Table 3 The comparative representation of evaluated specific capacitances (Csp) and cyclic Stability of prepared electrodes with other literature results.

From: Boosted electrochemical performance of magnetic caterpillar-like Mg0.5Ni0.5Fe2O4 nanospinels as a novel pseudocapacitive electrode material

Sample

Morphology

Preparation method

Electrolyte

Current density/scan rate

Csp (F g−1)

Cyclic Stability (%)

Ref

MgFe2O4

Rose nanoflowers

Hydrothermal

3 M KOH

1 A g−1

250

139.5 (2000 cycles)

18

MgFe2O4

Nanoparticles

Hydrothermal

6 M KOH

1 A g−1

153

71.76 (1000 cycles)

21

MgFe2O4

Nanobelts

Electrospinning

3 M KOH

1 A g−1

97

81 (3000 cycles)

This work

NiFe2O4

Nanoparticles

Solvothermal

1 M KOH

1A g−1

386

73 (700 cycles)

19

NiFe2O4

Nanosheets

Electrodeposition

1 M KOH

1 A g−1

560

95.3 (10,000 cycles)

20

NiFe2O4

Nanospheres

Precipitation

0.5 M KOH

1 A g−1

137.2

100 (100 cycles)

66

NiFe2O4

Pompon flower

Vapor deposition

3 M KOH

1 A g−1

168.5

71.4 (10,000 cycles)

67

NiFe2O4

Nanoparticles

Solvothermal

3 M KOH

2 mV s−1

109.26

 < 90 (1000 cycles)

68

NiFe2O4

Nanotubes

Electrospinning

3 M KOH

1 A g−1

240

87 (3000 cycles)

This work

Ni0.6Mn0.4Fe2O4

Nanoparticles

Hydrothermal

3 M KOH

0.5 A g−1

766

95 (1500 cycles)

17

Ni0.5Mg0.5Fe2O4

Nanoparticles

Hydrothermal

6 M KOH

1 A g−1

46.49

96.28 (1000 cycles)

21

Co0.5Ni0.5Fe2O4

Nanoparticles

Hard template

1 M KOH

5 mV s−1

113

120.05 (1000 cycles)

69

Zn doped MgFe2O4

Nanoparticles

Sol–gel citrate

1 M Na2SO4

1 mA cm−2

484.6

70

MgFe2O4/ZnMn2O4

Nanoparticles

Sol–gel

3 M KOH

1 A g−1

502

108.9 (1000 cycles)

71

NiFe2O4@CoFe2O4

Nanofibers

Electrospinning

3 M KOH

1 A g−1

480

87 (2000 cycles)

72

Mg0.5Ni0.5Fe2O4

Nanofibers

Electrospinning

3 M KOH

1 A g−1

647

91 (3000 cycles)

This work