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Figure/Table detail
Applications of Graphene in Hydrogen Evolution Electrocatalyst
Yiming Zhang, Jianping Guo, Jiale Zhang, Aowen Zheng, Yanyan Wang, Guangke Tian
Progress in Chemistry
, 2024, 36(
5
): 633-644. DOI:
10.7536/PC230905
Fig. 1
Number of SCI papers related to graphene-based hydrogen evolution electrocatalytic materials published from 2018 to 2022
Other figure/table from this article
Fig. 2
(A) Schematic illustration of the proposed mechanism for the formation of Pt-CNSs/rGO nanohybrids. (B) TEM image of Pt-CNSs, insets: (a) HRTEM image and (b) FFT pattern of Pt-CNSs. (C) Typical TEM images of Pt-CNSs/rGO nanohybrids. (D) HER polarization curves of Pt-CNSs/rGO nanohybrids and Pt-CNSs in N
2
-saturated 0.5 M H
2
SO
4
solution at a scan rate of 5 mV/s and rotation rate of 1000 r/min. The top-right inset shows the corresponding Tafel plots for Pt-CNSs/rGO nanohybrids and Pt-CNSs. (E) Electrochemical impedance spectra of Pt-CNSs/rGO nanohybrids and Pt-CNSs
[
17
]
Fig. 3
(A) Schematic solvothermal synthesis with GO sheets to afford the MoS
2
/rGO hybrid. (B) SEM and (inset) TEM images of the MoS
2
/RGO hybrid. (C) Schematic solvothermal synthesis without any GO sheets, resulting in large, free MoS
2
particles. (D) SEM and (inset) TEM images of the free particles. (E) TEM image showing folded edges of MoS
2
particles on RGO in the hybrid. The inset shows a magnified image of the folded edge of a MoS
2
nanoparticle. (F) HRTEM image showing nanosized MoS
2
with highly exposed edges stacked on a RGO sheet. Polarization curves (G) and corresponding Tafel plots (H) of different electrocatalysts
[
26
]
Fig. 4
Low magnification TEM images of N, S co-doped graphene (NSG) (a) and plasma-etched N, S co-doped graphene (P-NSG) (b); high magnification TEM images of NSG (c) and P-NSG (d); SAED patterns of NSG (e) and P-NSG (f); (g) schematic illustration of the synthesis process of P-NSG
[
44
]
Fig. 5
SEM images of (a) CoFeP and (b) CoFeP/rGO, (d) TEM image and corresponding elemental mapping images (e~i) of CoFeP/rGO. HER performance of CoFeP and CoFeP/rGO composites in the 0.5 M H
2
SO
4
solution: (j) HER polarization curves; (k) Overpotentials; (l) Tafel plots; (m) Capacitive current densities; (n) Nyquist plots; (o) i-t curves of CoFeP/rGO at potential of 0.076 V vs RHE
[
67
]
Fig. 6
LSV curves (A) and Tafel plots (B) of CoP/G⁞GQD, CoP/G, and commercial Pt/C; (C) Nyquist plots of CoP/G⁞GQD and CoP/G measured at an overpotential of 200 mV in a frequency range from 10
6
to 1 Hz; (D) LSV curves of CoP/G⁞GQD at a scan rate of 2 mV/s before and after 2000 CV cycles at a scan rate of 100 mV/s between -0.17 and +0.01 V. Inset: time dependence of the current density of CoP/ G⁞GQD at an overpotential of 91.3 mV; (E) schematic illustration of the synthesis process of CoP/G⁞GQD
[
77
]
Fig. 7
Morphological and microstructural analysisof the 3D MX/CN/RGO nanoarchitecture. Representative (a, b) FE-SEM, (c, d) TEM, (e) HAADF-STEM images reveal the successful integration of Ti
3
C
2
T
x
, g-C
3
N
4
nanosheets and graphene into a 3D interconnected framework; (f, g) HR-TEM images disclose the lattice fringes of Ti
3
C
2
T
x
and g-C
3
N
4
nanosheets; (h) LSV polarization curves and (i) the corresponding Tafel plots
[
82
]
Fig. 8
(a, b) HRTEM images of CoNi@NC, showing the graphene shells and encapsulated metal nanoparticles. (c) Schematic illustration of the CoNi@NC structure. (d) Statistical analysis of the number of layers in the graphene shells encapsulating the metal nanoparticles in CoNi@NC. (e~h) HAADF-STEM image and corresponding elemental mapping images of CoNi@NC. (i) Gibbs free energy (ΔG) profile of the HER on various catalysts. (j) Volcano plot of the polarized current (i
0
) versus ΔG(H
*
) for a CoNi cluster, CoNi@C, and an N-doped graphene shell (Ncarbon)
[
83
]
Table 1
Summary of the HER performance of some graphene-based electrocatalysts
