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

Table 6.

Summary of relevant materials in the literature for graphene‐based materials for Na–O2 batteries.

Material

Synthesis

Electrolyte

Discharge capacity

(discharge rate)

Capacity

limitation

Cycles

(discharge rate)

Ref.

GNS

Hummer′s method

+casting GO on stainless‐steel mesh

+freeze‐drying

+annealing at mild temperature

0.25 m NaPF6 in DME

9268 mAh g−1

(200 mA g−1)

1200 mAh g−1

10

(300 mA g−1)

[114]

N‐GNS

Hummer′s method

+annealing at high temperature

0.5 mol dm−3 NaSO3CF3 in DEGDME

6000 mAh g−1

(75 mA g−1)

1150 mAh g−1

3

(75 mA g−1)

[115]

porous rGO

coating Ni foam with graphene colloids

0.25 m NaClO4 in DME

12 mAh cm−2

(0.1 mA cm−2)

1 mAh cm−2

17

(0.1 mA cm−2)

[116]

Pt/GNS

in situ growth of Pt particles on GO by

hydrothermal treatment

1 m NaClO4 in PC

7574 mAh g−1

(0.1 mA cm−2)

100 mAh g−1

10

(0.1 mA cm−2)

[117]

Ag‐rGO

simultaneous reduction of Ag precursor

and GO using ethylene glycol

1 m NaPF6 in TEGDME

566 mAh g−1

(0.1 mA cm−2)

0.125 mAh cm−2

30

(0.2 mA cm−2)

[88]

rGO aerogels

freeze‐drying of commercial GO

+annealing at high temperature

0.1 m NaClO4 in DME

6.61 mAh cm−2

(100 mA g−1)

0.5 mAh cm−2

40

(0.25 mA cm−2)

[7]