Skip to main content
. 2020 Oct 28;13:12. doi: 10.1007/s40820-020-00541-y

Table 2.

Comparison of state-of-the-art performances of 1D anode materials in PIBs

Materials Initial C.E. (%) Rate capacity (mAh g−1) at the current density (mA g−1) Cycle capacity (mAh g−1) at the current density (mA g−1) (cycle number) References
Ti3C2 60 at 300 42 at 200 (500) [52]
Cryptomelane-type MnO2/CNT hybrids 40.07 127.2 at 1000 226.5 at 100 (500) [126]
C-NCNFs 37.8 84.7 at 5 C 103.4 at 2 C (500) [53]
b-NCNTs 23.3 186 at 1000 204 at 500 (1000) [54]
M-NCNTs 24.45 102 at 2000 102 at 2000 (500) [55]
Highly N-doped CNFs 49 101 at 20,000 146 at 2000 (4000) [81]
Cup-stacked NCNT mats 14.2 75 at 1000 236 at 20 (100) [127]
Red P 68.26 71 at 3000 300 at 1000 (60) [56]
Sb/HCT 70 211.5 at 5000 300.1 at 2000 (120) [57]
3D amorphous carbon encapsulated CoS/NCNTs on CoS-coated CNFs 57.6 133.1 at 6400 ≈130 at 3200 (600) [128]
Carbon-encapsulated CoP nanoparticles embedded in CNTs supported on CNFs 53.2 ~292 at 3200 247 at 800 (1000) [129]
Sub-micro-carbon fiber@CNTs 108 at 5 C more than 193 at 1 C (300) [130]
Pyrrolic/pyridinic-N-doped necklace-like hollow carbon 204.8 at 2000 161.3 at 1000 (1600) [131]
Bi-nanorod networks confined in N, S co-doped carbon matrix 65 289 at 6000 285 at 5000 (1000) [132]
rGO/CNT hybrid papers 110 at 100 148 at 50 (200) [133]
Porous Mn–Fe-Se composite adhered/inserted with interlaced CNTs 33.43 83 at 800 141 at 50 (70) [134]
Hollow NCNFs anchored hierarchical FeP nanosheets 57 103 at 800 210 at 100 (1000) [135]