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. 2020 Mar 4;13(6):1203–1225. doi: 10.1002/cssc.201902972

Table 4.

Summary of relevant materials reported in the literature for doped/functionalized graphene‐based materials.

Material[a]

Synthesis

Electrolyte

Discharge capacity

(discharge rate)

Capacity

limitation

Cycles (discharge rate)

Ref.

N‐doped defective GNSs

annealing of commercial Vor‐X in an open furnace

+reduction in NH3 or H2 atmospheres at high temperature

1 m LiCF3SO3 in TEGDME

17 400 mAh g−1

(100 mA g−1)

800 mAh g−1

110

(40 A g−1)

[80]

3D N‐doped graphene nanocages

hydrothermal treatment with thiourea and GO as precursors and polystyrene particles as templates

+freeze‐drying+high‐temperature annealing

1 m LiTFSI in TEGDME

10 081 mAh g−1

(200 mA g−1)

1000 mAh g−1

72

(300 mA g−1)

[81]

S‐GNSs

CVD in Ni foam catalyst with thiophene as a precursor

1 m LiTFSI in TEGDME

10 081 mAh g−1

(200 mA g−1)

1000 mAh g−1

300

(300 mA g−1)

[82]

N‐,S‐codoped porous carbon/graphene hybrid

hydrothermal treatment of thiourea and sucrose+KOH activation

1 m LiTFSI in TEGDME

11 431 mAh g−1

(100 mA g−1)

500 mAh g−1

100

(500 mA g−1)

[84]

PEDOT microflower/GNS composites

surfactant‐assisted polymerization

0.5 m LiTFSI/0.5 LiNO3 in TEGDME

1500 mAh g−1

150

(400 mA g−1)

[86]

[a] PEDOT=poly(3,4‐ethylenedioxythiophene).