cycling and chronopotentiometry | 1 |
| LSV/CV/chronopotentiometry/EIS in three-electrode OER cell | 1 |
| Chronoamperometry/chronopotentiometry durability and post-test XRD/TEM | 1 |
| charge-discharge reference | 1 |
| Three-electrode CV and galvanostatic charge/discharge in Swagelok cell | 1 |
| long-term chronopotentiometric cycling | 1 |
| charge-discharge cycling | 1 |
| Cyclic voltammetry and galvanostatic charge-discharge in three-electrode cell | 1 |
| Continuous GCD cycling stability and post-cycling SEM/EIS/XPS/XRD/FTIR checks | 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 |
| galvanostatic cycling with varied conductive carbon content | 1 |
| galvanostatic charge/discharge in Li half-cells | 1 |
| galvanostatic cycling electrolyte screen | 1 |
| ORR proton order by galvanostatic pH titration | 1 |
| Accelerated durability test, chronopotentiometry, post-OER XPS/HRTEM | 1 |
| Galvanostatic sodium-ion storage | 1 |
| Cyclic voltammetry and galvanostatic charge/discharge in Li half-cell | 1 |
| Long-cycle galvanostatic cycling | 1 |
| Rate-performance galvanostatic charge/discharge | 1 |
| CV cycling, chronoamperometry, chronopotentiometry | 1 |
| CV/GCD/EIS of CNTs-COOH | 1 |
| GCD cycling | 1 |
| CV and GCD of activated carbon negative electrode | 1 |
| Galvanostatic charge-discharge comparison in a three-electrode cell | 1 |
| Galvanostatic charge-discharge in a three-electrode cell | 1 |
| Hybrid supercapacitor CV and GCD | 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 |
| long cycling charge-discharge | 1 |
| galvanostatic cycling under high active-material fraction | 1 |
| galvanostatic discharge-charge and rate capability | 1 |
| galvanostatic discharge-charge in organic electrolyte | 1 |
| Cyclic voltammetry and galvanostatic charge-discharge in a three-electrode system | 1 |
| Two-electrode CV, GCD and Ragone analysis | 1 |
| galvanostatic charge/discharge under lean electrolyte | 1 |
| Galvanostatic fast-charge/slow-discharge test | 1 |
| Pouch-cell EIS and GCD under folding | 1 |
| Chronopotentiometry | 1 |
| galvanostatic charge-discharge comparison | 1 |
| cyclic voltammetry and galvanostatic charge-discharge | 1 |
| two-electrode ASC CV, GCD, cycling and Ragone analysis | 1 |
| galvanostatic charge-discharge (GCD), three-electrode cell | 1 |
| Galvanostatic discharge/charge | 1 |
| Cycling performance by galvanostatic discharge/charge | 1 |
| Four-probe AC impedance, Autolab PGSTAT 302, galvanostatic mode | 1 |
| CV and GCD, three-electrode | 1 |
| constant charge-discharge cycling | 1 |
| CV, GCD, cycling, and Ragone analysis, two-electrode HSC | 1 |
| three-electrode CV and GCD | 1 |
| Rechargeable Zn-air battery polarisation and galvanostatic charge/discharge cycling | 1 |
| OER chronopotentiometry durability with post-test PXRD/XPS/TEM | 1 |
| two-electrode HSC CV/GCD/Ragone/cycling | 1 |
| Rechargeable aqueous Zn-air battery OCV, specific capacity, charge-discharge, polarisation, power density and durability | 1 |
| OER LSV, Tafel, EIS, and chronopotentiometry | 1 |
| Overall water splitting LSV and chronopotentiometry | 1 |
| CV and GCD of series/parallel supercapacitor packs | 1 |
| Repeated GCD cycling stability | 1 |
| Galvanostatic charge/discharge and Ragone analysis, 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 |
| High-rate constant-current eCO2RR in three-compartment cell | 1 |
| two-electrode asymmetric supercapacitor CV, GCD, Ragone, EIS and cycling | 1 |
| Galvanostatic Li/LiCoO2 cell testing | 1 |
| Galvanostatic Li/LiFePO4 cell testing | 1 |
| SI XRD impurity estimate and GCD control | 1 |
| Two-electrode supercapacitor CV, GCD, rate and cycling tests | 1 |
| Charge-discharge voltage profiles | 1 |
| Galvanostatic charge-discharge cycling, LAND CT2001A | 1 |
| Rate capability by GCD | 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 |
| Galvanostatic charge/discharge cycling of NOCA@CF as LIB anode | 1 |
| Three-electrode CV/GCD/EIS in 1 M KCl | 1 |
| Three-electrode GCD/CV/EIS in 1 M KCl | 1 |
| 2032 coin-cell LIB measurements; galvanostatic cycling, CV, EIS | 1 |
| 2032 coin-cell SIB measurements; galvanostatic cycling, CV, EIS | 1 |
| Two-electrode asymmetric supercapacitor CV, GCD and cycling | 1 |
| Galvanostatic cycling stability | 1 |
| galvanostatic cycling in 2032 Li half-cell | 1 |
| galvanostatic capacity at high mass loading | 1 |
| galvanostatic charge-discharge control | 1 |
| GCD comparison for control materials | 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 |
| Galvanostatic Li|Li symmetric-cell cycling | 1 |
| Galvanostatic full-cell cycling | 1 |
| Galvanostatic cycling under low-earth-orbit thermal-vacuum stress | 1 |
| Galvanostatic cycling and rate capability in Li half cells | 1 |
| Galvanostatic charge-discharge and differential capacity in Li half cells | 1 |
| Galvanostatic charge-discharge and cycling in Na and K half cells | 1 |
| Ex situ FTIR, elemental analysis, and XPS during charge-discharge | 1 |
| galvanostatic charge-discharge cycling | 1 |
| Two-electrode ASC CV, GCD and EIS on CHI760e | 1 |
| Three-electrode cyclic voltammetry and galvanostatic charge-discharge | 1 |
| Flexible Zn battery GCD, bending, cycling and open-circuit voltage | 1 |
| Galvanostatic cycling under high loading | 1 |
| Galvanostatic cycling comparison | 1 |
| Galvanostatic charge-discharge on LAND battery tester | 1 |
| Rate-capability galvanostatic cycling | 1 |
| CV, GCD, rate and cycling tests for AC cathode | 1 |
| Galvanostatic charge-discharge and cycling | 1 |
| Full-cell CV, GCD, Ragone and cycling tests | 1 |
| Chronopotentiometry stability test with post-test SEM, EDX and XRD | 1 |
| Two-electrode asymmetric-supercapacitor GCD and energy/power calculation | 1 |
| two-electrode supercapattery CV, GCD, Ragone and cycling | 1 |
| two-electrode supercapattery CV, GCD and cycling | 1 |
| GCD cycling stability of asymmetric cell | 1 |
| Galvanostatic charge-discharge of asymmetric cell | 1 |
| Galvanostatic charge-discharge (GCD) in three-electrode configuration | 1 |
| GCD rate capability and cycling stability of asymmetric hybrid supercapacitor device | 1 |
| Galvanostatic cycling of dehydrated electrode | 1 |
| Galvanostatic discharge-charge in CR2016 Li coin cells | 1 |
| Rate-performance galvanostatic cycling | 1 |
| Galvanostatic discharge-charge in Na coin cells | 1 |
| CV and galvanostatic charge-discharge in three-electrode configuration | 1 |
| Galvanostatic charge-discharge controls | 1 |
| PEM water electrolyser polarisation, chronopotentiometry and chronoamperometry | 1 |
| HLIC CV, GCD, Ragone analysis and long-term cycling | 1 |
| galvanostatic charge-discharge, rate capability and long-term cycling | 1 |
| soft-packed full-battery galvanostatic cycling and bending test | 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 and galvanostatic charge-discharge (GCD) | 1 |
| Ex situ XRD during first charge-discharge cycle | 1 |
| Flow-cell CO2RR under chronopotentiometric mode | 1 |
| Chronopotentiometric/cycling stability at constant current and post-OER characterisation | 1 |
| Hybrid supercapacitor CV, GCD, Ragone plot, and cycling | 1 |
| SEM and GCD for 0.25/0.75 variants | 1 |
| CV and GCD | 1 |
| Two-electrode hybrid supercapacitor CV/GCD/Ragone/cycling | 1 |
| linear sweep voltammetry and chronopotentiometry OER testing | 1 |
| galvanostatic discharge-charge with composite solid-state electrolyte film only | 1 |
| galvanostatic discharge-charge, cyclic voltammetry, rate capability, long-term cycling | 1 |
| galvanostatic discharge-charge, rate capability, cycling | 1 |
| galvanostatic cycling with liquid electrolyte | 1 |
| XPS after chronopotentiometry stability test | 1 |
| ASC CV and GCD | 1 |
| ASC long-term GCD cycling | 1 |
| activated carbon galvanostatic charge-discharge and capacitance plot | 1 |
| ASC galvanostatic charge-discharge | 1 |
| All-solid-state Zn/PVA-KOH/air battery polarisation and galvanostatic discharge | 1 |
| Flooded Zn/6 M KOH/air battery polarisation and galvanostatic discharge | 1 |
| Cyclic voltammetry and charge-discharge testing | 1 |
| Asymmetric supercapacitor device CV, GCD, EIS, Ragone and cycling tests | 1 |
| Galvanostatic deep discharge | 1 |
| Activated-carbon anode CV/GCD supporting curves | 1 |
| Hybrid supercapacitor GCD | 1 |
| CR2025 lithium half-cell galvanostatic charge/discharge, CV and EIS | 1 |
| Galvanostatic charge-discharge (GCD) and specific capacitance calculation | 1 |
| CV cycling and chronopotentiometry | 1 |
| Two-electrode overall water electrolysis polarisation and chronopotentiometry | 1 |
| galvanostatic cycling with varied Super P content | 1 |
| galvanostatic charge/discharge with ex situ XPS states | 1 |
| variable-rate and long-term galvanostatic cycling | 1 |
| CV, GCD, strain-dependent capacitance and Ragone analysis of stretchable all-solid-state SC | 1 |
| Galvanostatic charge-discharge (GCD), asymmetric device | 1 |
| GCD cycle-shape stability, real device | 1 |
| Specific energy and power calculation from GCD | 1 |
| GCD cycling stability, Q2 electrode | 1 |
| Two-electrode hybrid supercapacitor CV, GCD, Ragone and cycling tests | 1 |
| Galvanostatic Li plating/stripping and EIS | 1 |
| CV and GCD blank-control testing | 1 |
| galvanostatic intermittent titration technique | 1 |
| Full-cell charge-discharge voltage profiles | 1 |
| Galvanostatic Li plating/stripping profile cycling | 1 |
| Galvanostatic charge-discharge cycling | 1 |
| galvanostatic charge/discharge in two-electrode BSH | 1 |
| galvanostatic charge/discharge rate performance | 1 |
| galvanostatic Na stripping/plating cycling | 1 |
| CR2025 sodium-ion battery CV/GCD/cycling/rate tests | 1 |
| LiFePO4 full-cell galvanostatic cycling | 1 |
| GCD and CV of asymmetric supercapacitor | 1 |
| chronopotentiometry and cycling stability | 1 |
| Activated carbon negative-electrode CV, GCD, capacitance and Nyquist tests | 1 |
| Asymmetric supercapacitor CV and GCD | 1 |
| Repeated galvanostatic charge-discharge cycling | 1 |
| Cyclic voltammetry and galvanostatic charge-discharge for Zn2(bdc)2P | 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 |
| Chronoamperometry / chronopotentiometry stability | 1 |
| galvanostatic charge/discharge cycling in Zn-ion coin cell | 1 |
| galvanostatic charge-discharge of asymmetric supercapacitor | 1 |
| galvanostatic charge-discharge (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 |
| Two-electrode symmetric supercapacitor CV and GCD | 1 |
| Two-electrode GCD cycling and Ragone analysis | 1 |
| Three-electrode GCD cycling stability and post-cycling PXRD | 1 |
| Galvanostatic charge-discharge in three-electrode Swagelok cell using Biologic VSP-3e | 1 |
| Full-cell galvanostatic cycling and rate capability | 1 |
| Charge-discharge curves | 1 |
| Constant-current rate capability cycling | 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 |
| Galvanostatic lithiation/delithiation cycling | 1 |
| Operando Raman spectroscopy during first galvanostatic lithiation | 1 |
| Galvanostatic charge-discharge, two-electrode asymmetric device | 1 |
| full-cell galvanostatic cycling and rate performance | 1 |
| cyclic voltammetry, galvanostatic discharge-charge, cycling and rate performance | 1 |
| cyclic voltammetry and galvanostatic discharge-charge | 1 |
| CV and GCD, three-electrode AC control | 1 |
| Galvanostatic charge-discharge specific capacity with active carbon additive | 1 |
| Galvanostatic charge-discharge specific capacity and energy density with SWCNT additive | 1 |
| GCD cycling/rate tests | 1 |
| full-cell CV, GCD, Ragone and cycling tests | 1 |
| Galvanostatic cycling under stepwise increased current densities | 1 |
| post-CV XPS, CV and in situ Raman during charge-discharge | 1 |
| Galvanostatic cycling of Li||Glass@LRMO and Li||Glass@LCO coin cells | 1 |
| Long-term galvanostatic cycling of Li||NCM-811 and Li||Glass@NCM-811 coin cells | 1 |
| Galvanostatic rate performance of Li||cathode coin cells | 1 |
| Galvanostatic charge/discharge and rate tests | 1 |
| Galvanostatic charge/discharge in CR2032 Li half-cell | 1 |
| Ragone plot from GCD curves | 1 |
| CV and galvanostatic charge-discharge in symmetric two-electrode cells | 1 |
| CR2032 half-cell K-ion battery galvanostatic charge-discharge cycling | 1 |
| CR2032 half-cell K-ion battery galvanostatic charge-discharge, rate, cycling, EIS | 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 |
| Galvanostatic charge-discharge/specific capacitance of CTAB series | 1 |
| Long-term galvanostatic cycling stability | 1 |
| Galvanostatic discharge/charge in aqueous Zn cell | 1 |
| Galvanostatic discharge/charge rate testing | 1 |
| galvanostatic H+ order titration | 1 |
| Li-O2 galvanostatic battery cycling control electrolyte | 1 |
| Li-O2 galvanostatic battery cycling | 1 |
| Li-O2 galvanostatic battery cycling without Cu-THQ | 1 |
| Li||Li galvanostatic symmetric-cell cycling and rate test | 1 |
| CV and GCD of symmetric two-electrode button cell | 1 |
| Galvanostatic cycling of Zn@DDA-Cu||DDA-Cu full cell | 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 |
| Cross-sectional SEM and galvanostatic symmetric-cell cycling of film-thickness variants | 1 |
| Galvanostatic Zn plating/stripping 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 |
| Galvanostatic charge-discharge, two-electrode hybrid device | 1 |
| Ragone analysis from GCD | 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 |
| galvanostatic discharge/charge cycling | 1 |
| Galvanostatic electrolysis with gas chromatography; TOF/TON calculations | 1 |
| Galvanostatic electrolysis, PXRD and UV-vis leaching check | 1 |
| Chronopotentiometric/chronoamperometric OER durability test | 1 |
| Three-compartment flow-cell chronopotentiometry and cerimetry H2O2 assay | 1 |