iDCs are characterized by a high rate of endocytosis and low antigen-presenting capability.
Even at a high rate of 10 A g−1, an impressive rate capability of 310 mA h g−1 is still obtained.
The Mn3O4/Fe3O4 anode material also shows an excellent cycling stability at the high rate of 1500 mA g−1 with outstanding rate capability.
In addition, the cycling ability and high rate capability of the Co P electrode are excellent with only 5% capacity decay after 100 cycles at a high rate of 300 mA/g.
Besides, it presents an excellent rate capability, a high discharge capacity of over 76.1 mAh g−1 is still obtained even at the high rate of 20 C.
Moreover, the doped graphene sheets also demonstrated high-rate capability by producing capacities of ∼ 199 mA h g−1 (N-doped graphene) and 235 mA h g−1 (B-doped graphene) even at a high rate of 25.00 A g−1.
A high rate capability of 40% retention of discharge capacity of 2.0 C against that at 0.05 C, a high cyclic stability of 0.1%/cycle within 180 cycles, and a high volumetric energy density over 850 Wh L−1 are demonstrated with the pressed graphene@S-CNT electrode.
At a high current density of 2 A g−1, NiO@Co3O4@MnO2 has a high specific capacitance of 792.5 F g−1 with > 90% capacity retention over 1000 cycles, and a high rate capability of 68.9% of its initial capacitance was also maintained over a 0.2 4 A g−1 current density increase.
They not only compromised the dimensionality of carbon nanofibrils and carbon nanosheets, but also showed high capacitance and rate capability, in contrast to low capacitance while high rate capability of carbon nanofibrils, as well as high capacitance while low rate capability of carbon nanosheets.
The nanocomposite has high initial Coulombic efficiency of 99%, high rate capability of 74.0 matg−1 at 50C, as well as long-term cycling stability with capacity retention of 74.3 mafter after 2000 cycles with only 0.012% loss per cycle at 10C.
