cMOF Evidence Base
Electrochemistry Application — Novel insights of structure evolution between ZIF and hydroxide via controlled doses of ammonium bifluoride and applications on battery supercapacitor hybrids

Measurement evidence

Electrochemistry Application

Novel insights of structure evolution between ZIF and hydroxide via controlled doses of ammonium bifluoride and applications on battery supercapacitor hybrids · Cheng T.-M., Wang S.-C., Lee P.-Y. et al. · Journal of Energy Storage · 2023 · 107709

14 measurement groups · 34 results

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

cyclic voltammetry in two-electrode BSH

Voltammetry

M-H10/rGO battery-supercapacitor hybrid · Electrode

Potential windows 0.8-1.1 V at 20 mV/s; scan rates 10-100 mV/s at 1.0 V.

Geometry
M-H10 positive electrode and rGO negative electrode
Context
application composite device
Measurement source
p008 / journal page 8 · 3.3. Electrochemical analysis of asymmetric supercapacitor · Fig. 7a-b
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
optimal BSH potential windowMarked as a best value within this paper1.0 V——Text
Exact Reported		p008 / journal page 8 · 3.3. Electrochemical analysis of asymmetric supercapacitor · Fig. 7a,c

galvanostatic charge/discharge in two-electrode BSH

Galvanostatic cycling

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.

Geometry
M-H10 positive electrode and rGO negative electrode
Context
application composite device
Measurement source
p008 / journal page 8 · 3.3. Electrochemical analysis of asymmetric supercapacitor · Fig. 7c-d,f
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
capacitance retention after 10000 cycles84.8%0.848 fraction—Text
Exact Reported		p008 / journal page 8 · 3.3. Electrochemical analysis of asymmetric supercapacitor · Fig. 7f
Coulombic efficiency after 10000 cycles96.1%0.961 fraction—Text
Exact Reported		p008 / journal page 8 · 3.3. Electrochemical analysis of asymmetric supercapacitor · Fig. 7f

Ragone plot from GC/D-derived energy and power density

M-H10/rGO battery-supercapacitor hybrid · Electrode

Energy and power densities estimated from equations using BSH GC/D curves.

Geometry
M-H10 positive electrode and rGO negative electrode
Context
application composite device
Measurement source
p008 / journal page 8 · 3.3. Electrochemical analysis of asymmetric supercapacitor · Fig. 7e
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
energy density at maximum power density5.7 Wh/kg——Text
Exact Reported		p008 / journal page 8 · 3.3. Electrochemical analysis of asymmetric supercapacitor · Fig. 7e
maximum energy densityMarked as a best value within this paper7.3 Wh/kg——Text
Exact Reported		p008 / journal page 8 · 3.3. Electrochemical analysis of asymmetric supercapacitor · Fig. 7e
maximum power densityMarked as a best value within this paper2142.9 W/kg——Text
Exact Reported		p008 / journal page 8 · 3.3. Electrochemical analysis of asymmetric supercapacitor · Fig. 7e
power density at maximum energy density714.3 W/kg——Text
Exact Reported		p008 / journal page 8 · 3.3. Electrochemical analysis of asymmetric supercapacitor · Fig. 7e

cyclic voltammetry in three-electrode cell

Voltammetry

M-H10 battery-type electrode · Electrode

20 mV/s, Pt counter electrode, Ag/AgCl reference electrode

Geometry
M-H10 composite electrode on nickel foam
Context
composite electrode containing M-H10 derivative
Measurement source
p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 4a; Table 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
capacity from CV at 20 mV/sMarked as a best value within this paper217.1 mAh/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2
specific capacitance from CV at 20 mV/sMarked as a best value within this paper1116.7 F/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2

cyclic voltammetry in three-electrode cell

Voltammetry

M-H15 battery-type electrode · Electrode

20 mV/s, Pt counter electrode, Ag/AgCl reference electrode

Geometry
M-H15 composite electrode on nickel foam
Context
composite electrode containing M-H15 derivative
Measurement source
p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 4a; Table 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
capacity from CV at 20 mV/s149.6 mAh/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2
specific capacitance from CV at 20 mV/s769.3 F/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2

cyclic voltammetry in three-electrode cell

Voltammetry

M-H2 battery-type electrode · Electrode

20 mV/s, Pt counter electrode, Ag/AgCl reference electrode, 3 M KOH electrolyte inferred from electrode/BSH section.

Geometry
M-H2 composite electrode on nickel foam
Context
composite electrode containing M-H2 derivative
Measurement source
p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 4a; Table 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
capacity from CV at 20 mV/s127.1 mAh/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2
specific capacitance from CV at 20 mV/s653.6 F/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2

cyclic voltammetry in three-electrode cell

Voltammetry

M-H20 battery-type electrode · Electrode

20 mV/s, Pt counter electrode, Ag/AgCl reference electrode

Geometry
M-H20 composite electrode on nickel foam
Context
composite electrode containing M-H20 derivative
Measurement source
p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 4a; Table 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
capacity from CV at 20 mV/s71.1 mAh/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2
specific capacitance from CV at 20 mV/s365.6 F/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2

cyclic voltammetry in three-electrode cell

Voltammetry

M-H5 battery-type electrode · Electrode

20 mV/s, Pt counter electrode, Ag/AgCl reference electrode

Geometry
M-H5 composite electrode on nickel foam
Context
composite electrode containing M-H5 derivative
Measurement source
p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 4a; Table 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
capacity from CV at 20 mV/s145.0 mAh/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2
specific capacitance from CV at 20 mV/s745.4 F/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2

galvanostatic charge/discharge in three-electrode cell

Galvanostatic cycling

M-H10 battery-type electrode · Electrode

1 A/g for Table 2 specific capacitance and capacity.

Geometry
M-H10 composite electrode on nickel foam
Context
composite electrode containing M-H10 derivative
Measurement source
p005 / journal page 5 · 3.2. Electrochemical analysis · Fig. 4b; Table 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
capacity from GC/D at 1 A/gMarked as a best value within this paper130.9 mAh/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2
specific capacitance from GC/D at 1 A/gMarked as a best value within this paper673.1 F/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2

galvanostatic charge/discharge in three-electrode cell

Galvanostatic cycling

M-H15 battery-type electrode · Electrode

1 A/g for Table 2 specific capacitance and capacity.

Geometry
M-H15 composite electrode on nickel foam
Context
composite electrode containing M-H15 derivative
Measurement source
p005 / journal page 5 · 3.2. Electrochemical analysis · Fig. 4b; Table 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
capacity from GC/D at 1 A/g88.7 mAh/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2
specific capacitance from GC/D at 1 A/g456.3 F/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2

galvanostatic charge/discharge in three-electrode cell

Galvanostatic cycling

M-H2 battery-type electrode · Electrode

1 A/g for Table 2 specific capacitance and capacity.

Geometry
M-H2 composite electrode on nickel foam
Context
composite electrode containing M-H2 derivative
Measurement source
p005 / journal page 5 · 3.2. Electrochemical analysis · Fig. 4b; Table 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
capacity from GC/D at 1 A/g73.7 mAh/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2
specific capacitance from GC/D at 1 A/g378.9 F/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2

galvanostatic charge/discharge in three-electrode cell

Galvanostatic cycling

M-H20 battery-type electrode · Electrode

1 A/g for Table 2 specific capacitance and capacity.

Geometry
M-H20 composite electrode on nickel foam
Context
composite electrode containing M-H20 derivative
Measurement source
p005 / journal page 5 · 3.2. Electrochemical analysis · Fig. 4b; Table 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
capacity from GC/D at 1 A/g46.1 mAh/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2
specific capacitance from GC/D at 1 A/g237.4 F/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2

galvanostatic charge/discharge in three-electrode cell

Galvanostatic cycling

M-H5 battery-type electrode · Electrode

1 A/g for Table 2 specific capacitance and capacity.

Geometry
M-H5 composite electrode on nickel foam
Context
composite electrode containing M-H5 derivative
Measurement source
p005 / journal page 5 · 3.2. Electrochemical analysis · Fig. 4b; Table 2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
capacity from GC/D at 1 A/g78.9 mAh/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2
specific capacitance from GC/D at 1 A/g405.6 F/g——Table
Exact Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Table 2

galvanostatic charge/discharge rate performance

Galvanostatic cycling

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.

Geometry
M-H10 composite electrode on nickel foam
Context
composite electrode containing M-H10 derivative
Measurement source
p006-p007 / journal pages 6-7 · 3.2. Electrochemical analysis · Fig. 5
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
M-H10 capacitance retention at 10 A/g relative to 4.5 A/g37%0.37 fraction—Text
Rounded Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 5h
M-H10 capacitance retention at 5 A/g relative to 4.5 A/g87%0.87 fraction—Text
Rounded Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 5h
M-H10 capacitance retention at 7 A/g relative to 4.5 A/g57%0.57 fraction—Text
Rounded Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 5h
M-H10 capacitance retention at 2.5 A/g relative to 2.0 A/g96%0.96 fraction—Text
Rounded Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 5f
M-H10 capacitance retention at 3.0 A/g relative to 2.0 A/g92%0.92 fraction—Text
Rounded Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 5f
M-H10 capacitance retention at 3.5 A/g relative to 2.0 A/g89%0.89 fraction—Text
Rounded Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 5f
M-H10 capacitance retention at 4.0 A/g relative to 2.0 A/g87%0.87 fraction—Text
Rounded Reported		p006 / journal page 6 · 3.2. Electrochemical analysis · Fig. 5f